/builds/wireshark/wireshark/epan/dissectors/packet-dof.c

Bug Summary

File:	builds/wireshark/wireshark/epan/dissectors/packet-dof.c
Warning:	line 7127, column 25 Access to field 'opid_last' results in a dereference of a null pointer (loaded from variable 'ptr')
Annotated Source Code

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clang -cc1 -cc1 -triple x86_64-pc-linux-gnu -analyze -disable-free -clear-ast-before-backend -disable-llvm-verifier -discard-value-names -main-file-name packet-dof.c -analyzer-checker=core -analyzer-checker=apiModeling -analyzer-checker=unix -analyzer-checker=deadcode -analyzer-checker=security.insecureAPI.UncheckedReturn -analyzer-checker=security.insecureAPI.getpw -analyzer-checker=security.insecureAPI.gets -analyzer-checker=security.insecureAPI.mktemp -analyzer-checker=security.insecureAPI.mkstemp -analyzer-checker=security.insecureAPI.vfork -analyzer-checker=nullability.NullPassedToNonnull -analyzer-checker=nullability.NullReturnedFromNonnull -analyzer-output plist -w -setup-static-analyzer -mrelocation-model pic -pic-level 2 -fhalf-no-semantic-interposition -fno-delete-null-pointer-checks -mframe-pointer=all -relaxed-aliasing -fmath-errno -ffp-contract=on -fno-rounding-math -ffloat16-excess-precision=fast -fbfloat16-excess-precision=fast -mconstructor-aliases -funwind-tables=2 -target-cpu x86-64 -tune-cpu generic -debugger-tuning=gdb -fdebug-compilation-dir=/builds/wireshark/wireshark/build -fcoverage-compilation-dir=/builds/wireshark/wireshark/build -resource-dir /usr/lib/llvm-22/lib/clang/22 -isystem /usr/include/glib-2.0 -isystem /usr/lib/x86_64-linux-gnu/glib-2.0/include -isystem /builds/wireshark/wireshark/epan/dissectors -isystem /builds/wireshark/wireshark/build/epan/dissectors -isystem /usr/include/mit-krb5 -isystem /usr/include/libxml2 -isystem /builds/wireshark/wireshark/epan -D CARES_NO_DEPRECATED -D G_DISABLE_DEPRECATED -D G_DISABLE_SINGLE_INCLUDES -D WS_BUILD_DLL -D WS_DEBUG -D WS_DEBUG_UTF_8 -I /builds/wireshark/wireshark/build -I /builds/wireshark/wireshark -I /builds/wireshark/wireshark/include -D _GLIBCXX_ASSERTIONS -internal-isystem /usr/lib/llvm-22/lib/clang/22/include -internal-isystem /usr/local/include -internal-isystem /usr/lib/gcc/x86_64-linux-gnu/16/../../../../x86_64-linux-gnu/include -internal-externc-isystem /usr/include/x86_64-linux-gnu -internal-externc-isystem /include -internal-externc-isystem /usr/include -fmacro-prefix-map=/builds/wireshark/wireshark/= -fmacro-prefix-map=/builds/wireshark/wireshark/build/= -fmacro-prefix-map=../= -Wno-format-nonliteral -std=gnu17 -ferror-limit 19 -fvisibility=hidden -fwrapv -fwrapv-pointer -fstrict-flex-arrays=3 -stack-protector 2 -fstack-clash-protection -fcf-protection=full -fgnuc-version=4.2.1 -fskip-odr-check-in-gmf -fexceptions -fcolor-diagnostics -analyzer-output=html -faddrsig -fdwarf2-cfi-asm -o /builds/wireshark/wireshark/sbout/2026-11-03-100334-3662-1 -x c /builds/wireshark/wireshark/epan/dissectors/packet-dof.c
1/* packet-dof.c
* Routines for Distributed Object Framework (DOF) Wireshark Support
* Copyright 2015 Bryant Eastham <bryant.eastham[AT]us.panasonic.com>
* See https://opendof.org for more information.
*
* Wireshark - Network traffic analyzer
* By Gerald Combs <gerald@wireshark.org>
* Copyright 1998 Gerald Combs
*
* SPDX-License-Identifier: GPL-2.0-or-later
*/

13/* INTRODUCTION
* This very large dissector implements packet decoding for the entire
* protocol suite of the OpenDOF Project. The OpenDOF Project
* (https://opendof.org) is an open-source IoT platform with
* implementations in Java, C#, and C. The protocols are documented
* on the web site, and the IP ports referenced are registered with IANA.
*
* "DOF" stands for Distributed Object Framework. The protocols define
* a complete protocol stack that can sit on top of a variety of transports.
* The stack itself is called the DPS, or "DOF Protocol Stack". It
* is a layered stack including a Network, Presentation, and Application
* layer. The underlying transport can be anything, these dissectors
* hook in to UDP and TCP. To the Wireshark user, however, this is
* referred to as "dof" and not "dps".
*
* The following protocols are defined in the stack and implemented
* here:
*   DNP    - DOF Network Protocol (versions: 0, 1)
*   DPP    - DOF Presentation Protocol (version: 0, 2) [1 is reserved and not supported]
*   DAP    - DOF Application Protocols:
*   DSP    - DOF Session Protocol (versions: 0)
*   OAP    - Object Access Protocol (versions: 1)
*   TEP    - Ticket Exchange Protocol (versions: 128)
*   TRP    - Ticket Request Protocol (versions: 129)
*   SGMP   - Secure Group Management Protocol (versions: 130)
*   DOFSEC - DOF Security Protocols:
*   CCM    - Chained mode
*   TUN    - A tunneling protocol for embedding DOF in other protocols.
*/

43/* VERSIONS AND NAMING
* There are several different ways in which "versions" are used
* throughout the dissector. First, each of the DNP and DPP layers
* has a defined 'version'. The DOF Application Protocols are also
* distinguished by versioning, but it is actually the registered
* application ID that is the version. This is complicated by
* the fact that many of the application IDs represent the same
* version of a protocol from a capability perspective (and
* a user perspective) with the difference being some attribute
* of the protocol - for example the security primitives used.
*
* Another means of versioning is by specification document.
* In this case the document is identified by a year and sequence,
* with specifications and PDUs using a name and sequence.
* Naming of fields and variables will use these identifiers
* as they are the easiest way to tie the code to the specifications.
*
* The specification documents are also the easiest way (although
* maybe not the clearest) to expose fields to the Wireshark user.
* A consistent naming is used, which is:
*
*   (spec)-pdu-(seq)-(field)
*   For example: dof-2009-1-pdu-1-value
*
* Variable naming includes a protocol name to provide clarity.
*
* This is not the clearest from a user perspective, but it
* has the benefit of tying directly to the specifications
* themselves and uniquely identifies each field.
*
* Routines that dissect are uniformly named by the PDU
* that they dissect using the PDU specification document
* and PDU name from that document as follows:
*
*   dissect_(spec)_(name)
*/

80/* DISSECTOR DESIGN
* The original work on these dissectors began over ten years ago, but
* shared only within Panasonic. During the opening of the protocols in
* March of 2015 the decision was made to contribute the code to the Wireshark
* community. During this process the plugin approach was rejected and the
* entire set made into standard dissectors, and further to that all of the
* dissectors were merged into a single file.
*
* There are several types of supported dissectors that are part of the DPS family.
* At the lowest level are the transport dissectors. The responsibility
* of these dissectors is to determine the transport session information, pass
* DPS packets to the DPS dissector, and properly maintain the dof_api_data
* structure.
*
* The DPS dissector API comprises:
*    1. The structure (dof_api_data) that is passed in the data field to the DPS
*       dissector. Transport plugins must understand this.
*    2. The dof_transport_session structure, which contains all transport
*       information that is passed to the DPS dissector.
*    3. The name of the DPS dissector.
*
* The DPS dissector API extends to dissectors that are called by the DPS dissectors.
*
* Finally, there is the DPS Security Mode dissectors. These dissectors are passed
* additional security context information and it is their job to decrypt packets
* and pass them to higher-level dissectors.
*
* The DOF Protocol Stack is strictly layered with minimal (and defined) state
* exchanged between layers. This allows a fairly structured design, using
* dissector tables at each layer. The main DPS dissector receives packets
* from the transport hooks, and then dissects the packet layer by layer using
* the different dissector tables. Dissectors and the DNP, DPP, and DAP layers.
*
* In addition to the main protocol stack with its associated protocols there are
* additional common data elements that include extensibility. If an extension
* is found then it will be used to dissect, otherwise the base dissector will be
* used.
*/

119/* SESSIONS
* DOF defines sessions at many different levels, and state is always associated
* with a session. Much of the power (and complexity) of these dissectors relates
* to accurately tracking and maintaining context for each session, and displaying
* context-related decode information based on the session. This includes, for
* example, decoding encrypted data (including multicast group traffic) and
* showing full packet information even when the packet data uses aliases or
* other context specific data.
*
* Sessions are an extremely complex part of the dissectors because they occur at
* so many different levels, and that they are temporal in nature while wireshark
* is not. This means that all data structures that deal with sessions must deal
* with both the level and the time of the packet.
*
* The levels are:
*   1. Transport. These sessions are defined by the transport, and transport
*      addresses. As in the transports, there is no transport information allowed
*      at the dps level, but transport information is allowed to influence other
*      decisions. Every dps packet must be part of a transport session. Transport
*      sessions are usually managed as conversations in Wireshark. Each transport
*      session is has an identifier that is defined by the DPS plugin the first
*      time a packet in the transport session is passed to the plugin.
*   2. DPS. These sessions are defined by DPS, and are part of the DNP definition.
*      These sessions are also assigned a unique DPS session identifier.
*
*   3. Security (Optional). Security sessions always exist inside of
*      an DPS session. Security sessions are further divided into epochs, keys, etc.
*
* Temporal information is always associated with packet numbers, which always increase.
* This temporal information is used during the first pass to create sessions by
* determining that a new packet doesn't belong to a previous session.
*
* During the first pass the data structures are referenced from the transport
* session information up. The goal of the first pass is to create the most specific
* session information and associate each packet with the appropriate session. These
* sessions refer to more general session information.
*
* In order to make lookups easier, the most fine-grained sessions are assigned
* unique identifiers. Secure sessions are always born unsecure (during security
* negotiation). These use the same session identifiers, but the state for the
* secure and unsecured times are separated. Once a session is secured it never
* transitions back to unsecured.
*
* MEMBERSHIP
* Each packet is sent by a member of the session. Session members have state related
* to the session. Packets are received by either a member of the session or the
* session itself (implying all members). This means that packet state can come
* from:
*   1. The sender.
*   2. The receiver (if directed to a receiver).
*   3. The session.
* The identity of a member is always a combination of transport and dps information.
* However, the state of the membership is in the context of the session, keyed by
* the sender.
*
* In order to make lookups easier, each unique sender in the system is
* assigned a unique identifier.
*/

178#include <config.h>

180#include <ctype.h>

182#include <wsutil/wsgcrypt.h>

184#include <epan/packet.h>
185#include <epan/proto.h>
186#include <epan/proto_data.h>
187#include <epan/prefs.h>
188#include <epan/conversation.h>
189#include <epan/expert.h>
190#include <epan/uat.h>
191#include <wsutil/str_util.h>
192#include <epan/tfs.h>
193#include "packet-tcp.h"

195/* DEFINES, STRUCTURES, AND SUPPORT METHOD DECLARATIONS
* The following sections includes preprocessor definitions, structure definitions,
* and method declarations for all dissectors.
* The ordering is by DPS stack order, general first and then by protocols.
*/

201/**
* GENERAL SUPPORT STRUCTURES
* The following structures represent state that must be maintained for
* the dissectors to operate. They are not directly related to protocol
* information.
*/

208/**
* This structure represents a SID, or Sender ID, in the system.
* This is allocated as global memory, and must be freed. SIDs
* are Object IDs, and can be displayed in hex but preferably
* using the OID output format. Even though the OID contains
* a length, we prefix this buffer with a length (which must
* be less than 255 by the definition of a SID.
* SIDs are not versioned, so they can be used universally in
* any protocol version.
*/
218typedef uint8_t *dof_2009_1_pdu_19_sid;

220/**
* This structure encapsulates an OPID, which is the combination of
* a source identifier (SID, and OID) and a packet number. This is a separate
* structure because some operations actually contain multiple opids, but need
* to be placed in the appropriate data structures based on SID lookup. This
* structure can be used as a key in different hash tables.
*/
227typedef struct _dpp_opid
228{
  unsigned op_sid_id;
  dof_2009_1_pdu_19_sid op_sid;
  unsigned op_cnt;
232} dof_2009_1_pdu_20_opid;

234/**
* This structure contains all of the transport session information
* related to a particular session, but not related to the packet
* within that session. That information is separated to allow
* reuse of the structure.
*/
240typedef struct _dof_transport_session
241{
  /**
   * TRANSPORT ID: This is a unique identifier for each transport,
   * used to prevent aliasing of the SENDER ID value in the
   * transport packet structure. It contains the protocol id
   * assigned by Wireshark (unique per protocol).
   */
  int transport_id;

  /**
   * For new sessions, this is left zero. The DPS dissector will
   * set this value.
   */
  uint32_t transport_session_id;

  /**
   * Timestamp of start of session.
   */
  nstime_t session_start_ts;

  /**
   * Whether negotiation is required on this session.
   */
  bool_Bool negotiation_required;

  /**
   * The frame number where negotiation was complete, or zero if not complete.
   */
  uint32_t negotiation_complete_at;

  /**
   * The time when negotiation was complete, or zero if not complete.
   */
  nstime_t negotiation_complete_at_ts;

  /**
   * Type of transport session.
   */
  bool_Bool is_streaming;  /* Inverse is 'is_datagram'. */

  /**
   * Cardinality of transport session.
   */
  bool_Bool is_2_node; /* Inverse is 'is_n_node'. */
285} dof_transport_session;

287typedef struct _dof_transport_packet
288{
  /**
   * Source of packet (if known, default is server).
   */
  bool_Bool is_sent_by_client; /* Inverse is 'is_sent_by_server'. */

  /**
   * SENDER ID/RECEIVER ID: A unique value that identifies the unique
   * transport sender/receiver address. This number is based on only
   * the transport, and not session, information.
   */
  unsigned sender_id;
  unsigned receiver_id;
301} dof_transport_packet;

303/**
* This structure maintains security state throughout an DPS session.
* It is managed by the key exchange protocol, and becomes effective
* at different dps packets in each communication direction. Decrypting
* a packet requires that this structure exists.
*/
309typedef struct _dof_session_key_exchange_data
310{
  /**
   * The frame at which this becomes valid for initiator packets.
   */
  uint32_t i_valid;

  /**
   * The frame at which this becomes valid for responder packets.
   */
  uint32_t r_valid;

  /**
   * SECURITY MODE: The security mode for a secure session. Set
   * by the key exchange dissector.
   */
  uint32_t security_mode;

  /**
   * SECURITY MODE INITIALIZATION DATA: Determined by the key exchange
   * protocol and passed here for the reference of the security mode.
   */
  uint32_t security_mode_data_length;
  uint8_t *security_mode_data;

  /**
   * SECURITY MODE DATA: Created and managed by the security mode
   * dissector.
   */
  void *security_mode_key_data;

  /**
   * SESSION KEY: Pointer to seasonal data that holds the encryption key.
   */
  uint8_t *session_key;

  /**
   * The next security data in this session.
   */
  struct _dof_session_key_exchange_data *next;
349} dof_session_key_exchange_data;

351/**
* This structure contains security keys that should be tried with
* sessions that otherwise are not known.
*/
355typedef struct _dof_session_key_data
356{
  uint8_t *session_key;
358} dof_session_key_data;

360/**
* This structure contains security keys for groups.
*/
363typedef struct _dof_group_data
364{
  uint8_t *domain;
  unsigned domain_length;
  uint8_t *identity;
  unsigned identity_length;
  uint8_t *kek;
370} dof_group_data;

372/**
* This structure contains security keys for non-group identities.
*/
375typedef struct _dof_identity_data
376{
  uint8_t *domain;
  unsigned domain_length;
  uint8_t *identity;
  unsigned identity_length;
  uint8_t *secret;
382} dof_identity_data;

384/**
* This structure exists for global security state. It exposes the
* configuration data associated with DPS, and also is a common location
* that learned security information is stored. Each dof_packet_data will
* contain a pointer to this structure - there is only one for the entire
* DPS.
*/
391typedef struct _dof_security_data
392{
  /* Array of session_keys. */
  dof_session_key_data *session_key;
  uint16_t session_key_count;

  /* Array of group data. */
  dof_group_data *group_data;
  uint16_t group_data_count;

  /* Array of identity data. */
  dof_identity_data *identity_data;
  uint16_t identity_data_count;

  /* Global sessions. */
  /*TODO: Figure this out */
  /* dof_session_list* sessions; */
408} dof_security_data;

410/**
* This structure represents a key that is learned for a group and epoch.
*/
413struct _dof_learned_group_data;
414typedef struct _dof_learned_group_auth_data
415{
  uint32_t epoch;
  uint8_t *kek;
  unsigned mode_length;
  uint8_t *mode;
  uint16_t security_mode;
  struct _dof_learned_group_data *parent;
  struct _dof_learned_group_auth_data *next;
423} dof_learned_group_auth_data;

425/**
* This structure represents a group that is learned about.
*/
428typedef struct _dof_learned_group_data
429{
  unsigned domain_length;
  uint8_t *domain;
  unsigned group_length;
  uint8_t *group;
  uint32_t ssid;

  dof_learned_group_auth_data *keys;
  struct _dof_learned_group_data *next;
438} dof_learned_group_data;

440/**
* This structure exists for each secure DPS session. This is kept in
* addition to the normal session
* Each packet that has state will contain a reference to one of these.
*
* Information in this structure is invariant for the duration of the
* session *or* is only used during the initial pass through the packets.
* Information that changes (for example, security parameters, keys, etc.)
* needs to be maintained separately, although this structure is the
* starting place for this information.
*
* This structure is initialized to zero.
*/
453struct _dof_session_data;
454typedef struct _dof_secure_session_data
455{
  /**
   * SSID: Zero is typically used for streaming sessions.
   */
  uint32_t ssid;

  /**
   * DOMAIN LENGTH: The length of the security domain, greater than
   * zero for secure sessions. Set by the key exchange dissector.
   */
  unsigned domain_length;

  /**
   * DOMAIN: The security domain itself, seasonal storage, non-null
   * for secure sessions. Set by the key exchange dissector.
   */
  uint8_t *domain;

  /**
   * SESSION SECURITY: This is a list of security data for this
   * session, created by the key exchange protocol.
   */
  dof_session_key_exchange_data *session_security_data;
  dof_session_key_exchange_data *session_security_data_last;

  /**
   * NEXT: This is the next secure session related to the parent
   * unsecure session. Protocols can define new secure sessions and
   * add them to this list. DPP then finds the correct secure session
   * for a secure packet and caches it.
   */
  struct _dof_secure_session_data *next;
  struct _dof_session_data *parent;
  uint32_t original_session_id;
  bool_Bool is_2_node;
490} dof_secure_session_data;

492/**
* This structure exists for each DPS session. Secure sessions have an
* additional data structure that includes the secure session information.
* Each packet that has state will contain a reference to one of these.
*
* Information in this structure is invariant for the duration of the
* session *or* is only used during the initial pass through the packets.
* Information that changes (for example, security parameters, keys, etc.)
* needs to be maintained separately, although this structure is the
* starting place for this information.
*
* This structure is initialized to zero.
*/
505typedef struct _dof_session_data
506{
  /**
   * SESSION ID: Set when the session is created, required.
   */
  uint32_t session_id;

  /**
   * DPS ID: The type of DPS SENDER ID (in the packet data) to prevent
   * aliasing. Since DPS senders identifiers relate to DNP, this is the
   * DNP version number.
   */
  uint8_t dof_id;

  /**
   * SECURE SESSIONS: When secure sessions are created from this
   * unsecure session then they are added to this list. Each member
   * of the list must be distinguished.
   */
  dof_secure_session_data *secure_sessions;

  /**
   * Protocol-specific data.
   */
  GSList *data_list;
530} dof_session_data;

532/* DOF Security Structures. */
533/* Return structures for different packets. */

535typedef struct _dof_2008_16_security_3_1
536{
  tvbuff_t *identity;
538} dof_2008_16_security_3_1;

540typedef struct _dof_2008_16_security_4
541{
  tvbuff_t *identity;
  tvbuff_t *nonce;
544} dof_2008_16_security_4;

546typedef struct _dof_2008_16_security_6_1
547{
  tvbuff_t *i_identity;
  tvbuff_t *i_nonce;
  uint16_t security_mode;
  uint32_t security_mode_data_length;
  uint8_t *security_mode_data;
553} dof_2008_16_security_6_1;

555typedef struct _dof_2008_16_security_6_2
556{
  tvbuff_t *r_identity;
  tvbuff_t *r_nonce;
559} dof_2008_16_security_6_2;


562/**
* This structure defines the address for Wireshark transports. There is no
* DPS information associated here.
*/
566typedef struct _ws_node
567{
  address addr;
  uint32_t port;
570} ws_node;

572typedef struct _dof_session_list
573{
  dof_session_data *session;
  struct _dof_session_list *next;
576} dof_session_list;

578/**
* DOF PACKET DATA
* This structure exists for each DOF packet. There is ABSOLUTELY NO
* transport-specific information here, although there is a session
* number which may relate to transport information indirectly through
* a transport session.
* There will be one of these for each DOF packet, even if the corresponding
* Wireshark frame has multiple DOF packets encapsulated in it. The key
* to this structure is the operation identifier, and there is a hash
* lookup to go from an operation identifier to this structure.
*/
589typedef struct _dof_packet_data
590{
  /**
   * NON-DPS FIELDS, USED FOR WIRESHARK COMMUNICATION/PROCESSING
   * Protocol-specific data.
   */
  wmem_list_t *data_list;

  /**
   * The Wireshark frame. Note that a single frame can have multiple DPS packets.
   */
  uint32_t frame;

  /**
   * The DPS frame/packet. This number is unique in the entire trace.
   */
  uint32_t dof_frame;

  /**
   * Packet linked list for all dps packets.
   */
  struct _dof_packet_data *next;

  /**
   * DPS FIELDS
   * Indicator that the packet has already been processed. Processed packets
   * have all their fields set that can be determined. Further attempts to
   * determine NULL fields are worthless.
   */
  bool_Bool processed;

  /**
   * SUMMARY: An operation summary, displayed in the Operation History. This is seasonal
   * data, managed by the DPP dissector.
   */
  const char *summary;

  /**
   * SENDER ID/RECEIVER ID: An identifier for each unique sender/receiver according to DPS.
   * This augments the transport SENDER ID/RECEIVER ID in determining each
   * unique sender.
   */
  int sender_id;
  int receiver_id;

  /**
   * DPP INFORMATION - CACHED INFORMATION
   */
  bool_Bool is_command;    /* Inverse is 'is_response'. */
  bool_Bool is_sent_by_initiator;

  /**
   * SENDER SID ID/RECEIVER SID ID: An identifier for the sid associated with this packet's sender.
   * Zero indicates that it has not been assigned. Assigned by the DPP
   * dissector.
   */
  unsigned sender_sid_id;
  unsigned receiver_sid_id;

  /**
   * SENDER SID/RECEIVER SID: The SID of the sender/receiver, or NULL if not known.
   */
  dof_2009_1_pdu_19_sid sender_sid;
  dof_2009_1_pdu_19_sid receiver_sid;

  /**
   * Operation references.
   */
  bool_Bool has_opid;
  dof_2009_1_pdu_20_opid op;
  bool_Bool has_referenced_opid;
  dof_2009_1_pdu_20_opid ref_op;

  struct _dof_packet_data *opid_first;
  struct _dof_packet_data *opid_next;
  struct _dof_packet_data *opid_last;
  struct _dof_packet_data *opid_first_response;
  struct _dof_packet_data *opid_next_response;
  struct _dof_packet_data *opid_last_response;

  /**
   * SECURITY INFORMATION - CACHED
   */
  const char *security_session_error;
  dof_session_key_exchange_data *security_session;
  void *security_packet;
  uint8_t *decrypted_buffer;
  tvbuff_t *decrypted_tvb;
  uint16_t decrypted_offset;
  char *decrypted_buffer_error;


  /**
   * OPERATION DATA: Generic data, seasonal, owned by the application protocol dissector
   * for this packet.
   */
  void *opid_data;
686} dof_packet_data;


689/**
* This structure represents globals that are passed to all dissectors.
*/
692typedef struct _dof_globals
693{
  uint32_t next_transport_session;
  uint32_t next_session;
  dof_packet_data *dof_packet_head;
  dof_packet_data *dof_packet_tail;
  dof_security_data *global_security;
  dof_learned_group_data *learned_group_data;
  bool_Bool decrypt_all_packets;
  bool_Bool track_operations;
  unsigned track_operations_window;
703} dof_globals;

705/**
* This structure contains all information that is passed between
* transport dissectors/plugins and the DPS dissector. It is allocated
* by the transport plugin, and its fields are set as described here.
*/
710typedef struct _dof_api_data
711{
  /**
   * TRANSPORT SESSION: Set by the transport dissector, required.
   */
  dof_transport_session *transport_session;

  /**
   * TRANSPORT PACKET: Set by the transport dissector, required.
   */
  dof_transport_packet *transport_packet;

  /**
   * DPS SESSION: Set by the DPS dissector.
   */
  dof_session_data *session;

  /**
   * DPS DATA: Set by the DPS dissector.
   */
  dof_packet_data *packet;

  /**
   * DPS SECURE SESSION: Set by the DPP dissector.
   */
  dof_secure_session_data *secure_session;
736} dof_api_data;

738/**
* This set of types defines the Security Mode dissector API.
* This structure identifies the context of the dissection,
* allowing a single structure to know what part of the packet
* of sequence of packets it is working with.
*
* Structure for Security Mode of Operation dissectors.
*/
746typedef enum _dof_secmode_context
747{
  INITIALIZE,
  HEADER,
  TRAILER
751} dof_secmode_context;

753/* Seasonal, initialized to zero. */
754typedef struct _dof_secmode_api_data
755{
  /**
   * API VERSION: Set by the DPS dissector, required.
   * MUST BE THE FIRST FIELD.
   */
  uint8_t version;

  /**
   * CONTEXT: Set the DPS dissector, required.
   */
  dof_secmode_context context;

  /**
   * SECURITY MODE OFFSET: The packet offset from the DPP header of the security mode.
   */
  unsigned security_mode_offset;

  /**
   * API DATA: Set by the DPS dissector, required.
   */
  dof_api_data *dof_api;

  /**
   * SECURE SESSION DATA: Controlled by the caller, either associated
   * with the current packet (HEADER mode) or not (other modes).
   * Used to access session information.
   */
  dof_secure_session_data *secure_session;

  /**
   * KEY EXCHANGE: Controlled by the caller, represents the key exchange
   * for INITIALIZE mode.
   */
  dof_session_key_exchange_data *session_key_data;
789} dof_secmode_api_data;

791/* These should be the only non-static declarations in the file. */
792void proto_register_dof(void);
793void proto_reg_handoff_dof(void);

795/* Dissector routines. */
796static int dissect_2008_1_dsp_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree);
797static int dissect_2008_16_security_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
798static int dissect_2008_16_security_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
799static int dissect_2008_16_security_3_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
800static int dissect_2008_16_security_3_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
801static int dissect_2008_16_security_4(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
802static int dissect_2008_16_security_5(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
803static int dissect_2008_16_security_6_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
804static int dissect_2008_16_security_6_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
805static int dissect_2008_16_security_6_3(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
806static int dissect_2008_16_security_7(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
807static int dissect_2008_16_security_8(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
808static int dissect_2008_16_security_9(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
809static int dissect_2008_16_security_10(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
810static int dissect_2008_16_security_11(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
811static int dissect_2008_16_security_12(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
812static int dissect_2008_16_security_13(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
813static int dissect_2009_11_type_4(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data);
814static int dissect_2009_11_type_5(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree);

816static const char* dof_oid_create_standard_string(wmem_allocator_t* allocator, uint32_t bufferSize, const uint8_t *pOIDBuffer, packet_info *pinfo);
817static const char* dof_iid_create_standard_string(wmem_allocator_t* allocator, uint32_t bufferSize, const uint8_t *pIIDBuffer);
818static uint8_t dof_oid_create_internal(const char *oid, uint32_t *size, uint8_t *buffer);
819static void dof_oid_new_standard_string(const char *data, uint32_t *rsize, uint8_t **oid);
820static int read_c4(tvbuff_t *tvb, int offset, uint32_t *v, int *len);
821static void validate_c4(packet_info *pinfo, proto_item *pi, uint32_t, int len);
822static int read_c3(tvbuff_t *tvb, int offset, uint32_t *v, int *len);
823static void validate_c3(packet_info *pinfo, proto_item *pi, uint32_t, int len);
824static int read_c2(tvbuff_t *tvb, int offset, uint16_t *v, int *len);
825static void validate_c2(packet_info *pinfo, proto_item *pi, uint16_t, int len);

827static int dof_dissect_pdu(dissector_t dissector, tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *result);
828static int dof_dissect_pdu_as_field(dissector_t dissector, tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, int offset, int item, int ett, void *result);

830#if 0 /* TODO not used yet */
831static void dof_session_add_proto_data(dof_session_data *session, int proto, void *proto_data);
832static void* dof_session_get_proto_data(dof_session_data *session, int proto);
833static void dof_session_delete_proto_data(dof_session_data *session, int proto);
834#endif

836static void dof_packet_add_proto_data(dof_packet_data *packet, int proto, void *proto_data);
837static void* dof_packet_get_proto_data(dof_packet_data *packet, int proto);

839/* DOF PROTOCOL STACK */
840#define DOF_PROTOCOL_STACK"DOF Protocol Stack" "DOF Protocol Stack"

842/**
* PORTS
* The following ports are registered with IANA and used to hook transport
* dissectors into the lower-level Wireshark transport dissectors.
*
* Related to these ports is the usage of conversations for DOF. The goal of
* using Wireshark conversations is to guarantee that DPS data is available for
* any DPS packet. However, there is no assumption that Wireshark conversations
* map in any way to DOF sessions.
*
* One exception to this use is in discovery of DOF servers. The DOF_MCAST_NEG_SEC_UDP_PORT
* is watched for all traffic. A "wildcard" conversation is then created for the
* source address, and the DPS dissector is associated with that port. In this
* way, servers on non-standard ports will automatically be decoded using DPS.
*/
857#define DOF_NEG_SEC_UDP_PORT_RANGE"3567,5567"  "3567,5567" /* P2P + Multicast */
858#define DOF_P2P_NEG_SEC_TCP_PORT3567    3567
859/* Reserved UDP port                3568*/
860#define DOF_TUN_SEC_TCP_PORT3568        3568
861#define DOF_P2P_SEC_TCP_PORT5567        5567
862/* Reserved UDP port                8567*/
863#define DOF_TUN_NON_SEC_TCP_PORT8567    8567

865/* This is needed to register multicast sessions with the UDP handler. */
866static dissector_handle_t dof_udp_handle;

868static int proto_2008_1_dof;
869static int proto_2008_1_dof_tcp;
870static int proto_2008_1_dof_udp;

872static int hf_2008_1_dof_session;
873static int hf_2008_1_dof_is_2_node;
874static int hf_2008_1_dof_is_streaming;
875static int hf_2008_1_dof_is_from_client;
876static int hf_2008_1_dof_frame;
877static int hf_2008_1_dof_session_transport;

879static int ett_2008_1_dof;

881/* DOF Tunnel Protocol */

883/* UDP Registrations */
884#define TUNNEL_PROTOCOL_STACK"DOF Tunnel Protocol Stack" "DOF Tunnel Protocol Stack"
885#define TUNNEL_APPLICATION_PROTOCOL"DOF Tunnel Protocol" "DOF Tunnel Protocol"

887static dissector_table_t dof_tun_app_dissectors;

889/***** TUNNEL *****/
890static int proto_2012_1_tunnel;

892static int ett_2012_1_tunnel;

894static int hf_2012_1_tunnel_1_version;
895static int hf_2012_1_tunnel_1_length;

897/* DOF NETWORK PROTOCOL */
898#define DNP_MAX_VERSION1 1
899#define DOF_NETWORK_PROTOCOL"DOF Network Protocol" "DOF Network Protocol"

901static dissector_table_t dnp_dissectors;
902static dissector_table_t dnp_framing_dissectors;

904static int proto_2008_1_dnp;

906static int hf_2008_1_dnp_1_version;
907static int hf_2008_1_dnp_1_flag;

909static int ett_2008_1_dnp;
910static int ett_2008_1_dnp_header;

912/* DNP V0 */
913static int proto_2008_1_dnp_0;

915static int hf_2008_1_dnp_0_1_1_padding;
916static int hf_2008_1_dnp_0_1_1_version;

918/* DNP V1 */
919#define DNP_V1_DEFAULT_FLAGS(0)    (0)
920static int proto_2009_9_dnp_1;

922static int hf_2009_9_dnp_1_flags;
923static int hf_2009_9_dnp_1_flag_length;
924static int hf_2009_9_dnp_1_length;
925static int hf_2009_9_dnp_1_flag_srcport;
926static int hf_2009_9_dnp_1_srcport;
927static int hf_2009_9_dnp_1_flag_dstport;
928static int hf_2009_9_dnp_1_dstport;

930static int ett_2009_9_dnp_1_flags;

932static int * const bitmask_2009_9_dnp_1_flags[] = {
  &hf_2009_9_dnp_1_flag_length,
  &hf_2009_9_dnp_1_flag_srcport,
  &hf_2009_9_dnp_1_flag_dstport,
  NULL((void*)0)
937};

939/* DOF PRESENTATION PROTOCOL */
940#define DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol" "DOF Presentation Protocol"

942static dissector_table_t dof_dpp_dissectors;

944static int proto_2008_1_dpp;

946static int hf_2008_1_dpp_sid_num;
947static int hf_2008_1_dpp_rid_num;
948static int hf_2008_1_dpp_sid_str;
949static int hf_2008_1_dpp_rid_str;
950static int hf_2008_1_dpp_first_command;
951static int hf_2008_1_dpp_last_command;
952static int hf_2008_1_dpp_first_response;
953static int hf_2008_1_dpp_last_response;
954static int hf_2008_1_dpp_related_frame;
955static int hf_2008_1_dpp_1_version;
956static int hf_2008_1_dpp_1_flag;

958static int ett_2008_1_dpp;
959static int ett_2008_1_dpp_1_header;

961/* DPP V0 */
962static int proto_2008_1_dpp_0;

964static int hf_2008_1_dpp_0_1_1_version;

966/* DPP V1 - RESERVED, NOT SUPPORTED */

968/* DPP V2 */
969#define DPP_V2_DEFAULT_FLAGS(0)    (0)
970#define DPP_V2_SEC_FLAG_E(0x80) (0x80)
971#define DPP_V2_SEC_FLAG_D(0x08) (0x08)
972#define DPP_V2_SEC_FLAG_P(0x04) (0x04)
973#define DPP_V2_SEC_FLAG_A(0x02) (0x02)
974#define DPP_V2_SEC_FLAG_S(0x01) (0x01)

976static int proto_2009_12_dpp;
977static int proto_2009_12_dpp_common;

979/* TODO: The complete on final and final flags are not covered. */
980static int hf_2009_12_dpp_2_1_flags;
981static int hf_2009_12_dpp_2_1_flag_security;
982static int hf_2009_12_dpp_2_1_flag_opid;
983static int hf_2009_12_dpp_2_1_flag_seq;
984static int hf_2009_12_dpp_2_1_flag_retry;
985static int hf_2009_12_dpp_2_1_flag_cmdrsp;
986static int hf_2009_12_dpp_2_3_sec_flags;
987static int hf_2009_12_dpp_2_3_sec_flag_secure;
988static int hf_2009_12_dpp_2_3_sec_flag_rdid;
989static int hf_2009_12_dpp_2_3_sec_flag_partition;
990static int hf_2009_12_dpp_2_3_sec_flag_ssid;
991static int hf_2009_12_dpp_2_3_sec_flag_as;
992static int hf_2009_12_dpp_2_3_sec_ssid;
993static int hf_2009_12_dpp_2_3_sec_rdid;
994static int hf_2009_12_dpp_2_3_sec_remote_partition;
995static int hf_2009_12_dpp_2_3_sec_partition;
996static int hf_2009_12_dpp_2_1_opcnt;
997static int hf_2009_12_dpp_2_1_seq;
998static int hf_2009_12_dpp_2_1_retry;
999static int hf_2009_12_dpp_2_1_delay;
1000static int hf_2009_12_dpp_2_14_opcode;

1002static int ett_2009_12_dpp_2_1_flags;
1003static int ett_2009_12_dpp_2_3_security;
1004static int ett_2009_12_dpp_2_3_sec_flags;
1005static int ett_2009_12_dpp_2_3_sec_remote_partition;
1006static int ett_2009_12_dpp_2_3_sec_partition;
1007static int ett_2009_12_dpp_2_opid;
1008static int ett_2009_12_dpp_2_opid_history;

1010static int ett_2009_12_dpp_common;

1012static const value_string strings_2009_12_dpp_opid_types[] = {
  { 0, "Not Present" },
  { 1, "SID [Sender]" },
  { 2, "SID [Receiver]" },
  { 3, "SID [Explicit]" },
  { 0, NULL((void*)0) }
1018};

1020#define OP_2009_12_RESPONSE_FLAG(0x80)      (0x80)
1021#define OP_2009_12_NODE_DOWN_CMD(0)      (0)
1022#define OP_2009_12_NODE_DOWN_RSP((0x80)|(0))      (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_NODE_DOWN_CMD(0))
1023#define OP_2009_12_SOURCE_LOST_CMD(1)    (1)
1024#define OP_2009_12_SOURCE_LOST_RSP((0x80)|(1))    (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_SOURCE_LOST_CMD(1))
1025#define OP_2009_12_RENAME_CMD(2)         (2)
1026#define OP_2009_12_RENAME_RSP((0x80)|(2))         (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_RENAME_CMD(2))
1027#define OP_2009_12_PING_CMD(3)           (3)
1028#define OP_2009_12_PING_RSP((0x80)|(3))           (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_PING_CMD(3))
1029#define OP_2009_12_CANCEL_ALL_CMD(4)     (4)
1030#define OP_2009_12_CANCEL_ALL_RSP((0x80)|(4))     (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_CANCEL_ALL_CMD(4))
1031#define OP_2009_12_HEARTBEAT_CMD(5)      (5)
1032#define OP_2009_12_HEARTBEAT_RSP((0x80)|(5))      (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_HEARTBEAT_CMD(5))
1033#define OP_2009_12_QUERY_CMD(6)          (6)
1034#define OP_2009_12_QUERY_RSP((0x80)|(6))          (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_QUERY_CMD(6))
1035#define OP_2009_12_SOURCE_FOUND_CMD(8)   (8)
1036#define OP_2009_12_SOURCE_FOUND_RSP((0x80)|(8))   (OP_2009_12_RESPONSE_FLAG(0x80)|OP_2009_12_SOURCE_FOUND_CMD(8))

1038static const value_string strings_2009_12_dpp_common_opcodes[] = {
  { OP_2009_12_NODE_DOWN_CMD(0), "DPP Node Down" },
  { OP_2009_12_NODE_DOWN_RSP((0x80)|(0)), "DPP Node Down Response (Illegal)" },
  { OP_2009_12_SOURCE_LOST_CMD(1), "DPP Source Lost" },
  { OP_2009_12_SOURCE_LOST_RSP((0x80)|(1)), "DPP Source Lost Response (Illegal)" },
  { OP_2009_12_SOURCE_FOUND_CMD(8), "DPP Source Found" },
  { OP_2009_12_SOURCE_FOUND_RSP((0x80)|(8)), "DPP Source Found Response (Illegal)" },
  { OP_2009_12_RENAME_CMD(2), "DPP Rename" },
  { OP_2009_12_RENAME_RSP((0x80)|(2)), "DPP Rename Response (Illegal)" },
  { OP_2009_12_PING_CMD(3), "DPP Ping" },
  { OP_2009_12_PING_RSP((0x80)|(3)), "DPP Ping Response" },
  { OP_2009_12_HEARTBEAT_CMD(5), "DPP Heartbeat" },
  { OP_2009_12_HEARTBEAT_RSP((0x80)|(5)), "DPP Heartbeat Response (Illegal)" },
  { OP_2009_12_QUERY_CMD(6), "DPP Query" },
  { OP_2009_12_QUERY_RSP((0x80)|(6)), "DPP Query Response" },
  { OP_2009_12_CANCEL_ALL_CMD(4), "DPP Cancel All" },
  { OP_2009_12_CANCEL_ALL_RSP((0x80)|(4)), "DPP Cancel All Response (Illegal)" },
  { 0, NULL((void*)0) }
1056};

1058/* DOF APPLICATION PROTOCOL */
1059#define DOF_APPLICATION_PROTOCOL"DOF Application Protocol" "DOF Application Protocol"

1061static dissector_table_t app_dissectors;

1063static int proto_2008_1_app;

1065static int hf_2008_1_app_version;

1067/* DAP V0 (DSP - DOF SESSION PROTOCOL) */
1068/* Note that DSP is *always* appid 0 and so it violates the standard naming rule. */
1069static dissector_table_t dsp_option_dissectors;

1071static int hf_2008_1_dsp_12_opcode;
1072static int hf_2008_1_dsp_attribute_code;
1073static int hf_2008_1_dsp_attribute_data;
1074static int hf_2008_1_dsp_value_length;
1075static int hf_2008_1_dsp_value_data;

1077static const value_string strings_2008_1_dsp_attribute_codes[] = {
  { 0, "TEP Family" },
  { 1, "OAP Family" },
  { 2, "CCM Family" },
  { 3, "TRP Family" },
  { 255, "General" },
  { 0, NULL((void*)0) }
1084};

1086#define DOF_PROTOCOL_DSP0 0
1087#define DSP_OAP_FAMILY0x010000 0x010000

1089static int proto_2008_1_dsp;

1091#define OP_2008_1_RSP(0x80)                   (0x80)
1092#define OP_2008_1_QUERY_CMD0             0
1093#define OP_2008_1_QUERY_RSP((0x80)|0)             (OP_2008_1_RSP(0x80)|OP_2008_1_QUERY_CMD0)
1094#define OP_2008_1_CONFIG_REQ1            1
1095#define OP_2008_1_CONFIG_ACK((0x80)|2)            (OP_2008_1_RSP(0x80)|2)
1096#define OP_2008_1_CONFIG_NAK((0x80)|3)            (OP_2008_1_RSP(0x80)|3)
1097#define OP_2008_1_CONFIG_REJ((0x80)|4)            (OP_2008_1_RSP(0x80)|4)
1098#define OP_2008_1_TERMINATE_CMD5         5
1099#define OP_2008_1_TERMINATE_RSP((0x80)|5)         (OP_2008_1_RSP(0x80)|OP_2008_1_TERMINATE_CMD5)
1100#define OP_2008_1_OPEN_CMD6              6
1101#define OP_2008_1_OPEN_RSP((0x80)|6)              (OP_2008_1_RSP(0x80)|OP_2008_1_OPEN_CMD6)
1102#define OP_2008_1_OPEN_SECURE_RSP((0x80)|7)       (OP_2008_1_RSP(0x80)|7)

1104static const value_string strings_2008_1_dsp_opcodes[] = {
  { OP_2008_1_QUERY_CMD0, "DSP Query" },
  { OP_2008_1_QUERY_RSP((0x80)|0), "DSP Query Response" },
  { OP_2008_1_CONFIG_REQ1, "DSP Request" },
  { OP_2008_1_CONFIG_ACK((0x80)|2), "DSP ACK Response" },
  { OP_2008_1_CONFIG_NAK((0x80)|3), "DSP NAK Response" },
  { OP_2008_1_CONFIG_REJ((0x80)|4), "DSP REJ Response" },
  { OP_2008_1_TERMINATE_CMD5, "DSP Terminate/Close Request" },
  { OP_2008_1_TERMINATE_RSP((0x80)|5), "DSP Terminate/Close Response" },
  { OP_2008_1_OPEN_CMD6, "DSP Open" },
  { OP_2008_1_OPEN_RSP((0x80)|6), "DSP Open Response" },
  { OP_2008_1_OPEN_SECURE_RSP((0x80)|7), "DSP Open Secure Response" },
  { 0, NULL((void*)0) }
1117};

1119#define DSP_AVP_AUTHENTICATION0          0
1120#define DSP_AVP_APPLICATION1             1

1122#if 0 /* not used yet */
1123static const value_string strings_2008_1_dsp_attributes[] = {
  { DSP_AVP_AUTHENTICATION0, "Authentication Protocol" },
  { DSP_AVP_APPLICATION1, "Application Protocol" },
  { 0, NULL((void*)0) }
1127};

1129static const value_string strings_2008_1_dsp_values[] = {
  { 1, "DOF Object Access Protocol (version 1)" },
  { 3, "DOF Ticket Exchange Protocol (version 1)" },
  { 0, NULL((void*)0) }
1133};
1134#endif

1136static int ett_2008_1_dsp_12;
1137static int ett_2008_1_dsp_12_options;
1138static int ett_2008_1_dsp_12_option;

1140/* DAP V1 (OAP - OBJECT ACCESS PROTOCOL V1) */
1141/* This is the defined protocol id for OAP. */
1142#define DOF_PROTOCOL_OAP_11 1
1143/* There are two "protocols", one hooks into DSP and the other to DOF. */
1144static int proto_oap_1;
1145static int proto_oap_1_dsp;

1147/* OAP DSP protocol items. */
1148static int hf_oap_1_dsp_option;

1150/* OAP protocol items. */
1151static int hf_oap_1_opcode;

1153static int hf_oap_1_alias_size;
1154static int hf_oap_1_flags;
1155static int hf_oap_1_exception_internal_flag;
1156static int hf_oap_1_exception_final_flag;
1157static int hf_oap_1_exception_provider_flag;
1158static int hf_oap_1_cmdcontrol;
1159static int hf_oap_1_cmdcontrol_cache_flag;
1160static int hf_oap_1_cmdcontrol_verbosity_flag;
1161static int hf_oap_1_cmdcontrol_noexecute_flag;
1162static int hf_oap_1_cmdcontrol_ack_flag;
1163static int hf_oap_1_cmdcontrol_delay_flag;
1164static int hf_oap_1_cmdcontrol_heuristic_flag;
1165static int hf_oap_1_cmdcontrol_heuristic;
1166static int hf_oap_1_cmdcontrol_cache;
1167static int hf_oap_1_cmdcontrol_ackcnt;
1168static int hf_oap_1_cmdcontrol_ack;

1170#if 0 /* not used yet */
1171static int hf_oap_1_opinfo_start_frame;
1172static int hf_oap_1_opinfo_end_frame;
1173static int hf_oap_1_opinfo_timeout;
1174#endif

1176static int hf_oap_1_providerid;
1177static int ett_oap_1_1_providerid;

1179static int hf_oap_1_objectid;
1180static int ett_oap_1_objectid;

1182static int hf_oap_1_interfaceid;
1183static int hf_oap_1_itemid;

1185#if 0 /* not used yet */
1186static int hf_oap_1_distance;
1187#endif

1189static int hf_oap_1_alias;
1190static int hf_oap_1_alias_frame;

1192static int hf_oap_1_subscription_delta;
1193static int hf_oap_1_update_sequence;
1194static int hf_oap_1_value_list;

1196static int ett_oap_1_dsp;
1197static int ett_oap_1_dsp_options;

1199static int ett_oap_1;
1200static int ett_oap_1_opinfo;
1201static int ett_oap_1_cmdcontrol;
1202static int ett_oap_1_cmdcontrol_flags;
1203static int ett_oap_1_cmdcontrol_ack;
1204static int ett_oap_1_alias;

1206static int * const bitmask_oap_1_cmdcontrol_flags[] = {
  &hf_oap_1_cmdcontrol_cache_flag,
  &hf_oap_1_cmdcontrol_verbosity_flag,
  &hf_oap_1_cmdcontrol_noexecute_flag,
  &hf_oap_1_cmdcontrol_ack_flag,
  &hf_oap_1_cmdcontrol_delay_flag,
  &hf_oap_1_cmdcontrol_heuristic_flag,
  NULL((void*)0)
1214};

1216static expert_field ei_oap_no_session;

1218static GHashTable *oap_1_alias_to_binding;

1220#define OAP_1_RESPONSE(0x80)                    (0x80)
1221#define OAP_1_CMD_ACTIVATE28                28
1222#define OAP_1_RSP_ACTIVATE(28|(0x80))                (OAP_1_CMD_ACTIVATE28|OAP_1_RESPONSE(0x80))
1223#define OAP_1_CMD_ADVERTISE5               5
1224#define OAP_1_RSP_ADVERTISE(5|(0x80))               (OAP_1_CMD_ADVERTISE5|OAP_1_RESPONSE(0x80))
1225#define OAP_1_CMD_CHANGE2                  2
1226#define OAP_1_RSP_CHANGE(2|(0x80))                  (OAP_1_CMD_CHANGE2|OAP_1_RESPONSE(0x80))
1227#define OAP_1_CMD_CONNECT4                 4
1228#define OAP_1_RSP_CONNECT(4|(0x80))                 (OAP_1_CMD_CONNECT4|OAP_1_RESPONSE(0x80))
1229#define OAP_1_CMD_DEFINE6                  6
1230#define OAP_1_RSP_DEFINE(6|(0x80))                  (OAP_1_CMD_DEFINE6|OAP_1_RESPONSE(0x80))
1231#define OAP_1_CMD_EXCEPTION9               9
1232#define OAP_1_RSP_EXCEPTION(9|(0x80))               (OAP_1_CMD_EXCEPTION9|OAP_1_RESPONSE(0x80))
1233#define OAP_1_CMD_FULL_CONNECT3            3
1234#define OAP_1_RSP_FULL_CONNECT(3|(0x80))            (OAP_1_CMD_FULL_CONNECT3|OAP_1_RESPONSE(0x80))
1235#define OAP_1_CMD_GET10                     10
1236#define OAP_1_RSP_GET(10|(0x80))                     (OAP_1_CMD_GET10|OAP_1_RESPONSE(0x80))
1237#define OAP_1_CMD_INVOKE12                  12
1238#define OAP_1_RSP_INVOKE(12|(0x80))                  (OAP_1_CMD_INVOKE12|OAP_1_RESPONSE(0x80))
1239#define OAP_1_CMD_OPEN14                    14
1240#define OAP_1_RSP_OPEN(14|(0x80))                    (OAP_1_CMD_OPEN14|OAP_1_RESPONSE(0x80))
1241#define OAP_1_CMD_PROVIDE16                 16
1242#define OAP_1_RSP_PROVIDE(16|(0x80))                 (OAP_1_CMD_PROVIDE16|OAP_1_RESPONSE(0x80))
1243#define OAP_1_CMD_REGISTER25                25
1244#define OAP_1_RSP_REGISTER(25|(0x80))                (OAP_1_CMD_REGISTER25|OAP_1_RESPONSE(0x80))
1245#define OAP_1_CMD_SET20                     20
1246#define OAP_1_RSP_SET(20|(0x80))                     (OAP_1_CMD_SET20|OAP_1_RESPONSE(0x80))
1247#define OAP_1_CMD_SIGNAL22                  22
1248#define OAP_1_RSP_SIGNAL(22|(0x80))                  (OAP_1_CMD_SIGNAL22|OAP_1_RESPONSE(0x80))
1249#define OAP_1_CMD_SUBSCRIBE24               24
1250#define OAP_1_RSP_SUBSCRIBE(24|(0x80))               (OAP_1_CMD_SUBSCRIBE24|OAP_1_RESPONSE(0x80))
1251#define OAP_1_CMD_WATCH30                   30
1252#define OAP_1_RSP_WATCH(30|(0x80))                   (OAP_1_CMD_WATCH30|OAP_1_RESPONSE(0x80))

1254static const value_string oap_opcode_strings[] = {
  { OAP_1_CMD_ACTIVATE28, "OAP Activate" },
  { OAP_1_RSP_ACTIVATE(28|(0x80)), "OAP Activate Response (Illegal)" },
  { OAP_1_CMD_ADVERTISE5, "OAP Advertise" },
  { OAP_1_RSP_ADVERTISE(5|(0x80)), "OAP Advertise Response (Illegal)" },
  { OAP_1_CMD_CHANGE2, "OAP Change" },
  { OAP_1_RSP_CHANGE(2|(0x80)), "OAP Change Response (Illegal)" },
  { OAP_1_CMD_CONNECT4, "OAP Connect" },
  { OAP_1_RSP_CONNECT(4|(0x80)), "OAP Connect Response (Illegal)" },
  { OAP_1_CMD_DEFINE6, "OAP Define" },
  { OAP_1_RSP_DEFINE(6|(0x80)), "OAP Define Response" },
  { OAP_1_CMD_EXCEPTION9, "OAP Exception (Illegal)" },
  { OAP_1_RSP_EXCEPTION(9|(0x80)), "OAP Exception Response" },
  { OAP_1_CMD_FULL_CONNECT3, "OAP Full Connect" },
  { OAP_1_RSP_FULL_CONNECT(3|(0x80)), "OAP Full Connect Response (Illegal)" },
  { OAP_1_CMD_GET10, "OAP Get" },
  { OAP_1_RSP_GET(10|(0x80)), "OAP Get Response" },
  { OAP_1_CMD_INVOKE12, "OAP Invoke" },
  { OAP_1_RSP_INVOKE(12|(0x80)), "OAP Invoke Response" },
  { OAP_1_CMD_OPEN14, "OAP Open" },
  { OAP_1_RSP_OPEN(14|(0x80)), "OAP Open Response" },
  { OAP_1_CMD_PROVIDE16, "OAP Provide" },
  { OAP_1_RSP_PROVIDE(16|(0x80)), "OAP Provide Response (Illegal)" },
  { OAP_1_CMD_REGISTER25, "OAP Register" },
  { OAP_1_RSP_REGISTER(25|(0x80)), "OAP Register Response" },
  { OAP_1_CMD_SET20, "OAP Set" },
  { OAP_1_RSP_SET(20|(0x80)), "OAP Set Response" },
  { OAP_1_CMD_SIGNAL22, "OAP Signal" },
  { OAP_1_RSP_SIGNAL(22|(0x80)), "OAP Signal Response (Illegal)" },
  { OAP_1_CMD_SUBSCRIBE24, "OAP Subscribe" },
  { OAP_1_RSP_SUBSCRIBE(24|(0x80)), "OAP Subscribe Response" },
  { OAP_1_CMD_WATCH30, "OAP Watch" },
  { OAP_1_RSP_WATCH(30|(0x80)), "OAP Watch Response (Illegal)" },

  { 0, NULL((void*)0) }
1289};

1291typedef struct _alias_key
1292{
  uint32_t session;
  uint32_t sender;
  uint32_t alias;
1296} oap_1_alias_key;

1298static unsigned oap_1_alias_hash_func(const void *ptr)
1299{
  const oap_1_alias_key *key = (const oap_1_alias_key *)ptr;
  return g_int_hash(&key->session) + g_int_hash(&key->sender) + g_int_hash(&key->alias);
1302}

1304static int oap_1_alias_equal_func(const void *ptr1, const void *ptr2)
1305{
  const oap_1_alias_key *key1 = (const oap_1_alias_key *)ptr1;
  const oap_1_alias_key *key2 = (const oap_1_alias_key *)ptr2;

  if (key1->session != key2->session)
      return 0;

  if (key1->sender != key2->sender)
      return 0;

  if (key1->alias != key2->alias)
      return 0;

  return 1;
1319}

1321typedef struct
1322{
  uint8_t *oid;
  uint16_t oid_length;
  uint8_t *iid;
  uint16_t iid_length;
  uint32_t frame;
1328} oap_1_binding;

1330typedef struct oap_1_binding_list
1331{
  oap_1_binding *binding;
  struct oap_1_binding_list *next;
1334} oap_1_binding_list;

1336typedef struct
1337{
  oap_1_binding *resolved_alias;
1339} oap_1_packet_data;

1341static oap_1_binding* oap_1_resolve_alias(oap_1_alias_key *key);

1343static int oap_1_tree_add_alias(dof_api_data *api_data, oap_1_packet_data *oap_packet _U___attribute__((unused)), dof_packet_data *packet, proto_tree *tree, tvbuff_t *tvb, packet_info *pinfo, int offset, uint8_t alias_length, uint8_t resolve)
1344{
  dof_session_data *session = api_data->session;
  proto_item *ti;
  proto_tree *options_tree;

  if (alias_length == 0)
  /* TODO: Output error. */
      return offset;

  if (session == NULL((void*)0))
  /* TODO: Output error. */
      return offset;

  ti = proto_tree_add_item(tree, hf_oap_1_alias, tvb, offset, alias_length, ENC_BIG_ENDIAN0x00000000);

  if (resolve)
  {
      oap_1_binding *binding = NULL((void*)0);
      oap_1_alias_key key;
      int i;
      uint32_t alias;

      alias = 0;
      for (i = 0; i < alias_length; i++)
          alias = (alias << 8) | tvb_get_uint8(tvb, offset + i);

      key.session = session->session_id;
      key.sender = packet->sender_id;
      key.alias = alias;
      binding = oap_1_resolve_alias(&key);
      /* Only a binding defined by this frame or an earlier one, as in the first pass */
      if (binding && binding->frame > pinfo->num)
          binding = NULL((void*)0);

      if (binding)
      {
          options_tree = proto_item_add_subtree(ti, ett_oap_1_alias);

          /* Decode the Interface */
          ti = proto_tree_add_bytes_format_value(tree, hf_oap_1_interfaceid, tvb, 0, 0, binding->iid, "%s", dof_iid_create_standard_string(pinfo->pool, binding->iid_length, binding->iid));
          proto_item_set_generated(ti);

          /* Decode the Object ID */
          ti = proto_tree_add_bytes_format_value(tree, hf_oap_1_objectid, tvb, 0, 0, binding->oid, "%s", dof_oid_create_standard_string(pinfo->pool, binding->oid_length, binding->oid, pinfo));
          proto_item_set_generated(ti);

          proto_tree_add_uint_format(options_tree, hf_oap_1_alias_frame,
                                     tvb, 0, 0, binding->frame,
                                     "This alias is defined in frame %u",
                                     binding->frame);
      }
  }

  return offset + alias_length;
1398}

1400static int oap_1_tree_add_interface(proto_tree *tree, tvbuff_t *tvb, int offset)
1401{
  uint8_t registry;
  uint8_t len;

  registry = tvb_get_uint8(tvb, offset);
  len = registry & 0x03;
  /* XXX - The DOF specifications indicate "len [bits] equal to 0 is invalid"
   * Why is a length of 16 bytes used in that case? */
  if (len == 0)
      len = 16;
  else
      len = 1 << (len - 1);

  proto_tree_add_item(tree, hf_oap_1_interfaceid, tvb, offset, 1 + len, ENC_NA0x00000000);
  return offset + 1 + len;
1416}

1418static int oap_1_tree_add_binding(proto_tree *tree, packet_info *pinfo, tvbuff_t *tvb, int offset)
1419{
/*  uint8_t cl; */

  offset = oap_1_tree_add_interface(tree, tvb, offset);

1424#if 0 /* this seems to be dead code - check! */
  cl = tvb_get_uint8(tvb, offset);
  if (cl & 0x80)
      len = tvb_get_uint8(tvb, offset + 2);
  else
      len = tvb_get_uint8(tvb, offset + 1);
1430#endif

  offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, tree,
                                    offset, hf_oap_1_objectid, ett_oap_1_objectid, NULL((void*)0));
  return offset;
1435}

1437static int oap_1_tree_add_cmdcontrol(packet_info *pinfo, proto_tree *tree, tvbuff_t *tvb, int offset)
1438{
  proto_item *ti;
  proto_tree *opinfo_tree;
  uint8_t flags;

  flags = tvb_get_uint8(tvb, offset);

  ti = proto_tree_add_bitmask(tree, tvb, offset, hf_oap_1_cmdcontrol, ett_oap_1_cmdcontrol_flags, bitmask_oap_1_cmdcontrol_flags, ENC_NA0x00000000);
  opinfo_tree = proto_item_add_subtree(ti, ett_oap_1_cmdcontrol);

  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_cache_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_verbosity_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_noexecute_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_ack_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_delay_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(opinfo_tree, hf_oap_1_cmdcontrol_heuristic_flag, tvb, offset, 1, ENC_NA0x00000000);

  offset += 1;

  if (flags & 0x01)
  {
      /* Heuristic */
      int heur_len;
      uint16_t heur;
      proto_item *pi;

      read_c2(tvb, offset, &heur, &heur_len);
      pi = proto_tree_add_uint_format(opinfo_tree, hf_oap_1_cmdcontrol_heuristic, tvb, offset, heur_len, heur, "Heuristic Value: %hu", heur);
      validate_c2(pinfo, pi, heur, heur_len);
      offset += heur_len;
  }

  if (flags & 0x04)
  {
      /* Ack List */
      uint8_t ackcnt;
      uint8_t i;

      proto_tree_add_item_ret_uint8(opinfo_tree, hf_oap_1_cmdcontrol_ackcnt, tvb, offset, 1, ENC_NA0x00000000, &ackcnt);
      offset += 1;

      for (i = 0; i < ackcnt; i++)
      {
          offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, opinfo_tree,
                                            offset, hf_oap_1_cmdcontrol_ack, ett_oap_1_cmdcontrol_ack, NULL((void*)0));
      }
  }

  if (flags & 0x40)
  {
      /* Cache Delay */
      int cache_len;
      uint16_t cache;
      proto_item *pi;

      read_c2(tvb, offset, &cache, &cache_len);
      pi = proto_tree_add_uint_format(opinfo_tree, hf_oap_1_cmdcontrol_cache, tvb, offset, cache_len, cache, "Cache Delay: %hu", cache);
      validate_c2(pinfo, pi, cache, cache_len);
      offset += cache_len;
  }

  return offset;
1500}

1502/**
* Define an alias. This routine is called for each Provide operation that includes an alias assignment.
* It is also called for retries of Provide operations.
* The alias is defined for the duration of the Provide. This means that if the operation is cancelled
* then the alias should no longer be valid.
* The alias is associated with an oap_session, an dof_node, and the alias itself. Aliases
* may be reused as long as the previous use has expired, and so the list is stored in reverse
* order.
*
* NOTE: The alias is passed as a structure pointer, and must be reallocated if it is stored in
* the hash.
*/
1514static void oap_1_define_alias(dof_api_data *api_data, uint32_t alias, oap_1_binding *binding)
1515{
  /* The definer of an alias is the sender, in the session. */
  dof_session_data *session = api_data->session;
  dof_packet_data *packet = (dof_packet_data *)api_data->packet;
  uint32_t session_id;
  uint32_t sender_id;
  oap_1_alias_key key;

  if (!session)
      return;

  session_id = session->session_id;
  sender_id = packet->sender_id;

  if (!binding)
      return;

  key.session = session_id;
  key.sender = sender_id;
  key.alias = alias;

  /* If there isn't an entry for the alias, then we need to create one.
  * The first entry will be the binding we are defining.
  */
  if (!g_hash_table_lookup(oap_1_alias_to_binding, &key))
  {
      oap_1_alias_key *alias_ptr = wmem_new0(wmem_file_scope(), oap_1_alias_key)((oap_1_alias_key*)wmem_alloc0((wmem_file_scope()), sizeof(oap_1_alias_key
)));
      memcpy(alias_ptr, &key, sizeof(oap_1_alias_key));
      g_hash_table_insert(oap_1_alias_to_binding, alias_ptr, binding);
  }
1545}

1547/**
* Given an oap_alias, resolve it to an oap_1_binding. This assumes that the destination of the
* packet is the one that defined the alias.
*/
1551static oap_1_binding* oap_1_resolve_alias(oap_1_alias_key *key)
1552{
  /* The first lookup is inside the session based on defining node. */
  return (oap_1_binding *)g_hash_table_lookup(oap_1_alias_to_binding, key);
1555}

1557/* DAP V128 (TEP - TICKET EXCHANGE PROTOCOL V1) */
1558#define DOF_PROTOCOL_TEP128 128
1559#define DSP_TEP_FAMILY0x000000 0x000000
1560static int proto_tep;
1561static int proto_tep_dsp;

1563static int hf_dsp_option;

1565static int ett_tep_operation;
1566static int hf_tep_operation;
1567static int hf_tep_operation_type;
1568static int hf_tep_opcode;
1569static int hf_tep_k;
1570static int hf_tep_c;
1571static int hf_tep_reject_code;
1572static int hf_tep_reject_data;

1574static const true_false_string tep_optype_vals = { "DPP Response", "DPP Command" };

1576/* TEP.2.1 */
1577static int ett_tep_2_1_domain;
1578static int hf_tep_2_1_domain;
1579static int ett_tep_2_1_initiator_block;
1580static int hf_tep_2_1_initiator_block;
1581static int hf_tep_2_1_ticket_confirmation;

1583/* TEP.2.2 */
1584static int ett_tep_2_2_initiator_ticket;
1585static int hf_tep_2_2_initiator_ticket;
1586static int hf_tep_2_2_ticket_confirmation;
1587static int ett_tep_2_2_responder_initialization;
1588static int hf_tep_2_2_responder_initialization;
1589static int ett_tep_2_2_responder_block;
1590static int hf_tep_2_2_responder_block;
1591static int ett_tep_2_2_authenticator_initialization;
1592static int hf_tep_2_2_authenticator_initialization;

1594/* TEP.2.2.1 */
1595static int hf_tep_2_2_1_state_identifier;
1596static int ett_tep_2_2_1_initial_state;
1597static int hf_tep_2_2_1_initial_state;

1599static int hf_tep_session_key;

1601static int ett_tep_dsp;
1602static int ett_tep_dsp_options;
1603static int ett_tep;

1605#if 0 /* not used yet */
1606static const value_string tep_filter_existing[] = {
  { 1, "Include Existing Matches" },
  { 0, "Exclude Existing Matches" },
  { 0, NULL((void*)0) }
1610};
1611#endif

1613#define TEP_OPCODE_RSP(0x80)                                                  (0x80)
1614#define TEP_OPCODE_C(0x20)                                                    (0x20)
1615#define TEP_OPCODE_K(0x10)                                                    (0x10)
1616#define TEP_PDU_REJECT((0x80)|0)                                                  (TEP_OPCODE_RSP(0x80)|0)
1617#define TEP_PDU_REQUEST(1)                                                 (1)
1618#define TEP_PDU_END_SESSION(5)                                             (5)
1619#define TEP_PDU_SESSION_ENDING(6)                                  (6)

1621#define TEP_PDU_REQUEST_KEY((0x10)|(1))                                             (TEP_OPCODE_K(0x10)|TEP_PDU_REQUEST(1))
1622#define TEP_PDU_CONFIRM((0x20)|(1))                                                 (TEP_OPCODE_C(0x20)|TEP_PDU_REQUEST(1))
1623#define TEP_PDU_ACCEPT((0x80)|(1))                                                  (TEP_OPCODE_RSP(0x80)|TEP_PDU_REQUEST(1))
1624#define TEP_PDU_CONFIRM_ACK((0x80)|(0x20)|(1))                                             (TEP_OPCODE_RSP(0x80)|TEP_OPCODE_C(0x20)|TEP_PDU_REQUEST(1))

1626static const value_string tep_opcode_strings[] = {
  { TEP_PDU_REJECT((0x80)|0), "TEP Reject" },
  { TEP_PDU_REQUEST(1), "TEP Request" },
  { TEP_PDU_END_SESSION(5), "TEP End Session" },
  { TEP_PDU_SESSION_ENDING(6), "TEP Session Ending" },

  { TEP_PDU_REQUEST_KEY((0x10)|(1)), "TEP Rekey" },
  { TEP_PDU_CONFIRM((0x20)|(1)), "TEP Confirm" },
  { TEP_PDU_ACCEPT((0x80)|(1)), "TEP Accept" },
  { TEP_PDU_CONFIRM_ACK((0x80)|(0x20)|(1)), "TEP Confirm Ack" },

  { 0, NULL((void*)0) }
1638};

1640#if 0 /* not use yet */
1641static const value_string tep_error_strings[] = {
  { 1, "Parse Error" },
  { 2, "Access Denied" },
  { 3, "Duration Not Supported" },
  { 4, "Authentication Failed" },
  { 0, NULL((void*)0) }
1647};
1648#endif

1650/* Initialized to zero. */
1651typedef struct tep_rekey_data
1652{
  /* Stored from the K bit of the Request PDU. */
  bool_Bool is_rekey;

  /* Stored from the key request for non-secure rekeys. Otherwise 0 and NULL. */
  unsigned domain_length;
  uint8_t *domain;

  /* Stored from the identity of the Request PDU. Seasonal. */
  uint8_t *i_identity;
  unsigned i_identity_length;

  /* Stored from the nonce of the Request PDU. Seasonal. */
  uint8_t *i_nonce;
  uint8_t i_nonce_length;

  /* Stored from the identity of the Request response PDU. Seasonal. */
  uint8_t *r_identity;
  unsigned r_identity_length;

  /* Stored from the nonce of the Request response PDU. Seasonal. */
  uint8_t *r_nonce;
  uint8_t r_nonce_length;

  uint16_t security_mode;
  uint32_t security_mode_data_length;
  uint8_t *security_mode_data;

  /* Security session data for this rekey, if is_rekey is true. */
  dof_session_key_exchange_data *key_data;
1682} tep_rekey_data;

1684/* DAP V129 (TRP - TICKET REQUEST PROTOCOL V2) */
1685#define DOF_PROTOCOL_TRP129 129
1686#define DSP_TRP_FAMILY0x030000 0x030000
1687typedef struct _trp_packet_data
1688{
  uint8_t *domain;
  unsigned domain_length;
  uint8_t *identity;
  unsigned identity_length;
  uint8_t *group;
  unsigned group_length;
  uint8_t *block_I;
  unsigned block_I_length;
  uint8_t *secret;
  bool_Bool kek_known;
1699} trp_packet_data;


1702static int proto_trp;
1703static int proto_trp_dsp;

1705static int hf_trp_dsp_option;

1707static int hf_trp_opcode;
1708static int hf_domain;
1709static int hf_identity_resolution;
1710static int hf_initiator_request;
1711static int hf_responder_request;
1712static int hf_initiator_ticket;
1713static int hf_responder_ticket;
1714static int hf_authentication_block;
1715static int hf_group_identifier;
1716static int hf_node_identifier;
1717static int hf_thb;
1718static int hf_tmin;
1719static int hf_tmax;
1720static int hf_trp_epoch;
1721static int hf_sidg;
1722static int hf_security_scope;
1723static int hf_security_mode;
1724static int hf_ssid;
1725#if 0 /* not used yet */
1726static int hf_initiator_pg;
1727#endif
1728static int hf_initiator_validation;
1729static int hf_responder_pg;
1730static int hf_responder_validation;

1732static int hf_trp_errorcode;
1733static int hf_trp_duration;
1734#if 0 /* not used yet */
1735static int hf_trp_rnonce;
1736static int hf_trp_pnonce;
1737static int hf_trp_reqid;
1738static int hf_trp_provid;
1739static int hf_trp_perm_count;
1740static int hf_trp_perm_type;
1741static int hf_trp_perm_rcache;
1742static int hf_trp_perm_rsrp;
1743static int hf_trp_perm_rsrp_a;
1744static int hf_trp_perm_rsrp_u;
1745static int hf_trp_perm_rflags;
1746static int hf_trp_perm_pcache;
1747static int hf_trp_perm_psrp;
1748static int hf_trp_perm_psrp_a;
1749static int hf_trp_perm_psrp_u;
1750static int hf_trp_perm_psrp_b;
1751static int hf_trp_perm_psrp_s;
1752static int hf_trp_perm_pflags;
1753static int hf_trp_confirmation;
1754static int hf_trp_perm_pke;
1755static int hf_trp_perm_pka;
1756#endif

1758static int ett_trp_dsp;
1759static int ett_trp;
1760static int ett_domain;
1761static int ett_identity_resolution;
1762static int ett_initiator_request;
1763static int ett_initiator_ticket;
1764static int ett_responder_request;
1765static int ett_responder_ticket;
1766static int ett_authentication_block;
1767static int ett_group_identifier;
1768static int ett_node_identifier;
1769static int ett_sidg;
1770static int ett_security_scope;
1771static int ett_security_mode;
1772static int ett_initiator_pg;
1773static int ett_initiator_validation;
1774static int ett_responder_pg;
1775static int ett_responder_validation;


1778static int ett_trp_permset;
1779static int ett_srp_flags;
1780static int ett_trp_ticket;

1782static expert_field ei_trp_initiator_id_known;
1783static expert_field ei_trp_kek_discovered;

1785#define TRP_RESPONSE(0x80)                    (0x80)

1787#define TRP_RSP_REJECT((0x80)|0)                                                  (TRP_RESPONSE(0x80)|0)
1788#define TRP_CMD_REQUEST_KEK(1)                                             (1)
1789#define TRP_RSP_REQUEST_KEK((0x80)|(1))                                             (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_KEK(1))
1790#define TRP_CMD_REQUEST_RANDOM(2)                                  (2)
1791#define TRP_RSP_REQUEST_RANDOM((0x80)|(2))                                  (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_RANDOM(2))
1792#define TRP_CMD_REQUEST_SESSION(3)                                 (3)
1793#define TRP_RSP_REQUEST_SESSION((0x80)|(3))                                 (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_SESSION(3))
1794#define TRP_CMD_REQUEST_SECURITY_SCOPES(4)                 (4)
1795#define TRP_RSP_REQUEST_SECURITY_SCOPES((0x80)|(4))                 (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_SECURITY_SCOPES(4))
1796#define TRP_CMD_RESOLVE_CREDENTIAL(6)                              (6)
1797#define TRP_RSP_RESOLVE_CREDENTIAL((0x80)|(6))                              (TRP_RESPONSE(0x80)|TRP_CMD_RESOLVE_CREDENTIAL(6))
1798#define TRP_CMD_REQUEST_LOCAL_DOMAIN(7)                    (7)
1799#define TRP_RSP_REQUEST_LOCAL_DOMAIN((0x80)|(7))                    (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_LOCAL_DOMAIN(7))
1800#define TRP_CMD_REQUEST_REMOTE_DOMAIN(8)                   (8)
1801#define TRP_RSP_REQUEST_REMOTE_DOMAIN((0x80)|(8))                   (TRP_RESPONSE(0x80)|TRP_CMD_REQUEST_REMOTE_DOMAIN(8))
1802#define TRP_RSP_REQUEST_DISCOVERED_REMOTE_DOMAIN((0x80)|0x0A)        (TRP_RESPONSE(0x80)|0x0A)
1803#define TRP_CMD_VALIDATE_CREDENTIAL(9)                             (9)
1804#define TRP_RSP_VALIDATE_CREDENTIAL((0x80)|(9))                             (TRP_RESPONSE(0x80)|TRP_CMD_VALIDATE_CREDENTIAL(9))

1806static const value_string trp_opcode_strings[] = {
  { TRP_RSP_REJECT((0x80)|0), "Reject" },

  { TRP_CMD_REQUEST_KEK(1), "TRP Request KEK" },
  { TRP_RSP_REQUEST_KEK((0x80)|(1)), "TRP Request KEK Response" },

  { TRP_CMD_REQUEST_RANDOM(2), "TRP Request Random" },
  { TRP_RSP_REQUEST_RANDOM((0x80)|(2)), "TRP Request Random Response" },

  { TRP_CMD_REQUEST_SESSION(3), "TRP Request Session" },
  { TRP_RSP_REQUEST_SESSION((0x80)|(3)), "TRP Request Session Response" },

  { TRP_CMD_REQUEST_SECURITY_SCOPES(4), "TRP Request Security Scopes" },
  { TRP_RSP_REQUEST_SECURITY_SCOPES((0x80)|(4)), "TRP Request Security Scopes Response" },

  { TRP_CMD_RESOLVE_CREDENTIAL(6), "TRP Resolve Credential" },
  { TRP_RSP_RESOLVE_CREDENTIAL((0x80)|(6)), "TRP Resolve Credential Response" },

  { TRP_CMD_REQUEST_LOCAL_DOMAIN(7), "TRP Request Local Domain" },
  { TRP_RSP_REQUEST_LOCAL_DOMAIN((0x80)|(7)), "TRP Request Local Domain Response" },

  { TRP_CMD_REQUEST_REMOTE_DOMAIN(8), "TRP Request Remote Domain" },
  { TRP_RSP_REQUEST_REMOTE_DOMAIN((0x80)|(8)), "TRP Request Remote Domain Response" },
  { TRP_RSP_REQUEST_DISCOVERED_REMOTE_DOMAIN((0x80)|0x0A), "TRP Request Discovered Remote Domain Response" },

  { TRP_CMD_VALIDATE_CREDENTIAL(9), "TRP Validate Credential" },
  { TRP_RSP_VALIDATE_CREDENTIAL((0x80)|(9)), "TRP Validate Credential Response" },

  { 0, NULL((void*)0) }
1835};

1837static const value_string trp_error_strings[] = {
  { 1, "Parse Error" },
  { 2, "Access Denied" },
  { 3, "Unknown Initiator" },
  { 4, "Unknown Responder" },
  { 5, "Unknown Domain" },
  { 6, "High Load" },
  { 7, "Bad Mode" },
  { 8, "Incompatible Security Identifiers" },
  { 127, "Internal Error" },

  { 0, NULL((void*)0) }
1849};

1851/* DAP V130 (SGMP - SECURE GROUP MANAGEMENT PROTOCOL V1) */
1852#define DOF_PROTOCOL_SGMP130       130
1853typedef struct _sgmp_packet_data
1854{
  unsigned domain_length;
  uint8_t *domain;

  unsigned group_length;
  uint8_t *group;

  uint16_t epoch;
  uint8_t *kek;

  unsigned I_length;
  uint8_t *I;
  unsigned A_length;
  uint8_t *A;

  dof_session_data *request_session;
1870} sgmp_packet_data;

1872static int proto_sgmp;

1874static int hf_opcode;
1875static int hf_sgmp_domain;
1876static int hf_sgmp_epoch;
1877static int hf_initiator_block;
1878static int hf_sgmp_security_scope;
1879static int hf_initial_state;
1880static int hf_latest_version;
1881static int hf_desire;
1882static int hf_ticket;
1883static int hf_sgmp_tmin;
1884static int hf_tie_breaker;
1885static int hf_delay;
1886static int hf_key;

1888static int ett_sgmp;
1889static int ett_sgmp_domain;
1890static int ett_initiator_block;
1891static int ett_sgmp_security_scope;
1892static int ett_initial_state;
1893static int ett_ticket;

1895#define SGMP_RESPONSE(0x80)                                   (0x80)
1896#define SGMP_CMD_HEARTBEAT(0)                              (0)
1897#define SGMP_RSP_HEARTBEAT((0)|(0x80))                              (SGMP_CMD_HEARTBEAT(0)|SGMP_RESPONSE(0x80))
1898#define SGMP_CMD_EPOCH_CHANGED(1)                  (1)
1899#define SGMP_RSP_EPOCH_CHANGED((1)|(0x80))                  (SGMP_CMD_EPOCH_CHANGED(1)|SGMP_RESPONSE(0x80))
1900#define SGMP_CMD_REKEY(2)                                  (2)
1901#define SGMP_RSP_REKEY((2)|(0x80))                                  (SGMP_CMD_REKEY(2)|SGMP_RESPONSE(0x80))
1902#define SGMP_CMD_REQUEST_GROUP(3)                  (3)
1903#define SGMP_RSP_REQUEST_GROUP((3)|(0x80))                  (SGMP_CMD_REQUEST_GROUP(3)|SGMP_RESPONSE(0x80))
1904#define SGMP_CMD_REKEY_EPOCH(5)                    (5)
1905#define SGMP_RSP_REKEY_EPOCH((5)|(0x80))                    (SGMP_CMD_REKEY_EPOCH(5)|SGMP_RESPONSE(0x80))
1906#define SGMP_CMD_REKEY_MERGE(7)                    (7)
1907#define SGMP_RSP_REKEY_MERGE((7)|(0x80))                    (SGMP_CMD_REKEY_MERGE(7)|SGMP_RESPONSE(0x80))

1909static const value_string sgmp_opcode_strings[] = {
  { SGMP_CMD_HEARTBEAT(0), "SGMP Heartbeat" },
  { SGMP_RSP_HEARTBEAT((0)|(0x80)), "SGMP Heartbeat Response (Illegal)" },
  { SGMP_CMD_EPOCH_CHANGED(1), "SGMP Epoch Changed" },
  { SGMP_RSP_EPOCH_CHANGED((1)|(0x80)), "SGMP Epoch Changed Response (Illegal)" },
  { SGMP_CMD_REKEY(2), "SGMP Rekey" },
  { SGMP_RSP_REKEY((2)|(0x80)), "SGMP Rekey Response (Illegal)" },
  { SGMP_CMD_REQUEST_GROUP(3), "SGMP Request Group" },
  { SGMP_RSP_REQUEST_GROUP((3)|(0x80)), "SGMP Request Group Response" },
  { SGMP_CMD_REKEY_EPOCH(5), "SGMP Rekey Epoch" },
  { SGMP_RSP_REKEY_EPOCH((5)|(0x80)), "SGMP Rekey Epoch Response (Illegal)" },
  { SGMP_CMD_REKEY_MERGE(7), "SGMP Rekey Merge" },
  { SGMP_RSP_REKEY_MERGE((7)|(0x80)), "SGMP Rekey Merge Response (Illegal)" },

  { 0, NULL((void*)0) }
1924};


1927#if 0 /* TODO not used yet */
1928static bool_Bool sgmp_validate_session_key(sgmp_packet_data *cmd_data, uint8_t *confirmation, uint8_t *kek, uint8_t *key)
1929{
  gcry_mac_hd_t hmac;
  gcry_error_t result;

  result = gcry_mac_open(&hmac, GCRY_MAC_HMAC_SHA256, 0, NULL((void*)0));
  if (result != 0)
      return false0;

  gcry_mac_setkey(hmac, kek, 32);
  gcry_mac_write(hmac, cmd_data->I, cmd_data->I_length);
  gcry_mac_write(hmac, cmd_data->A, cmd_data->A_length);
  gcry_mac_write(hmac, key, 32);
  result = gcry_mac_verify(hmac, confirmation, sizeof(confirmation));
  return result == 0;
1943}
1944#endif

1946/* DOF SECURITY PROTOCOL */
1947#define DOF_SECURITY_PROTOCOL"DOF Security Protocol" "DOF Security Protocol"
1948static dissector_table_t dof_sec_dissectors;
1949#define AS_ASSIGNED_SSID0x40000000 0x40000000

1951/* DOFSEC Vxxxx (CCM - COUNTER WITH CBC-MAC PROTOCOL V1) */
1952#define DOF_PROTOCOL_CCM24577 24577
1953#define DSP_CCM_FAMILY0x020000 0x020000

1955static int proto_ccm_app;
1956static int proto_ccm;
1957static int proto_ccm_dsp;

1959static int hf_ccm_dsp_option;
1960static int hf_ccm_dsp_strength_count;
1961static int hf_ccm_dsp_strength;
1962static int hf_ccm_dsp_e_flag;
1963static int hf_ccm_dsp_m_flag;
1964static int hf_ccm_dsp_tmax;
1965static int hf_ccm_dsp_tmin;

1967static const value_string ccm_strengths[] = {
  { 1, "256-bit" },
  { 2, "192-bit" },
  { 3, "128-bit" },
  { 0, NULL((void*)0) }
1972};
1973static int hf_ccm_opcode;

1975static int hf_epp_v1_ccm_flags;
1976static int hf_epp_v1_ccm_flags_manager;
1977static int hf_epp_v1_ccm_flags_period;
1978static int hf_epp_v1_ccm_flags_target;
1979static int hf_epp_v1_ccm_flags_next_nid;
1980static int hf_epp_v1_ccm_flags_packet;
1981static int hf_epp_v1_ccm_tnid;
1982static int hf_epp_v1_ccm_nnid;
1983static int hf_epp_v1_ccm_nid;
1984static int hf_epp_v1_ccm_slot;
1985static int hf_epp_v1_ccm_pn;

1987static int ett_header;
1988static int ett_epp_v1_ccm_flags;

1990static int ett_ccm_dsp_option;
1991static int ett_ccm_dsp;
1992static int ett_ccm;

1994static expert_field ei_decode_failure;

1996typedef struct _ccm_session_data
1997{
  unsigned protocol_id;
  gcry_cipher_hd_t cipher_data;
  GHashTable *cipher_data_table;
  /* Starts at 1, incrementing for each new key. */
  uint32_t period;
  /* Mapping from wire period to absolute periods. */
  uint32_t periods[8];
  uint8_t cipher;
  bool_Bool encrypted;
  uint8_t mac_len;
  uint32_t client_datagram_number;
  uint32_t server_datagram_number;
2010} ccm_session_data;

2012typedef struct _ccm_packet_data
2013{
  uint32_t nid;
  uint32_t dn;
  uint32_t period;
2017} ccm_packet_data;

2019/* The cipher handle is opaque, so the key bytes are kept for comparison. */
2020typedef struct _ccm_period_key
2021{
  gcry_cipher_hd_t cipher;
  uint8_t key[32];
2024} ccm_period_key;

2026#define CCM_PDU_PROBE(0)            (0)

2028static const value_string ccm_opcode_strings[] = {
  { CCM_PDU_PROBE(0), "Probe" },
  { 0, NULL((void*)0) }
2031};

2033/* DOF OBJECT IDENTIFIER (OID) */
2034#define DOF_OBJECT_IDENTIFIER"DOF Object Identifier" "DOF Object Identifier"

2036static dissector_handle_t dof_oid_handle;

2038static int oid_proto = -1;

2040static int hf_oid_class;
2041static int hf_oid_header;
2042static int hf_oid_attribute;
2043static int hf_oid_length;
2044static int hf_oid_data;
2045static int hf_oid_all_attribute_data;
2046static int hf_oid_attribute_header;
2047static int hf_oid_attribute_attribute;
2048static int hf_oid_attribute_id;
2049static int hf_oid_attribute_length;
2050static int hf_oid_attribute_data;
2051static int hf_oid_attribute_oid;

2053static int ett_oid;
2054static int ett_oid_header;
2055static int ett_oid_attribute;
2056static int ett_oid_attribute_header;
2057static int ett_oid_attribute_oid;

2059/**
* EXPERT INFOS
* Expert infos are related to either a PDU type or a specification, and so
* they are listed separately.
*/
2064#if 0
2065static expert_field ei_undecoded;
2066#endif
2067static expert_field ei_malformed;
2068static expert_field ei_implicit_no_op;
2069static expert_field ei_c2_c3_c4_format;
2070static expert_field ei_type_4_header_zero;
2071static expert_field ei_dof_10_flags_zero;
2072static expert_field ei_dof_dnp_length_short;
2073#if 0
2074static expert_field ei_dof_13_length_specified;
2075#endif

2077static expert_field ei_dpp2_dof_10_flags_zero;
2078static expert_field ei_dpp_default_flags;
2079static expert_field ei_dpp_explicit_sender_sid_included;
2080static expert_field ei_dpp_explicit_receiver_sid_included;
2081static expert_field ei_dpp_no_security_context;
2082static expert_field ei_dof_6_timeout;

2084static expert_field ei_security_3_1_invalid_stage;
2085static expert_field ei_security_4_invalid_bit;
2086static expert_field ei_security_13_out_of_range;

2088/**
* SOURCE IDENTIFIER (SID) SUPPORT
* Source identifiers are used as part of operation tracking in the
* DOF Protocol Stack. They are version independent, and associated with
* a node in the DOF mesh network. Each session is associated with a SID.
*
* DPP Manages the SID information, since it is DPP that learns about SIDs.
* SIDs are complicated because the can be 'unknown' for periods, and then
* learned later. The requirement here is that all SIDs that can be known
* are known by the second pass of the dissector (pinfo->visited != 0).
*
* There are two hash tables to map to an actual SID. The first goes
* from sender information to SID ID. During the first pass multiple SID ID
* may actually refer to the same SID, and so the system must be able to "patch"
* these values as actual SIDs are learned. The second hash table goes from SID ID
* to actual SID. This lookup is only known after a real SID has been learned.
*
* The hash tables are used in order to look up full SID information when only
* partial information is known, and must support looking up in both directions
* based on what is known from a particular PDU.
*/
2109static GHashTable *node_key_to_sid_id;
2110static GHashTable *sid_buffer_to_sid_id;
2111static GHashTable *sid_id_to_sid_buffer;
2112/* sid_id -> GSList of packets that store that id. Avoids scanning every DOF packet. */
2113static GHashTable *sid_id_to_packets;

2115typedef struct _node_key_to_sid_id_key
2116{
  int transport_id;
  int transport_node_id;
  int dof_id;
  int dof_node_id;
  int dof_session_id;
2122} node_key_to_sid_id_key;

2124static unsigned sender_key_hash_fn(const void *key)
2125{
  const node_key_to_sid_id_key *sid_key_ptr = (const node_key_to_sid_id_key *)key;
  unsigned result = 0;

  result += g_int_hash(&(sid_key_ptr->transport_id));
  result += g_int_hash(&(sid_key_ptr->transport_node_id));
  result += g_int_hash(&(sid_key_ptr->dof_id));
  result += g_int_hash(&(sid_key_ptr->dof_node_id));
  result += g_int_hash(&(sid_key_ptr->dof_session_id));

  return result;
2136}

2138static unsigned sid_buffer_hash_fn(const void *key)
2139{
  /* The sid buffer is a length byte followed by data. */
  unsigned hash = 5381;
  const uint8_t *str = (const uint8_t *)key;
  uint16_t i;

  for (i = 0; i <= str[0]; i++)
      hash = ((hash << 5) + hash) + str[i]; /* hash * 33 + c */

  return hash;
2149}

2151static gboolean sender_key_equal_fn(const void *key1, const void *key2)
2152{
  const node_key_to_sid_id_key *sid_key_ptr1 = (const node_key_to_sid_id_key *)key1;
  const node_key_to_sid_id_key *sid_key_ptr2 = (const node_key_to_sid_id_key *)key2;

  if (sid_key_ptr1->transport_id != sid_key_ptr2->transport_id)
      return FALSE(0);

  if (sid_key_ptr1->transport_node_id != sid_key_ptr2->transport_node_id)
      return FALSE(0);

  if (sid_key_ptr1->dof_id != sid_key_ptr2->dof_id)
      return FALSE(0);

  if (sid_key_ptr1->dof_node_id != sid_key_ptr2->dof_node_id)
      return FALSE(0);

  if (sid_key_ptr1->dof_session_id != sid_key_ptr2->dof_session_id)
      return FALSE(0);

  return TRUE(!(0));
2172}

2174static gboolean sid_buffer_equal_fn(const void *key1, const void *key2)
2175{
  const uint8_t *sb1 = (const uint8_t *)key1;
  const uint8_t *sb2 = (const uint8_t *)key2;

  if (sb1[0] != sb2[0])
      return FALSE(0);

  return memcmp(sb1 + 1, sb2 + 1, sb1[0]) == 0;
2183}

2185static unsigned dpp_next_sid_id = 1;

2187/**
* This routine is called for each reset (file load, capture) and is responsible
* for allocating the SID support hash tables. Previous information is freed
* if needed.
*/
2192static void dpp_reset_sid_support(void)
2193{
  dpp_next_sid_id = 1;

  if (node_key_to_sid_id != NULL((void*)0))
  {
      g_hash_table_destroy(node_key_to_sid_id);
      node_key_to_sid_id = NULL((void*)0);
  }

  if (sid_buffer_to_sid_id != NULL((void*)0))
  {
      g_hash_table_destroy(sid_buffer_to_sid_id);
      sid_buffer_to_sid_id = NULL((void*)0);
  }

  if (sid_id_to_sid_buffer != NULL((void*)0))
  {
      g_hash_table_destroy(sid_id_to_sid_buffer);
      sid_id_to_sid_buffer = NULL((void*)0);
  }

  if (sid_id_to_packets != NULL((void*)0))
  {
      g_hash_table_destroy(sid_id_to_packets);
      sid_id_to_packets = NULL((void*)0);
  }

  /* The value is not allocated, so does not need to be freed. */
  node_key_to_sid_id = g_hash_table_new_full(sender_key_hash_fn, sender_key_equal_fn, g_free, NULL((void*)0));
  sid_buffer_to_sid_id = g_hash_table_new_full(sid_buffer_hash_fn, sid_buffer_equal_fn, g_free, NULL((void*)0));
  sid_id_to_sid_buffer = g_hash_table_new_full(g_direct_hash, g_direct_equal, NULL((void*)0), NULL((void*)0));
  sid_id_to_packets = g_hash_table_new_full(g_direct_hash, g_direct_equal, NULL((void*)0), (GDestroyNotify)g_slist_free);
2225}

2227/**
* OPERATION IDENTIFIER SUPPORT
* Operation identifiers are an extension of a SID, and represent each separate
* operation in the DOF. They are identified by a SID and an operation count.
* Like SIDs, they are independent of version (at least in meaning, the formatting
* may change).
*
* The hash is used to look up common operation information each time an operation
* is seen in any packet.
*/
2237static GHashTable *dpp_opid_to_packet_data;

2239static unsigned dpp_opid_hash_fn(const void *opid)
2240{
  const dof_2009_1_pdu_20_opid *ptr = (const dof_2009_1_pdu_20_opid *)opid;
  return g_int_hash(&ptr->op_sid_id) + g_int_hash(&ptr->op_cnt);
2243}

2245static gboolean dpp_opid_equal_fn(const void *opid1, const void *opid2)
2246{
  const dof_2009_1_pdu_20_opid *ptr1 = (const dof_2009_1_pdu_20_opid *)opid1;
  const dof_2009_1_pdu_20_opid *ptr2 = (const dof_2009_1_pdu_20_opid *)opid2;
  if (ptr1->op_cnt != ptr2->op_cnt)
      return FALSE(0);
  if (ptr1->op_sid_id != ptr2->op_sid_id)
      return FALSE(0);

  return TRUE(!(0));
2255}

2257static void dpp_reset_opid_support(void)
2258{
  if (dpp_opid_to_packet_data != NULL((void*)0))
  {
      /* Clear it out. Note that this calls the destroy functions for each element. */
      g_hash_table_destroy(dpp_opid_to_packet_data);
      dpp_opid_to_packet_data = NULL((void*)0);
  }

  dpp_opid_to_packet_data = g_hash_table_new_full(dpp_opid_hash_fn, dpp_opid_equal_fn, NULL((void*)0), NULL((void*)0));
2267}

2269/**
* NON-SECURE SESSION LOOKUP SUPPORT
*/
2272static GHashTable *dof_ns_session_lookup;

2274/**
* NON-SECURE DPS SESSION
* This is defined by the transport session and the DNP port information.
*/
2278typedef struct _dof_ns_session_key
2279{
  unsigned transport_session_id;
  unsigned client;
  unsigned server;
  bool_Bool is_secure;
2284} dof_ns_session_key;

2286static dof_session_data* dof_ns_session_retrieve(unsigned transport_session_id, unsigned client, unsigned server)
2287{
  dof_ns_session_key lookup_key;
  dof_session_data *value;

  /* Build a (non-allocated) key to do the lookup. */
  lookup_key.transport_session_id = transport_session_id;
  lookup_key.client = client;
  lookup_key.server = server;

  value = (dof_session_data *)g_hash_table_lookup(dof_ns_session_lookup, &lookup_key);
  if (value)
  {
      /* We found a match. */
      return value;
  }

  return NULL((void*)0);
2304}

2306static void dof_ns_session_define(unsigned transport_session_id, unsigned client, unsigned server, dof_session_data *session_data)
2307{
  dof_ns_session_key *key;

  /* No match, need to add a key. */
  key = g_new0(dof_ns_session_key, 1)((dof_ns_session_key *) g_malloc0_n ((1), sizeof (dof_ns_session_key
)));
  key->transport_session_id = transport_session_id;
  key->client = client;
  key->server = server;

  /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
  g_hash_table_insert(dof_ns_session_lookup, key, session_data);
2318}

2320/* COMMON PDU DISSECTORS */

2322/* Security.1 */
2323static int hf_security_1_permission_type;
2324static int hf_security_1_length;
2325static int hf_security_1_data;

2327static const value_string dof_2008_16_permission_type[] = {
  { 1, "Binding" },
  { 3, "IAM" },
  { 5, "ACTAS" },
  { 128, "Requestor" },
  { 130, "Provider" },
  { 131, "Define" },
  { 133, "Tunnel Domain" },
  { 0, NULL((void*)0) }
2336};

2338/* Security.2 */
2339static int hf_security_2_count;
2340static int ett_security_2_permission;
2341static int hf_security_2_permission;

2343/* Security.3.1 */
2344static int hf_security_3_1_credential_type;
2345static int hf_security_3_1_stage;
2346static int ett_security_3_1_security_node_identifier;
2347static int hf_security_3_1_security_node_identifier;

2349/* Security.3.2 */
2350static int hf_security_3_2_credential_type;
2351static int hf_security_3_2_stage;
2352static int hf_security_3_2_length;
2353static int hf_security_3_2_public_data;

2355/* Security.4 */
2356static int hf_security_4_l;
2357static int hf_security_4_f;
2358static int hf_security_4_ln;
2359static int ett_security_4_identity;
2360static int hf_security_4_identity;
2361static int hf_security_4_nonce;
2362static int ett_security_4_permission_set;
2363static int hf_security_4_permission_set;

2365/* Security.5 */
2366static int hf_security_5_mac;
2367static int hf_security_5_key;

2369/* Security.6.1 */
2370static int hf_security_6_1_desired_duration;
2371static int ett_security_6_1_desired_security_mode;
2372static int hf_security_6_1_desired_security_mode;
2373static int ett_security_6_1_initiator_request;
2374static int hf_security_6_1_initiator_request;

2376/* Security.6.2 */
2377static int ett_security_6_2_responder_request;
2378static int hf_security_6_2_responder_request;

2380/* Security.6.3 */
2381static int hf_security_6_3_granted_duration;
2382static int ett_security_6_3_session_security_scope;
2383static int hf_security_6_3_session_security_scope;
2384static int ett_security_6_3_initiator_validation;
2385static int hf_security_6_3_initiator_validation;
2386static int ett_security_6_3_responder_validation;
2387static int hf_security_6_3_responder_validation;

2389/* Security.9 */
2390static int hf_security_9_length;
2391static int hf_security_9_initial_state;

2393/* Security.10 */
2394static int hf_security_10_count;
2395static int hf_security_10_permission_group_identifier;

2397/* Security.11 */
2398static int hf_security_11_count;
2399static int ett_security_11_permission_security_scope;
2400static int hf_security_11_permission_security_scope;

2402/* Security.12 */
2403static int hf_security_12_m;

2405static const value_string dof_2008_16_security_12_m[] = {
  { 0, "Reference" },
  { 1, "Relative" },
  { 2, "Absolute" },
  { 3, "Continued" },
  { 0, NULL((void*)0) }
2411};

2413static int hf_security_12_count;
2414static int hf_security_12_permission_group_identifier;

2416static bool_Bool
2417dof_sessions_destroy_cb(wmem_allocator_t *allocator _U___attribute__((unused)), wmem_cb_event_t event _U___attribute__((unused)), void *user_data)
2418{
  ccm_session_data *ccm_data = (ccm_session_data*) user_data;
  if (ccm_data->cipher_data)
      gcry_cipher_close(ccm_data->cipher_data);
  if (ccm_data->cipher_data_table) {
      g_hash_table_destroy(ccm_data->cipher_data_table);
  }
  /* unregister this callback */
  return false0;
2427}

2429static void dof_cipher_data_destroy (void *data)
2430{
  ccm_period_key *period_key = (ccm_period_key *)data;

  if (period_key->cipher)
      gcry_cipher_close(period_key->cipher);
  g_free(period_key)(__builtin_object_size ((period_key), 0) != ((size_t) - 1)) ?
 g_free_sized (period_key, __builtin_object_size ((period_key
), 0)) : (g_free) (period_key);
2436}

2438static ccm_period_key *ccm_period_key_new(const uint8_t *session_key)
2439{
  ccm_period_key *pk = g_new0(ccm_period_key, 1)((ccm_period_key *) g_malloc0_n ((1), sizeof (ccm_period_key)
));

  if (gcry_cipher_open(&pk->cipher, GCRY_CIPHER_AES, GCRY_CIPHER_MODE_ECB, 0))
  {
      g_free(pk)(__builtin_object_size ((pk), 0) != ((size_t) - 1)) ? g_free_sized
 (pk, __builtin_object_size ((pk), 0)) : (g_free) (pk);
      return NULL((void*)0);
  }
  if (gcry_cipher_setkey(pk->cipher, session_key, 32))
  {
      gcry_cipher_close(pk->cipher);
      g_free(pk)(__builtin_object_size ((pk), 0) != ((size_t) - 1)) ? g_free_sized
 (pk, __builtin_object_size ((pk), 0)) : (g_free) (pk);
      return NULL((void*)0);
  }
  memcpy(pk->key, session_key, 32);
  return pk;
2455}

2457static int dissect_2008_1_dsp_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree)
2458{
  proto_item *parent = proto_tree_get_parent(tree);
  uint8_t attribute_code = tvb_get_uint8(tvb, 0);
  uint16_t attribute_data = tvb_get_ntohs(tvb, 1);
  uint8_t option_length = tvb_get_uint8(tvb, 3);

  /* Add the generic representation of the fields. */
  proto_tree_add_item(tree, hf_2008_1_dsp_attribute_code, tvb, 0, 1, ENC_NA0x00000000);
  proto_tree_add_item(tree, hf_2008_1_dsp_attribute_data, tvb, 1, 2, ENC_BIG_ENDIAN0x00000000);
  proto_tree_add_item(tree, hf_2008_1_dsp_value_length, tvb, 3, 1, ENC_NA0x00000000);

  /* Append description to the parent. */
  proto_item_append_text(parent, " (Code=%s/Data=0x%04x)", val_to_str(pinfo->pool, attribute_code, strings_2008_1_dsp_attribute_codes, "%u"), attribute_data);

  if (option_length)
  {
      proto_tree_add_item(tree, hf_2008_1_dsp_value_data, tvb, 4, option_length, ENC_NA0x00000000);

      /* call the next dissector */
      tvb_set_reported_length(tvb, option_length + 4);
      dissector_try_uint(dsp_option_dissectors, (attribute_code << 16) | attribute_data, tvb, pinfo, tree);
  }
  return option_length + 4;
2481}

2483/**
* Security.1: Permission. This is the base type for
* permissions, and supports extension.
*/
2487static int dissect_2008_16_security_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2488{
  unsigned offset = 0;
  bool_Bool has_length;
  uint16_t length;

  /* Permission Type */
  {
      int start = offset;
      uint16_t value;
      int val_len;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &val_len);
      has_length = (bool_Bool)(value % 2);
      pi = proto_tree_add_uint(tree, hf_security_1_permission_type, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, val_len);
  }

  if (!has_length)
      return offset;

  /* Length */
  {
      int start = offset;
      uint16_t value;
      int value_len;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &value_len);
      length = value;
      pi = proto_tree_add_uint(tree, hf_security_1_length, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, value_len);
  }

  /* Data */
  proto_tree_add_item(tree, hf_security_1_data, tvb, offset, length, ENC_NA0x00000000);
  offset += length;

  return offset;
2525}

2527/**
* Security.2: Permission Request.
*/
2530static int dissect_2008_16_security_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2531{
  unsigned offset = 0;
  uint16_t count;

  /* Count */
  {
      int start = offset;
      uint16_t value;
      int length;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &length);
      count = value;
      pi = proto_tree_add_uint(tree, hf_security_2_count, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, length);
  }

  while (count--)
  {
      proto_item *ti = proto_tree_add_item(tree, hf_security_2_permission, tvb, offset, -1, ENC_NA0x00000000);
      proto_tree *subtree = proto_item_add_subtree(ti, ett_security_2_permission);
      tvbuff_t *next_tvb = tvb_new_subset_remaining(tvb, offset);
      int len = dissect_2008_16_security_1(next_tvb, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, len);
      offset += len;
  }

  return offset;
2558}

2560/**
* Security.3.1: Base Credential Format.
* Returns: dof_2008_16_security_3_1
*/
2564static int dissect_2008_16_security_3_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
2565{
  unsigned offset = 0;
  uint8_t stage;
  proto_item *ti;
  dof_2008_16_security_3_1 *return_data = (dof_2008_16_security_3_1 *)data;

  /* Credential Type */
  {
      int start = offset;
      uint16_t value;
      int length;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &length);
      pi = proto_tree_add_uint(tree, hf_security_3_1_credential_type, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, length);
  }

  /* Stage */
  ti = proto_tree_add_item_ret_uint8(tree, hf_security_3_1_stage, tvb, offset, 1, ENC_NA0x00000000, &stage);
  offset += 1;

  if (stage != 0)
      expert_add_info(pinfo, ti, &ei_security_3_1_invalid_stage);

  /* Security Node Identifier */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_tree *subtree;
      ti = proto_tree_add_item(tree, hf_security_3_1_security_node_identifier, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_3_1_security_node_identifier);
      block_length = dissect_2008_16_security_8(start, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
      tvb_set_reported_length(start, block_length);
      if (return_data)
          return_data->identity = start;
  }

  return offset;
2605}

2607/**
* Security.3.2: Identity Resolution.
*/
2610int dissect_2008_16_security_3_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2611{
  unsigned offset = 0;
  uint16_t length;

  /* Credential Type */
  {
      int start = offset;
      uint16_t value;
      int val_len;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &val_len);
      pi = proto_tree_add_uint(tree, hf_security_3_2_credential_type, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, val_len);
  }

  /* Stage */
  proto_tree_add_item(tree, hf_security_3_2_stage, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  /* Length */
  {
      int start = offset;
      uint16_t value;
      int value_len;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &value_len);
      length = value;
      pi = proto_tree_add_uint(tree, hf_security_3_2_length, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, value_len);
  }

  /* Public Data */
  proto_tree_add_item(tree, hf_security_3_2_public_data, tvb, offset, length, ENC_NA0x00000000);
  offset += length;

  return offset;
2647}

2649/**
* Security.4: Key Request. Returns: dof_2008_16_security_4
*/
2652static int dissect_2008_16_security_4(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
2653{
  unsigned offset = 0;
  uint8_t flag;
  dof_2008_16_security_4 *return_data = (dof_2008_16_security_4 *)data;

  flag = tvb_get_uint8(tvb, offset);
  if (flag & 0x30)
      expert_add_info(pinfo, tree, &ei_security_4_invalid_bit);

  proto_tree_add_item(tree, hf_security_4_l, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(tree, hf_security_4_f, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(tree, hf_security_4_ln, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;
      dof_2008_16_security_3_1 return_3_1;

      ti = proto_tree_add_item(tree, hf_security_4_identity, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_4_identity);

      block_length = dissect_2008_16_security_3_1(start, pinfo, subtree, &return_3_1);
      proto_item_set_len(ti, block_length);
      offset += block_length;
      if (return_data)
      {
          return_data->identity = return_3_1.identity;
      }
  }

  {
      tvbuff_t *start = tvb_new_subset_length(tvb, offset, (flag & 0x0F) + 1);
      if (return_data)
          return_data->nonce = start;

      proto_tree_add_item(tree, hf_security_4_nonce, start, 0, (flag & 0x0F) + 1, ENC_NA0x00000000);
      offset += (flag & 0x0F) + 1;
  }

  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_4_permission_set, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_4_permission_set);
      block_length = dissect_2008_16_security_2(start, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
  }

  return offset;
2709}

2711/**
* Security.5: Key Grant.
*/
2714static int dissect_2008_16_security_5(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data _U___attribute__((unused)))
2715{
  unsigned offset = 0;

  proto_tree_add_item(tree, hf_security_5_mac, tvb, offset, 32, ENC_NA0x00000000);
  offset += 32;

  proto_tree_add_item(tree, hf_security_5_key, tvb, offset, 32, ENC_NA0x00000000);
  offset += 32;

  return offset;
2725}

2727/**
* Security.6.1: Session Initiator Block.
* Returns dof_2008_16_security_6_1
*/
2731static int dissect_2008_16_security_6_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
2732{
  unsigned offset = 0;

  /* Allocate the return structure. */
  dof_2008_16_security_6_1 *return_data = (dof_2008_16_security_6_1 *)data;

  /* Desired Duration */
  proto_tree_add_item(tree, hf_security_6_1_desired_duration, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  /* Desired Security Mode */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_1_desired_security_mode, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_1_desired_security_mode);

      block_length = dissect_2008_16_security_13(start, pinfo, subtree, NULL((void*)0));
      offset += block_length;
      tvb_set_reported_length(start, block_length);
      proto_item_set_len(ti, block_length);

      if (return_data)
      {
          return_data->security_mode = tvb_get_ntohs(start, 1);
          return_data->security_mode_data_length = block_length - 4;
          return_data->security_mode_data = (uint8_t *)tvb_memdup(wmem_file_scope(), start, 4, block_length - 4);
      }
  }

  /* Initiator Request */
  {
      int block_length;
      dof_2008_16_security_4 output;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_1_initiator_request, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_1_initiator_request);

      block_length = dissect_2008_16_security_4(start, pinfo, subtree, &output);
      proto_item_set_len(ti, block_length);
      offset += block_length;
      if (return_data)
      {
          return_data->i_identity = output.identity;
          return_data->i_nonce = output.nonce;
      }
  }

  return offset;
2787}

2789/**
* Security.6.2: Session Responder Block.
* Returns dof_2008_16_security_6_2
*/
2793static int dissect_2008_16_security_6_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
2794{
  unsigned offset = 0;
  dof_2008_16_security_6_2 *return_data = (dof_2008_16_security_6_2 *)data;

  /* Responder Request */
  {
      int block_length;
      dof_2008_16_security_4 output;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_2_responder_request, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_2_responder_request);

      block_length = dissect_2008_16_security_4(start, pinfo, subtree, &output);
      proto_item_set_len(ti, block_length);
      offset += block_length;
      if (return_data)
      {
          return_data->r_identity = output.identity;
          return_data->r_nonce = output.nonce;
      }
  }

  return offset;
2820}

2822/**
* Security.6.3: Authentication Response Block.
*/
2825static int dissect_2008_16_security_6_3(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2826{
  unsigned offset = 0;

  /* Granted Duration */
  proto_tree_add_item(tree, hf_security_6_3_granted_duration, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  /* Session Security Scope */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_3_session_security_scope, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_3_session_security_scope);
      block_length = dissect_2008_16_security_10(start, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
  }

  /* Initiator Validation */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_3_initiator_validation, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_3_initiator_validation);
      block_length = dissect_2008_16_security_11(start, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
  }

  /* Responder Validation */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      proto_item *ti;
      proto_tree *subtree;

      ti = proto_tree_add_item(tree, hf_security_6_3_responder_validation, tvb, offset, 0, ENC_NA0x00000000);
      subtree = proto_item_add_subtree(ti, ett_security_6_3_responder_validation);
      block_length = dissect_2008_16_security_11(start, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
  }

  return offset;
2876}

2878/**
* Security.7: Security Domain.
*/
2881static int dissect_2008_16_security_7(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2882{
  /* Parse the base type. */
  int block_length;

  block_length = dissect_2009_11_type_4(tvb, pinfo, tree, NULL((void*)0));

  return block_length;
2889}

2891/**
* Security.8: Security Node Identifier.
*/
2894static int dissect_2008_16_security_8(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2895{
  /* Parse the base type. */
  int block_length;

  block_length = dissect_2009_11_type_4(tvb, pinfo, tree, NULL((void*)0));

  return block_length;
2902}

2904/**
* Security.9: Security Mode of Operation Initialization.
* If the packet info has knowledge of the active security mode
* of operation then this datagram can be further decoded.
*/
2909static int dissect_2008_16_security_9(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2910{
  unsigned offset = 0;
  uint16_t length;

  /* Length */
  {
      int start = offset;
      uint16_t value;
      int value_len;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &value_len);
      length = value;
      pi = proto_tree_add_uint(tree, hf_security_9_length, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, value_len);
  }

  if (length > 0)
  {
      proto_tree_add_item(tree, hf_security_9_initial_state, tvb, offset, length, ENC_NA0x00000000);
      offset += length;
  }

  return offset;
2933}

2935/**
* Security.10: Security Scope.
*/
2938static int dissect_2008_16_security_10(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2939{
  unsigned offset = 0;
  uint16_t count;

  /* Count */
  {
      int start = offset;
      uint16_t value;
      int length;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &length);
      count = value;
      pi = proto_tree_add_uint(tree, hf_security_10_count, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, length);
  }

  while (count--)
  {
      const char *def = "";

      int start = offset;
      uint32_t value;
      int length;
      proto_item *pi;

      offset = read_c4(tvb, offset, &value, &length);

      switch (value)
      {
      case 0x3FFFFFFF:
          def = " (all scopes)";
          break;
      case 0x3FFFFFFE:
          def = " (doesn't mask)";
          break;
      case 0x3FFFFFFD:
          def = " (session scope)";
          break;
      }

      pi = proto_tree_add_uint_format_value(tree, hf_security_10_permission_group_identifier, tvb, start, offset - start, value, "%u%s", value, def);
      validate_c4(pinfo, pi, value, length);
  }

  return offset;
2984}

2986/**
* Security.11: Permission Validation.
*/
2989static int dissect_2008_16_security_11(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
2990{
  unsigned offset = 0;
  uint16_t count;

  /* Count */
  {
      int start = offset;
      uint16_t value;
      int length;
      proto_item *pi;
      offset = read_c2(tvb, offset, &value, &length);
      count = value;
      pi = proto_tree_add_uint(tree, hf_security_11_count, tvb, start, offset - start, value);
      validate_c2(pinfo, pi, value, length);
  }

  while (count--)
  {
      proto_item *ti = proto_tree_add_item(tree, hf_security_11_permission_security_scope, tvb, offset, -1, ENC_NA0x00000000);
      proto_tree *subtree = proto_item_add_subtree(ti, ett_security_11_permission_security_scope);
      tvbuff_t *next_tvb = tvb_new_subset_remaining(tvb, offset);
      int len;
      len = dissect_2008_16_security_12(next_tvb, pinfo, subtree, NULL((void*)0));
      proto_item_set_len(ti, len);
      offset += len;
  }

  return offset;
3018}

3020/**
* Security.12: Permission Security Scope.
*/
3023static int dissect_2008_16_security_12(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
3024{
  unsigned offset = 0;
  uint8_t m = tvb_get_uint8(tvb, offset) >> 6;
  uint16_t count = tvb_get_uint8(tvb, offset) & 0x3F;
  proto_item *pi;

  proto_tree_add_item(tree, hf_security_12_m, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(tree, hf_security_12_count, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  if (m == 0)
      return offset;

  while (count--)
  {
      const char *def = "";

      int start = offset;
      uint32_t value;
      int length;
      offset = read_c4(tvb, offset, &value, &length);

      switch (value)
      {
      case 0x3FFFFFFF:
          def = " (all scopes)";
          break;
      case 0x3FFFFFFE:
          def = " (doesn't mask)";
          break;
      case 0x3FFFFFFD:
          def = " (session scope)";
          break;
      }

      pi = proto_tree_add_uint_format_value(tree, hf_security_12_permission_group_identifier, tvb, start, offset - start, value, "%u%s", value, def);
      validate_c4(pinfo, pi, value, length);
  }

  return offset;
3064}

3066/**
* Security.13: Security Mode of Operation Negotiation.
*/
3069static int dissect_2008_16_security_13(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
3070{
  /* Parse the base type. */
  int block_length;
  uint16_t attribute_data;

  /* TODO: Skipping this first byte means that no other encryption modes can be supported. */
  attribute_data = tvb_get_ntohs(tvb, 1);
  if (attribute_data < 0x6000 || attribute_data >= 0x7000)
      expert_add_info(pinfo, tree, &ei_security_13_out_of_range);

  block_length = dissect_2008_1_dsp_1(tvb, pinfo, tree);

  return block_length;
3083}

3085/**
* Dissects a buffer that is pointing at an OID.
* Adds a subtree with detailed information about the fields of
* the OID,
* returns the length of the OID,
* and appends text to the tree (really a tree item) that is
* passed in that gives a more accurate description of the OID.
* Note that the tree already shows the bytes of the OID, so if
* no additional information can be displayed then it should not
* be.
*
* If 'tree' is NULL then just return the length.
*/
3098// NOLINTNEXTLINE(misc-no-recursion)
3099static int dissect_2009_11_type_4(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
3100{
  proto_item *ti;
  int start_offset = 0;
  unsigned offset = 0;
  uint32_t oid_class;
  int oid_class_len;
  uint8_t oid_len_byte;
  proto_tree *oid_tree = tree;
  proto_tree *header_tree;

  if (tree)
  {
      ti = proto_tree_get_parent(tree);
      proto_item_set_text(ti, "Object ID: %s", dof_oid_create_standard_string(pinfo->pool, tvb_captured_length(tvb), tvb_get_ptr(tvb, 0, tvb_captured_length(tvb)), pinfo));
  }

  offset = read_c4(tvb, offset, &oid_class, &oid_class_len);
  ti = proto_tree_add_uint_format(oid_tree, hf_oid_class, tvb, start_offset, offset - start_offset, oid_class, "Class: %u", oid_class);
  validate_c4(pinfo, ti, oid_class, oid_class_len);

  oid_len_byte = tvb_get_uint8(tvb, offset);
  ti = proto_tree_add_uint_format(oid_tree, hf_oid_header, tvb,
                                  offset, 1, oid_len_byte, "Header: 0x%02x (%sLength=%d)", oid_len_byte, oid_len_byte & 0x80 ? "Attribute, " : "", oid_len_byte & 0x3F);

  header_tree = proto_item_add_subtree(ti, ett_oid_header);
  proto_tree_add_item(header_tree, hf_oid_attribute, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(header_tree, hf_oid_length, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  /* Validate the flag byte */
  if (oid_len_byte & 0x40)
  {
      /* Type.4 Malformed (bit mandated zero). */
      expert_add_info(pinfo, ti, &ei_type_4_header_zero);
  }

  if ((oid_len_byte & 0x3F) > 0)
  {
      /* Add the raw data. */
      proto_tree_add_item(oid_tree, hf_oid_data, tvb, offset, oid_len_byte & 0x3F, ENC_NA0x00000000);
      offset += oid_len_byte & 0x3F;
  }

  /* Check for attributes */
  if (oid_len_byte & 0x80)
  {
      /* Read attributes, adding them to oid_tree. */
      uint8_t flag;

      do
      {
          tvbuff_t *packet = tvb_new_subset_remaining(tvb, offset);
          proto_tree *attribute_tree;
          int attribute_length;

          ti = proto_tree_add_item(tree, hf_oid_all_attribute_data, tvb, offset, -1, ENC_NA0x00000000);
          attribute_tree = proto_item_add_subtree(ti, ett_oid_attribute);
          flag = tvb_get_uint8(tvb, offset);
          increment_dissection_depth(pinfo);
          attribute_length = dissect_2009_11_type_5(packet, pinfo, attribute_tree);
          decrement_dissection_depth(pinfo);
          proto_item_set_len(ti, (const int)attribute_length);
          offset += attribute_length;
      }
      while (flag & 0x80);
  }

  if (tree)
  {
      ti = proto_tree_get_parent(tree);
      proto_item_set_len(ti, offset - start_offset);
  }

  /* TODO: Add the description. */
  /* proto_item_append_text( oid_tree, ": %s", "TODO" ); */
  return offset;
3176}

3178/**
* Dissects a buffer that is pointing at an attribute.
* Adds a subtree with detailed information about the fields of
* the attribute,
* returns the new offset,
* and appends text to the tree (really a tree item) that is
* passed in that gives a more accurate description of the
* attribute.
* Note that the tree already shows the bytes of the OID, so if
* no additional information can be displayed then it should not
* be.
*
* If 'tree' is NULL then just return the length.
*/
3192// NOLINTNEXTLINE(misc-no-recursion)
3193static int dissect_2009_11_type_5(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree)
3194{
  proto_item *ti;
  unsigned offset = 0;
  uint8_t attribute_id_byte;
  uint8_t attribute_length_byte;
  proto_tree *oid_tree = tree;
  proto_tree *header_tree;

  attribute_id_byte = tvb_get_uint8(tvb, offset);
  ti = proto_tree_add_uint_format(oid_tree, hf_oid_attribute_header, tvb,
                                  offset, 1, attribute_id_byte, "Header: 0x%02x (%sLength=%d)", attribute_id_byte, attribute_id_byte & 0x80 ? "Attribute, " : "", attribute_id_byte & 0x3F);

  header_tree = proto_item_add_subtree(ti, ett_oid_attribute_header);
  proto_tree_add_item(header_tree, hf_oid_attribute_attribute, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(header_tree, hf_oid_attribute_id, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  attribute_length_byte = tvb_get_uint8(tvb, offset);
  proto_tree_add_item(oid_tree, hf_oid_attribute_length, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  switch (attribute_id_byte & 0x7F)
  {
  case 1:
      /* TODO: Check length */
      proto_tree_add_item(oid_tree, hf_oid_attribute_data, tvb, offset, attribute_length_byte, ENC_NA0x00000000);
      offset += attribute_length_byte;
      break;

  case 0:
  case 2:
  {
      tvbuff_t *packet = tvb_new_subset_length(tvb, offset, attribute_length_byte);
      proto_tree *attribute_tree;

      ti = proto_tree_add_item(tree, hf_oid_attribute_oid, tvb, offset, -1, ENC_NA0x00000000);
      attribute_tree = proto_item_add_subtree(ti, ett_oid_attribute_oid);
      increment_dissection_depth(pinfo);
      offset += dissect_2009_11_type_4(packet, pinfo, attribute_tree, NULL((void*)0));
      decrement_dissection_depth(pinfo);
  }
      break;

  default:
      proto_tree_add_item(oid_tree, hf_oid_attribute_data, tvb, offset, attribute_length_byte, ENC_NA0x00000000);
      offset += attribute_length_byte;
  }

  return offset;
3243}


3246/* Transport Session ID */
3247static dof_globals globals;

3249/* Static Methods. */

3251static dof_packet_data* create_packet_data(packet_info *pinfo);
3252static int dof_dissect_dnp_length(tvbuff_t *tvb, packet_info *pinfo, uint8_t version, unsigned *offset);
3253#define VALIDHEX(c)( ((c) >= '0' && (c) <= '9') || ((c) >= 'A' &&
 (c) <= 'F') || ((c) >= 'a' && (c) <= 'f') ) ( ((c) >= '0' && (c) <= '9') || ((c) >= 'A' && (c) <= 'F') || ((c) >= 'a' && (c) <= 'f') )


3256/* Configuration structures. These tables allow for security
* mode templates, security keys, and secrets to be configured.
*/

3260static bool_Bool decrypt_all_packets;
3261static bool_Bool track_operations;
3262static unsigned track_operations_window = 5;
3263static uint32_t next_dof_frame = 1;

3265/* Structure for security mode of operation templates. */
3266typedef struct _secmode_field_t {
  char *domain;
  char *identity;
  char *kek;
3270} secmode_field_t;

3272static secmode_field_t *secmode_list;
3273static unsigned num_secmode_list;

3275/* Structure for security keys. */
3276typedef struct _seckey_field_t {
  char *key;
3278} seckey_field_t;

3280/* Structure for secrets (for identities) */
3281typedef struct _identsecret_field_t {
  char *domain;
  char *identity;
  char *secret;
3285} identsecret_field_t;

3287typedef struct _tcp_ignore_data
3288{
  uint32_t sequence;
  bool_Bool ignore;
  struct _tcp_ignore_data *next;
3292} tcp_ignore_data;

3294typedef struct _tcp_dof_packet_ref
3295{
  /* A single TCP frame can contain multiple packets. We must
   * be able to keep track of them all.
   */
  dof_api_data api_data;

  int start_offset;
  dof_transport_packet transport_packet;
  struct _tcp_dof_packet_ref *next;
3304} tcp_dof_packet_ref;

3306/**
* This structure exists for TCP packets and allows matching Wireshark frames to
* DPS packets.
*/
3310typedef struct _tcp_packet_data
3311{
  /* Packets are ignored based on the starting TCP SEQ (sequence of first byte). */
  tcp_ignore_data *from_client_ignore_list;
  tcp_ignore_data *from_server_ignore_list;

  /* DPS packet structures contained within a TCP frame. */
  tcp_dof_packet_ref *dof_packets;
3318} tcp_packet_data;

3320/**
* This structure exists for UDP sessions and allows for advanced stream handling
* and matching Wireshark frames to DPS packets.
*/
3324typedef struct _udp_session_data
3325{
  /* This must be the first structure, as a pointer to this type is stored in each DPS packet. */
  dof_transport_session common;

  /* For the associated TCP conversation, this tracks the client and server
   * addresses.
   */
  ws_node server;
3333} udp_session_data;

3335/* This structure exists for TCP sessions and allows for advanced stream handling
* and matching Wireshark frames to DPS packets.
*/
3338typedef struct _tcp_session_data
3339{
  /* This must be the first structure, as a pointer to this type is stored in each DPS packet. */
  dof_transport_session common;

  /* This flag is used to determine that an entire TCP session is NOT OpenDOF.
   * Because of TCP/IP negotiation in the DPS it is easy to confuse arbitrary
   * protocols as OpenDOF. Once it is determined that it is not then this
   * flag can be set, which will turn off all the OpenDOF dissectors.
   */
  bool_Bool not_dps;

  /* For the associated TCP conversation, this tracks the client and server
   * addresses.
   */
  ws_node client, server;

  /* TCP sequence numbers, used to detect retransmissions. These are only valid
   * during the first pass through the packets.
   */
  uint32_t from_client_seq;
  uint32_t from_server_seq;

3361} tcp_session_data;

3363static dof_security_data global_security;

3365static unsigned count_hex_bytes(char *str);

3367/* Global DPS data structures for security keys. */
3368static seckey_field_t *seckey_list;
3369static unsigned num_seckey_list;

3371/* Global DPS data structures for identity secrets. */
3372static identsecret_field_t *identsecret_list;
3373static unsigned num_identsecret_list;


3376/* Callbacks for Configuration security templates. */
3377UAT_CSTRING_CB_DEF(secmode_list, domain, secmode_field_t)static void secmode_list_domain_set_cb(void* rec, const char*
 buf, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((secmode_field_t*)rec)->
domain)), 0) != ((size_t) - 1)) ? g_free_sized ((((secmode_field_t
*)rec)->domain), __builtin_object_size (((((secmode_field_t
*)rec)->domain)), 0)) : (g_free) ((((secmode_field_t*)rec)
->domain)); (((secmode_field_t*)rec)->domain) = new_buf
; } static void secmode_list_domain_tostr_cb(void* rec, char*
* out_ptr, unsigned* out_len, const void* u1 __attribute__((unused
)), const void* u2 __attribute__((unused))) { if (((secmode_field_t
*)rec)->domain ) { *out_ptr = g_strdup_inline ((((secmode_field_t
*)rec)->domain)); *out_len = (unsigned)strlen((((secmode_field_t
*)rec)->domain)); } else { *out_ptr = g_strdup_inline ("")
; *out_len = 0; } }
3378UAT_CSTRING_CB_DEF(secmode_list, identity, secmode_field_t)static void secmode_list_identity_set_cb(void* rec, const char
* buf, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((secmode_field_t*)rec)->
identity)), 0) != ((size_t) - 1)) ? g_free_sized ((((secmode_field_t
*)rec)->identity), __builtin_object_size (((((secmode_field_t
*)rec)->identity)), 0)) : (g_free) ((((secmode_field_t*)rec
)->identity)); (((secmode_field_t*)rec)->identity) = new_buf
; } static void secmode_list_identity_tostr_cb(void* rec, char
** out_ptr, unsigned* out_len, const void* u1 __attribute__((
unused)), const void* u2 __attribute__((unused))) { if (((secmode_field_t
*)rec)->identity ) { *out_ptr = g_strdup_inline ((((secmode_field_t
*)rec)->identity)); *out_len = (unsigned)strlen((((secmode_field_t
*)rec)->identity)); } else { *out_ptr = g_strdup_inline (""
); *out_len = 0; } }
3379UAT_CSTRING_CB_DEF(secmode_list, kek, secmode_field_t)static void secmode_list_kek_set_cb(void* rec, const char* buf
, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((secmode_field_t*)rec)->
kek)), 0) != ((size_t) - 1)) ? g_free_sized ((((secmode_field_t
*)rec)->kek), __builtin_object_size (((((secmode_field_t*)
rec)->kek)), 0)) : (g_free) ((((secmode_field_t*)rec)->
kek)); (((secmode_field_t*)rec)->kek) = new_buf; } static void
 secmode_list_kek_tostr_cb(void* rec, char** out_ptr, unsigned
* out_len, const void* u1 __attribute__((unused)), const void
* u2 __attribute__((unused))) { if (((secmode_field_t*)rec)->
kek ) { *out_ptr = g_strdup_inline ((((secmode_field_t*)rec)->
kek)); *out_len = (unsigned)strlen((((secmode_field_t*)rec)->
kek)); } else { *out_ptr = g_strdup_inline (""); *out_len = 0
; } }

3381static void secmode_list_post_update_cb(void)
3382{
3383}

3385static bool_Bool secmode_list_update_cb(void *r, char **err)
3386{
  secmode_field_t *rec = (secmode_field_t *)r;
  uint32_t size;

  *err = NULL((void*)0);

  size = (uint32_t)strlen(rec->domain);
  if (!VALIDHEX(rec->domain[0])( ((rec->domain[0]) >= '0' && (rec->domain[0
]) <= '9') || ((rec->domain[0]) >= 'A' && (rec
->domain[0]) <= 'F') || ((rec->domain[0]) >= 'a' &&
 (rec->domain[0]) <= 'f') ))
  {
      /* dof_oid_create_internal() returns 0 for a valid OID string. */
      if (dof_oid_create_internal(rec->domain, &size, NULL((void*)0)))
      {
          *err = g_strdup("Invalid domain [must be valid OID].")g_strdup_inline ("Invalid domain [must be valid OID].");
          return false0;
      }
  }
  else if (!count_hex_bytes(rec->domain))
  {
      *err = g_strdup("Invalid domain [must be valid OID].")g_strdup_inline ("Invalid domain [must be valid OID].");
      return false0;
  }

  size = (uint32_t)strlen(rec->identity);
  if (!VALIDHEX(rec->identity[0])( ((rec->identity[0]) >= '0' && (rec->identity
[0]) <= '9') || ((rec->identity[0]) >= 'A' &&
 (rec->identity[0]) <= 'F') || ((rec->identity[0]) >=
 'a' && (rec->identity[0]) <= 'f') ))
  {
      /* dof_oid_create_internal() returns 0 for a valid OID string. */
      if (dof_oid_create_internal(rec->identity, &size, NULL((void*)0)))
      {
          *err = g_strdup("Invalid identity [must be valid OID].")g_strdup_inline ("Invalid identity [must be valid OID].");
          return false0;
      }
  }
  else if (!count_hex_bytes(rec->identity))
  {
      *err = g_strdup("Invalid identity [must be valid OID].")g_strdup_inline ("Invalid identity [must be valid OID].");
      return false0;
  }

  if (count_hex_bytes(rec->kek) != 32)
  {
      *err = g_strdup("Invalid KEK [must be 32 byte key].")g_strdup_inline ("Invalid KEK [must be 32 byte key].");
      return false0;
  }
  return true1;
3430}

3432static void* secmode_list_copy_cb(void *n, const void *o, size_t siz _U___attribute__((unused)))
3433{
  secmode_field_t *new_rec = (secmode_field_t *)n;
  const secmode_field_t *old_rec = (const secmode_field_t *)o;

  new_rec->domain = g_strdup(old_rec->domain)g_strdup_inline (old_rec->domain);
  new_rec->identity = g_strdup(old_rec->identity)g_strdup_inline (old_rec->identity);
  new_rec->kek = g_strdup(old_rec->kek)g_strdup_inline (old_rec->kek);

  return new_rec;
3442}

3444static void secmode_list_free_cb(void *r)
3445{
  secmode_field_t *rec = (secmode_field_t *)r;

  g_free(rec->domain)(__builtin_object_size ((rec->domain), 0) != ((size_t) - 1
)) ? g_free_sized (rec->domain, __builtin_object_size ((rec
->domain), 0)) : (g_free) (rec->domain);
  g_free(rec->identity)(__builtin_object_size ((rec->identity), 0) != ((size_t) -
 1)) ? g_free_sized (rec->identity, __builtin_object_size (
(rec->identity), 0)) : (g_free) (rec->identity);
  g_free(rec->kek)(__builtin_object_size ((rec->kek), 0) != ((size_t) - 1)) ?
 g_free_sized (rec->kek, __builtin_object_size ((rec->kek
), 0)) : (g_free) (rec->kek);
3451}


3454/* Callbacks for security keys. */
3455UAT_CSTRING_CB_DEF(seckey_list, key, seckey_field_t)static void seckey_list_key_set_cb(void* rec, const char* buf
, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((seckey_field_t*)rec)->
key)), 0) != ((size_t) - 1)) ? g_free_sized ((((seckey_field_t
*)rec)->key), __builtin_object_size (((((seckey_field_t*)rec
)->key)), 0)) : (g_free) ((((seckey_field_t*)rec)->key)
); (((seckey_field_t*)rec)->key) = new_buf; } static void seckey_list_key_tostr_cb
(void* rec, char** out_ptr, unsigned* out_len, const void* u1
 __attribute__((unused)), const void* u2 __attribute__((unused
))) { if (((seckey_field_t*)rec)->key ) { *out_ptr = g_strdup_inline
 ((((seckey_field_t*)rec)->key)); *out_len = (unsigned)strlen
((((seckey_field_t*)rec)->key)); } else { *out_ptr = g_strdup_inline
 (""); *out_len = 0; } }

3457static void seckey_list_post_update_cb(void)
3458{
3459}

3461static bool_Bool seckey_list_update_cb(void *r, char **err)
3462{
  seckey_field_t *rec = (seckey_field_t *)r;

  *err = NULL((void*)0);
  if (count_hex_bytes(rec->key) != 32)
  {
      *err = g_strdup("Invalid secret [must be 32 bytes].")g_strdup_inline ("Invalid secret [must be 32 bytes].");
      return false0;
  }
  return true1;
3472}

3474static void* seckey_list_copy_cb(void *n, const void *o, size_t siz _U___attribute__((unused)))
3475{
  seckey_field_t *new_rec = (seckey_field_t *)n;
  const seckey_field_t *old_rec = (const seckey_field_t *)o;

  new_rec->key = g_strdup(old_rec->key)g_strdup_inline (old_rec->key);

  return new_rec;
3482}

3484static void seckey_list_free_cb(void *r)
3485{
  seckey_field_t *rec = (seckey_field_t *)r;

  g_free(rec->key)(__builtin_object_size ((rec->key), 0) != ((size_t) - 1)) ?
 g_free_sized (rec->key, __builtin_object_size ((rec->key
), 0)) : (g_free) (rec->key);
3489}


3492/* Callbacks for identity secrets. */
3493UAT_CSTRING_CB_DEF(identsecret_list, domain, identsecret_field_t)static void identsecret_list_domain_set_cb(void* rec, const char
* buf, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((identsecret_field_t*)rec
)->domain)), 0) != ((size_t) - 1)) ? g_free_sized ((((identsecret_field_t
*)rec)->domain), __builtin_object_size (((((identsecret_field_t
*)rec)->domain)), 0)) : (g_free) ((((identsecret_field_t*)
rec)->domain)); (((identsecret_field_t*)rec)->domain) =
 new_buf; } static void identsecret_list_domain_tostr_cb(void
* rec, char** out_ptr, unsigned* out_len, const void* u1 __attribute__
((unused)), const void* u2 __attribute__((unused))) { if (((identsecret_field_t
*)rec)->domain ) { *out_ptr = g_strdup_inline ((((identsecret_field_t
*)rec)->domain)); *out_len = (unsigned)strlen((((identsecret_field_t
*)rec)->domain)); } else { *out_ptr = g_strdup_inline ("")
; *out_len = 0; } }
3494UAT_CSTRING_CB_DEF(identsecret_list, identity, identsecret_field_t)static void identsecret_list_identity_set_cb(void* rec, const
 char* buf, unsigned len, const void* u1 __attribute__((unused
)), const void* u2 __attribute__((unused))) { char* new_buf =
 g_strndup(buf,len); (__builtin_object_size (((((identsecret_field_t
*)rec)->identity)), 0) != ((size_t) - 1)) ? g_free_sized (
(((identsecret_field_t*)rec)->identity), __builtin_object_size
 (((((identsecret_field_t*)rec)->identity)), 0)) : (g_free
) ((((identsecret_field_t*)rec)->identity)); (((identsecret_field_t
*)rec)->identity) = new_buf; } static void identsecret_list_identity_tostr_cb
(void* rec, char** out_ptr, unsigned* out_len, const void* u1
 __attribute__((unused)), const void* u2 __attribute__((unused
))) { if (((identsecret_field_t*)rec)->identity ) { *out_ptr
 = g_strdup_inline ((((identsecret_field_t*)rec)->identity
)); *out_len = (unsigned)strlen((((identsecret_field_t*)rec)->
identity)); } else { *out_ptr = g_strdup_inline (""); *out_len
 = 0; } }
3495UAT_CSTRING_CB_DEF(identsecret_list, secret, identsecret_field_t)static void identsecret_list_secret_set_cb(void* rec, const char
* buf, unsigned len, const void* u1 __attribute__((unused)), const
 void* u2 __attribute__((unused))) { char* new_buf = g_strndup
(buf,len); (__builtin_object_size (((((identsecret_field_t*)rec
)->secret)), 0) != ((size_t) - 1)) ? g_free_sized ((((identsecret_field_t
*)rec)->secret), __builtin_object_size (((((identsecret_field_t
*)rec)->secret)), 0)) : (g_free) ((((identsecret_field_t*)
rec)->secret)); (((identsecret_field_t*)rec)->secret) =
 new_buf; } static void identsecret_list_secret_tostr_cb(void
* rec, char** out_ptr, unsigned* out_len, const void* u1 __attribute__
((unused)), const void* u2 __attribute__((unused))) { if (((identsecret_field_t
*)rec)->secret ) { *out_ptr = g_strdup_inline ((((identsecret_field_t
*)rec)->secret)); *out_len = (unsigned)strlen((((identsecret_field_t
*)rec)->secret)); } else { *out_ptr = g_strdup_inline ("")
; *out_len = 0; } }

3497static void identsecret_list_post_update_cb(void)
3498{
3499}

3501static bool_Bool identsecret_list_update_cb(void *r, char **err)
3502{
  identsecret_field_t *rec = (identsecret_field_t *)r;
  uint32_t size;

  *err = NULL((void*)0);

  size = (uint32_t)strlen(rec->domain);
  if (!VALIDHEX(rec->domain[0])( ((rec->domain[0]) >= '0' && (rec->domain[0
]) <= '9') || ((rec->domain[0]) >= 'A' && (rec
->domain[0]) <= 'F') || ((rec->domain[0]) >= 'a' &&
 (rec->domain[0]) <= 'f') ))
  {
      if (dof_oid_create_internal(rec->domain, &size, NULL((void*)0)))
      {
          *err = g_strdup("Invalid domain [must be valid OID].")g_strdup_inline ("Invalid domain [must be valid OID].");
          return false0;
      }
  }
  else if (!count_hex_bytes(rec->domain))
  {
      *err = g_strdup("Invalid domain [must be valid OID].")g_strdup_inline ("Invalid domain [must be valid OID].");
      return false0;
  }

  size = (uint32_t)strlen(rec->identity);
  if (!VALIDHEX(rec->identity[0])( ((rec->identity[0]) >= '0' && (rec->identity
[0]) <= '9') || ((rec->identity[0]) >= 'A' &&
 (rec->identity[0]) <= 'F') || ((rec->identity[0]) >=
 'a' && (rec->identity[0]) <= 'f') ))
  {
      if (dof_oid_create_internal(rec->identity, &size, NULL((void*)0)))
      {
          *err = g_strdup("Invalid identity [must be valid OID].")g_strdup_inline ("Invalid identity [must be valid OID].");
          return false0;
      }
  }
  else if (!count_hex_bytes(rec->identity))
  {
      *err = g_strdup("Invalid identity [must be valid OID].")g_strdup_inline ("Invalid identity [must be valid OID].");
      return false0;
  }

  if (count_hex_bytes(rec->secret) != 32)
  {
      *err = g_strdup("Invalid secret [must be 32 byte key].")g_strdup_inline ("Invalid secret [must be 32 byte key].");
      return false0;
  }
  return true1;
3544}

3546static void* identsecret_list_copy_cb(void *n, const void *o, size_t siz _U___attribute__((unused)))
3547{
  identsecret_field_t *new_rec = (identsecret_field_t *)n;
  const identsecret_field_t *old_rec = (const identsecret_field_t *)o;

  new_rec->domain = g_strdup(old_rec->domain)g_strdup_inline (old_rec->domain);
  new_rec->identity = g_strdup(old_rec->identity)g_strdup_inline (old_rec->identity);
  new_rec->secret = g_strdup(old_rec->secret)g_strdup_inline (old_rec->secret);

  return new_rec;
3556}

3558static void identsecret_list_free_cb(void *r)
3559{
  identsecret_field_t *rec = (identsecret_field_t *)r;

  g_free(rec->domain)(__builtin_object_size ((rec->domain), 0) != ((size_t) - 1
)) ? g_free_sized (rec->domain, __builtin_object_size ((rec
->domain), 0)) : (g_free) (rec->domain);
  g_free(rec->identity)(__builtin_object_size ((rec->identity), 0) != ((size_t) -
 1)) ? g_free_sized (rec->identity, __builtin_object_size (
(rec->identity), 0)) : (g_free) (rec->identity);
  g_free(rec->secret)(__builtin_object_size ((rec->secret), 0) != ((size_t) - 1
)) ? g_free_sized (rec->secret, __builtin_object_size ((rec
->secret), 0)) : (g_free) (rec->secret);
3565}

3567static void init_addr_port_tables(void);

3569/* The IP transport protocols need to assign SENDER ID based on the
* transport address. This requires a hash lookup from address/port to ID.
*/

3573static GHashTable *addr_port_to_id;

3575typedef struct _addr_port_key
3576{
  address addr;
  uint16_t port;
3579} addr_port_key;

3581static unsigned addr_port_key_hash_fn(const void *key)
3582{
  const addr_port_key *addr_key = (const addr_port_key *)key;
  unsigned result = 0;
  unsigned port_as_int = addr_key->port;
  unsigned type_as_int = addr_key->addr.type;

  result += g_int_hash(&port_as_int);
  result += g_int_hash(&type_as_int);

  {
      unsigned hash = 5381;
      const uint8_t *str = (const uint8_t *)addr_key->addr.data;

      for (int i = 0; i < addr_key->addr.len; i++)
          hash = ((hash << 5) + hash) + str[i]; /* hash * 33 + c */

      result += hash;
  }

  return result;
3602}

3604static gboolean addr_port_key_equal_fn(const void *key1, const void *key2)
3605{
  const addr_port_key *addr_key_ptr1 = (const addr_port_key *)key1;
  const addr_port_key *addr_key_ptr2 = (const addr_port_key *)key2;

  if (addr_key_ptr1->port != addr_key_ptr2->port)
      return FALSE(0);

  return addresses_equal(&addr_key_ptr1->addr, &addr_key_ptr2->addr);
3613}

3615static void addr_port_key_free_fn(void *key)
3616{
  addr_port_key *addr_port = (addr_port_key *)key;
  g_free(addr_port->addr.priv)(__builtin_object_size ((addr_port->addr.priv), 0) != ((size_t
) - 1)) ? g_free_sized (addr_port->addr.priv, __builtin_object_size
 ((addr_port->addr.priv), 0)) : (g_free) (addr_port->addr
.priv);
  g_free(addr_port)(__builtin_object_size ((addr_port), 0) != ((size_t) - 1)) ? g_free_sized
 (addr_port, __builtin_object_size ((addr_port), 0)) : (g_free
) (addr_port);
3620}

3622static void init_addr_port_tables(void)
3623{
  /* This routine is called each time the system is reset (file load, capture)
   * and so it should take care of freeing any of our persistent stuff.
   */
  if (addr_port_to_id != NULL((void*)0))
  {
      /* Clear it out. Note that this calls the destroy functions for each element. */
      g_hash_table_destroy(addr_port_to_id);
      addr_port_to_id = NULL((void*)0);
  }

  /* The value is not allocated, so does not need to be freed. */
  addr_port_to_id = g_hash_table_new_full(addr_port_key_hash_fn, addr_port_key_equal_fn, addr_port_key_free_fn, NULL((void*)0));
3636}

3638static unsigned next_addr_port_id = 1;

3640#define EP_COPY_ADDRESS(alloc, to, from){ uint8_t *EP_COPY_ADDRESS_data; (to)->type = (from)->type
; (to)->len = (from)->len; EP_COPY_ADDRESS_data = (uint8_t
*) wmem_alloc(alloc,(from)->len); memcpy(EP_COPY_ADDRESS_data
, (from)->data, (from)->len); (to)->priv = EP_COPY_ADDRESS_data
; (to)->data = (to)->priv; } { \
  uint8_t *EP_COPY_ADDRESS_data; \
  (to)->type = (from)->type; \
  (to)->len = (from)->len; \
  EP_COPY_ADDRESS_data = (uint8_t*) wmem_alloc(alloc,(from)->len); \
  memcpy(EP_COPY_ADDRESS_data, (from)->data, (from)->len); \
  (to)->priv = EP_COPY_ADDRESS_data; \
  (to)->data = (to)->priv; \
  }

3650/* Return the transport ID, a unique number for each transport sender.
*/
3652static unsigned assign_addr_port_id(wmem_allocator_t* allocator, address *addr, uint16_t port)
3653{
  addr_port_key lookup_key;
  addr_port_key *key;
  unsigned value;

  /* ensure the address contains actual data */
  if (addr->type == AT_NONE)
      return 0;

  /* Build a (non-allocated) key to do the lookup. */

  EP_COPY_ADDRESS(allocator, &lookup_key.addr, addr){ uint8_t *EP_COPY_ADDRESS_data; (&lookup_key.addr)->type
 = (addr)->type; (&lookup_key.addr)->len = (addr)->
len; EP_COPY_ADDRESS_data = (uint8_t*) wmem_alloc(allocator,(
addr)->len); memcpy(EP_COPY_ADDRESS_data, (addr)->data,
 (addr)->len); (&lookup_key.addr)->priv = EP_COPY_ADDRESS_data
; (&lookup_key.addr)->data = (&lookup_key.addr)->
priv; };
  lookup_key.port = port;

  value = GPOINTER_TO_UINT(g_hash_table_lookup(addr_port_to_id, &lookup_key))((guint) (gulong) (g_hash_table_lookup(addr_port_to_id, &
lookup_key)));
  if (value)
  {
      /* We found a match. */
      return value;
  }

  /* No match, need to add a key. */
  key = g_new0(addr_port_key, 1)((addr_port_key *) g_malloc0_n ((1), sizeof (addr_port_key)));
  copy_address(&key->addr, addr);
  key->port = port;

  /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
  g_hash_table_insert(addr_port_to_id, key, GUINT_TO_POINTER(next_addr_port_id)((gpointer) (gulong) (next_addr_port_id)));
  return next_addr_port_id++;
3682}

3684/* Wireshark Configuration Dialog Routines*/

3686static bool_Bool identsecret_chk_cb(void *r _U___attribute__((unused)), const char *p _U___attribute__((unused)), unsigned len _U___attribute__((unused)), const void *u1 _U___attribute__((unused)), const void *u2 _U___attribute__((unused)), char **err _U___attribute__((unused)))
3687{
3688#if 0
  char** protos;
  char* line = ep_strndup(p, len);
  unsigned num_protos, i;

  g_strstrip(line)g_strchomp (g_strchug (line));
  ascii_strdown_inplace(line);

  protos = ep_strsplit(line, ":", 0);

  for (num_protos = 0; protos[num_protos]; num_protos++)
  g_strstrip(protos[num_protos])g_strchomp (g_strchug (protos[num_protos]));

  if (!num_protos)
  {
      *err = g_strdup("No protocols given")g_strdup_inline ("No protocols given");
      return false0;
  }

  for (i = 0; i < num_protos; i++)
  {
      if (!find_dissector(protos[i]))
      {
          *err = g_strdup("Could not find dissector for: '%s'", protos[i]);
          return false0;
      }
  }
3715#endif
  return true1;
3717}

3719/* Utility Methods */

3721/* Bytes consumed from start to end. Zero when the range is inverted, so a short field cannot wrap into a huge allocation. */
3722static unsigned dof_consumed_length(unsigned end, unsigned start)
3723{
  if (end < start)
      return 0;
  return end - start;
3727}

3729static unsigned count_hex_bytes(char *str)
3730{
  unsigned total = 0;

  while (str != NULL((void*)0) && *str != '\0' && *str != '#')
  {
      if (!g_ascii_isxdigit(*str)((g_ascii_table[(guchar) (*str)] & G_ASCII_XDIGIT) != 0))
      {
          str += 1;
          continue;
      }

      if (!g_ascii_isxdigit(str[1])((g_ascii_table[(guchar) (str[1])] & G_ASCII_XDIGIT) != 0
))
          return 0;

      if (total == UINT_MAX(2147483647 *2U +1U))
          return 0;

      total += 1;
      str += 2;
  }

  return total;
3752}

3754static void parse_hex_string(char *str, uint8_t **ptr, unsigned *len)
3755{
  unsigned j = 0;
  *len = count_hex_bytes(str);
  *ptr = (uint8_t *)g_malloc0(*len);

  while (j < *len)
  {
      int high, low;

      if (!g_ascii_isxdigit(*str)((g_ascii_table[(guchar) (*str)] & G_ASCII_XDIGIT) != 0))
      {
          str += 1;
          continue;
      }

      high = ws_xton(str[0]);
      low = ws_xton(str[1]);
      (*ptr)[j++] = (high << 4) | low;
      str += 2;
  }
3775}

3777/* OID and IID Parsing */

3779static const uint8_t OALString_HexChar[] = { '0', '1', '2', '3', '4', '5', '6', '7', '8', '9', 'A', 'B', 'C', 'D', 'E', 'F' };

3781#define IS_PRINTABLE(c)( ((uint8_t)c) >= 32U && ((uint8_t)c) < 127U )         ( ((uint8_t)c) >= 32U && ((uint8_t)c) < 127U )
3782#define IS_ESCAPED(c)( (c) == '(' || (c) == ')' || (c) == '[' || (c) == ']' || (c)
 == '{' || (c) == '}' || (c) == '\\' || (c) == '|' )           ( (c) == '(' || (c) == ')' || (c) == '[' || (c) == ']' || (c) == '{' || (c) == '}' || (c) == '\\' || (c) == '|' )
3783#define DOFOBJECTID_MAX_CLASS_SIZE(4) (4)
3784#define MAX_OID_DATA_SIZE(63)                 (63)
3785#define OID_DATA_LEN_MASK((63))                 (MAX_OID_DATA_SIZE(63))

3787#define ObjectID_DataToStringLength( data, dataSize )ObjectID_DataToString( (data), (dataSize), ((void*)0) ) ObjectID_DataToString( (data), (dataSize), NULL((void*)0) )
3788#define OALString_HexDigitToChar(c)(OALString_HexChar[(c)])     (OALString_HexChar[(c)])
3789#define DOFObjectIDAttribute_IsValid( attribute )((attribute).id < DOFOBJECTIDATTRIBUTE_INVALID) ((attribute).id < DOFOBJECTIDATTRIBUTE_INVALID)
3790#define DOFObjectIDAttribute_GetValueSize( attribute )((attribute).dataSize) ((attribute).dataSize)
3791#define DOFObjectIDAttribute_GetValue( attribute )((attribute).data) ((attribute).data)
3792#define DOFObjectIDAttribute_GetType( attribute )((DOFObjectIDAttributeType)(attribute).id) ((DOFObjectIDAttributeType)(attribute).id)

3794typedef enum DOFObjectIDAttributeID_t
3795{
  /**
  * Provider attribute. This attribute identifies an object as being
  * provided by a specific service provider. The associated data must
  * be an object identifier.
  */
  DOFOBJECTIDATTRIBUTE_PROVIDER = 0,

  /**
  * Session attribute. This attribute associates the object with the
  * specified session. The associated data must be exactly 16 bytes long.
  */
  DOFOBJECTIDATTRIBUTE_SESSION = 1,

  /**
  * Group attribute. This attribute is normally used in association
  * with the BROADCAST object identifier. It defines a target that is
  * a multicast group in the DOF network (as opposed to the transport).
  * The associated data must be an object identifier.
  */
  DOFOBJECTIDATTRIBUTE_GROUP = 2,

  /**
  * Invalid, used to signal that an error has occurred.
  */
  DOFOBJECTIDATTRIBUTE_INVALID = 128
3821} DOFObjectIDAttributeType;
3822typedef uint32_t                       DOFObjectIDClass;

3824typedef struct DOFObjectID_t
3825{
  uint32_t refCount;
  uint16_t len;                /* Actual length of oid's wire representation. Max is 32707: 4 + 1 + 63 + (127 * 257). */
  uint8_t oid[];               /* Extends beyond end of this defined structure, so oid MUST be last structure member! */
3829} DOFObjectID_t;

3831typedef DOFObjectID_t *DOFObjectID;

3833typedef uint8_t                        DOFObjectIDAttributeDataSize;

3835typedef struct DOFObjectIDAttribute_t
3836{
  uint8_t                         id;         /**< Attribute Identifier.  Intentionally defined as uint8 for size, but holds all valid values for DOFObjectIDAttributeType.  **/
  DOFObjectIDAttributeDataSize   dataSize;    /**< Size of the attribute data. **/
  const uint8_t *data;                         /**< Attribute data. **/
3840} DOFObjectIDAttribute;

3842/**
3843* Read variable-length value from buffer.
3844*
3845* @param maxSize   [in]        Maximum size of value to be read
3846* @param bufLength [in,out]    Input: size of buffer, output: size of value in buffer
3847* @param buffer    [in]        Actual buffer
3848* @return                      Uncompressed value if buffer size is valid (or 0 on error)
3849*/
3850static uint32_t OALMarshal_UncompressValue(uint8_t maxSize, uint32_t *bufLength, const uint8_t *buffer)
3851{
  uint32_t value = 0;
  uint8_t used = 0;
  uint8_t size = maxSize;
  uint8_t mask;

  switch (buffer[0] >> 6)
  {
  case 0x02:
      /* Two Bytes */
      if (maxSize > 2)
          mask = 0x3F;
      else
          mask = 0x7F;
      size = 2;
      break;

  case 0x03:
      /* Three/Four Bytes */
      if (maxSize > 2)
          mask = 0x3F;
      else
          mask = 0x7F;
      break;

  default:
      /* One Byte */
      size = 1;
      mask = 0x7F;
      break;
  }

  /* Sanity check */
  if (size > *bufLength)
      return 0;

  value = buffer[used++] & mask;
  while (used < size)
      value = (value << 8) | buffer[used++];

  *bufLength = used;
  return (value);
3893}

3895static uint32_t DOFObjectID_GetClassSize(DOFObjectID self)
3896{
  uint32_t size = self->len;

  (void)OALMarshal_UncompressValue(DOFOBJECTID_MAX_CLASS_SIZE(4), &size, self->oid);

  return size;
3902}

3904static uint32_t DOFObjectID_GetDataSize(const DOFObjectID self)
3905{
  return ((*((const uint8_t *)self->oid + DOFObjectID_GetClassSize(self))) & OID_DATA_LEN_MASK((63)));
3907}

3909static uint32_t ObjectID_DataToString(const uint8_t *data, uint32_t dataSize, char *pBuf)
3910{
  uint32_t len = 0, i, nonprintable, escaped;

  /* Determine if the data is printable... */
  for (i = 0, nonprintable = 0, escaped = 0; i < dataSize; i++)
  {
      if (!IS_PRINTABLE(data[i])( ((uint8_t)data[i]) >= 32U && ((uint8_t)data[i]) <
 127U ))
          nonprintable++;
      else if (IS_ESCAPED(data[i])( (data[i]) == '(' || (data[i]) == ')' || (data[i]) == '[' ||
 (data[i]) == ']' || (data[i]) == '{' || (data[i]) == '}' || (
data[i]) == '\\' || (data[i]) == '|' ))
          escaped++;
  }
  if (nonprintable == 0)
  {
      /* Printable, so copy as a string, escaping where necessary. */
      if (pBuf)
      {
          for (i = 0; i < dataSize; i++)
          {
              if (IS_ESCAPED(data[i])( (data[i]) == '(' || (data[i]) == ')' || (data[i]) == '[' ||
 (data[i]) == ']' || (data[i]) == '{' || (data[i]) == '}' || (
data[i]) == '\\' || (data[i]) == '|' ))
              {
                  pBuf[len++] = '\\';
                  pBuf[len++] = data[i];
              }
              else
                  pBuf[len++] = data[i];
          }
      }
      else
      {
          len = dataSize + escaped; /* Count escaped characters twice. */
      }
  }
  else
  {
      /* Non-printable, so format as hex string. */
      if (pBuf)
      {
          pBuf[len++] = '{';
          for (i = 0; i < dataSize; i++)
          {
              pBuf[len++] = OALString_HexDigitToChar((data[i] >> 4) & 0x0F)(OALString_HexChar[((data[i] >> 4) & 0x0F)]);
              pBuf[len++] = OALString_HexDigitToChar((data[i]) & 0x0F)(OALString_HexChar[((data[i]) & 0x0F)]);
          }
          pBuf[len++] = '}';
      }
      else
      {
          len = dataSize * 2 + 2;
      }
  }
  return len;
3961}

3963static const uint8_t* DOFObjectID_GetData(const DOFObjectID self)
3964{
  if (DOFObjectID_GetDataSize(self) > 0)
      return (const uint8_t *)self->oid + DOFObjectID_GetClassSize(self) + 1;          /* 1: length of length byte. */

  return NULL((void*)0);
3969}

3971static uint32_t DOFObjectID_GetIDClass(const DOFObjectID self)
3972{
  uint32_t size = 4;

  return OALMarshal_UncompressValue(DOFOBJECTID_MAX_CLASS_SIZE(4), &size, self->oid);
3976}

3978static bool_Bool DOFObjectID_HasAttributes(const DOFObjectID self)
3979{
  if (!self)
      return false0;

  /* bit 7: next attribute flag. */
  return (bool_Bool)(((*(const uint8_t *)((const uint8_t *)(self->oid) + DOFObjectID_GetClassSize(self))) & 0x80) != 0);
3985}

3987static uint8_t DOFObjectID_GetBaseSize(const DOFObjectID oid)
3988{
  return DOFObjectID_GetClassSize(oid) + 1 + DOFObjectID_GetDataSize(oid);
3990}

3992static uint8_t DOFObjectID_GetAttributeCount(const DOFObjectID self)
3993{
  uint8_t retVal = 0;

  /* Note: No OID can duplicate an attribute ID. Legal attribute IDs can be from 0-126. So max count fits in uint8. */
  if (self && DOFObjectID_HasAttributes(self))
  {
      const uint8_t *pNextAttribute = (const uint8_t *)self->oid + DOFObjectID_GetBaseSize(self);

      ++retVal;
      while (*pNextAttribute & 0x80)                                         /* bit 7: next attribute present flag. */
      {
          ++retVal;
          pNextAttribute += (2 + *((const uint8_t *)pNextAttribute + 1));      /* 2: attribute marshalling overhead. */
      }
  }

  return retVal;
4010}

4012static DOFObjectIDAttribute DOFObjectID_GetAttributeAtIndex(const DOFObjectID self, uint8_t attribute_index)
4013{
  DOFObjectIDAttribute retAttributeDescriptor = { DOFOBJECTIDATTRIBUTE_INVALID, 0, NULL((void*)0) };

  /* Note: No OID can duplicate an attribute ID. Legal attribute IDs can be from 0-127. So max index fits in uint8. */
  if (self && attribute_index < DOFOBJECTIDATTRIBUTE_INVALID)
  {
      if (DOFObjectID_HasAttributes(self))
      {
          uint8_t        count = 0;
          const uint8_t *pNextAttribute = (const uint8_t *)self->oid + DOFObjectID_GetBaseSize(self);

          while (1)                                           /* Parse through the N Attributes. */
          {
              if (attribute_index == count++)
              {
                  retAttributeDescriptor.id = *pNextAttribute & 0x7F;
                  retAttributeDescriptor.dataSize = (DOFObjectIDAttributeDataSize) * ((const uint8_t *)pNextAttribute + 1);
                  retAttributeDescriptor.data = (const uint8_t *)pNextAttribute + 2; /* 2: attr marshalling overhead. */
                  break;                                      /* Success. */
              }
              if (!(*pNextAttribute & 0x80))
                  break;                                      /* Fail: no more Attributes */
              pNextAttribute += (2 + *((const uint8_t *)pNextAttribute + 1));
          }
      }
  }

  return retAttributeDescriptor;
4041}

4043static void DOFObjectID_Destroy(DOFObjectID self _U___attribute__((unused)))
4044{
  /* Ephemeral memory doesn't need to be freed. */
4046}

4048static void DOFObjectID_InitStruct(DOFObjectID newObjID, uint32_t dataLen)
4049{
  newObjID->refCount = 1;
  newObjID->len = dataLen;
4052}

4054static DOFObjectID DOFObjectID_Create_Unmarshal(wmem_allocator_t* allocator, uint32_t *length, const uint8_t *buffer)
4055{
  uint32_t len = *length;

  /* Legal OID described at buffer must have at least 2 bytes. */
  if (buffer && len >= 2)
  {
      uint32_t classSize = len;
      uint32_t classv = OALMarshal_UncompressValue(DOFOBJECTID_MAX_CLASS_SIZE(4), &classSize, buffer);

      /* Legal OID described at buffer must have its class representation be correctly compressed. */
      if (1)
      {
          uint32_t computedSize;

          /* Above call won't return 3 because DOFOBJECTID_MAX_CLASS_SIZE (4) was passed in. */
          computedSize = classSize + 1;                              /* 1: length of length byte. */
          /* Legal OID described at buffer must have enough bytes to describe its OID class. */
          if (len >= computedSize)
          {
              uint8_t lenByte = buffer[classSize];

              /* Legal OID described at buffer must have its length byte bit 6 be 0. */
              if (!(lenByte & 0x40))
              {
                  bool_Bool hasAttr;
                  uint8_t  dataLen = lenByte & OID_DATA_LEN_MASK((63));

                  /* Legal broadcast OID described at buffer must have no base data, though it can have attribute(s)*/
                  if ((classv == 0) && (dataLen > 0))
                      goto notvalid;
                  computedSize += dataLen;
                  hasAttr = lenByte & 0x80;                       /* Valid OID base; check attributes. */
                  while (hasAttr)
                  {
                      /* Legal OID described at buffer must have enough bytes to hold each new found attribute. */
                      if (len >= computedSize + 2)                /* 2: attribute marshalling overhead. */
                      {
                          hasAttr = buffer[computedSize] & 0x80;  /* bit 7: next attribute present flag. */
                          computedSize += (2 + buffer[computedSize + 1]);
                      }
                      else
                          goto notvalid;
                  }
                  /* Legal OID described at buffer must have enough buffer bytes, final check.
                   * len is stored in a uint16_t; reject anything that would truncate it.
                   */
                  if (computedSize > UINT16_MAX(65535))
                      goto notvalid;
                  if (len >= computedSize)
                  {
                      DOFObjectID newObjID = (DOFObjectID)wmem_alloc0(allocator, sizeof(DOFObjectID_t) + (sizeof(uint8_t) * (computedSize + 1)));
                      /* Adds space for null-terminator, just in case. */

                      *length = computedSize;
                      if (newObjID)
                      {
                          DOFObjectID_InitStruct(newObjID, computedSize);
                          memcpy(newObjID->oid, buffer, computedSize);
                          newObjID->oid[computedSize] = 0;
                          return newObjID;                    /* Success. */
                      }
                      /* buffer describes valid OID, but due to alloc failure we cannot return the newly created OID*/
                      goto allocErrorOut;
                  }
              }
          }
      }
  }
4123notvalid:
  /* buffer does not describe a valid OID, but do not log a message. The caller may have called us to find out if the
  buffer does or does not obey the rules of a valid OID. He learns that by our NULL return. */
4126allocErrorOut :
  *length = 0;

  return NULL((void*)0);
4130}

4132static DOFObjectID DOFObjectID_Create_Bytes(wmem_allocator_t* allocator, uint32_t bufferSize, const uint8_t *pOIDBuffer)
4133{
  uint32_t     len = bufferSize;
  DOFObjectID rval = DOFObjectID_Create_Unmarshal(allocator, &len, pOIDBuffer);

  if (rval)
  {
      if (len != bufferSize)
      {
          DOFObjectID_Destroy(rval);
          rval = NULL((void*)0);
      }
  }
  return rval;
4146}

4148// NOLINTNEXTLINE(misc-no-recursion)
4149static uint32_t ObjectID_ToStringLength(const DOFObjectID oid, packet_info *pinfo)
4150{
  uint32_t len = 0;

  /* Note: All these string functions can be exercised with objectid_test.c, which outputs the string to console. */
  len = 7 /* [{xx}: and trailing ] */ + ObjectID_DataToStringLength(DOFObjectID_GetData(oid),ObjectID_DataToString( (DOFObjectID_GetData(oid)), (DOFObjectID_GetDataSize
(oid)), ((void*)0) )
                                                                    DOFObjectID_GetDataSize(oid))ObjectID_DataToString( (DOFObjectID_GetData(oid)), (DOFObjectID_GetDataSize
(oid)), ((void*)0) );
  if (DOFObjectID_GetIDClass(oid) & 0xFF000000)
      len += 6;                                           /* Six more hex digits. */
  else if (DOFObjectID_GetIDClass(oid) & 0xFF0000)
      len += 4;                                           /* Four more hex digits. */
  else if (DOFObjectID_GetIDClass(oid) & 0xFF00)
      len += 2;                                           /* Two more hex digits. */
  increment_dissection_depth(pinfo);
  /* Handle Attributes, if any. */
  if (DOFObjectID_HasAttributes(oid))
  {
      uint8_t i;                                            /* Max attribute count is under uint8. */
      uint8_t attributeCount = DOFObjectID_GetAttributeCount(oid);

      len += 2;                                           /* surrounding ( ) */
      for (i = 0; i < attributeCount; i++)
      {
          DOFObjectID embedOID;
          DOFObjectIDAttribute avpDescriptor = DOFObjectID_GetAttributeAtIndex(oid, i);

          if (!DOFObjectIDAttribute_IsValid(avpDescriptor)((avpDescriptor).id < DOFOBJECTIDATTRIBUTE_INVALID))
              break;  /* Done with Attributes. If here, some error took place. */

          if (i)
              len++;
          len += 5;  /* {xx}: */
          /* Handle embedded Object IDs. */
          embedOID = DOFObjectID_Create_Bytes(pinfo->pool, DOFObjectIDAttribute_GetValueSize(avpDescriptor)((avpDescriptor).dataSize),
                                              DOFObjectIDAttribute_GetValue(avpDescriptor)((avpDescriptor).data));
          if (embedOID)
          {
              len += ObjectID_ToStringLength(embedOID, pinfo); /* Recurse to compute string rep length of found OID. */
              DOFObjectID_Destroy(embedOID);
          }
          else
          {
              /* Hex Data. */
              len += ObjectID_DataToStringLength(DOFObjectIDAttribute_GetValue(avpDescriptor),ObjectID_DataToString( (((avpDescriptor).data)), (((avpDescriptor
).dataSize)), ((void*)0) )
                                                 DOFObjectIDAttribute_GetValueSize(avpDescriptor))ObjectID_DataToString( (((avpDescriptor).data)), (((avpDescriptor
).dataSize)), ((void*)0) );
          }
      } /* end for(). */
  }
  decrement_dissection_depth(pinfo);

  return len;
4200}

4202static uint32_t InterfaceID_ToString(const uint8_t *iid, uint32_t iid_size, char *pBuf)
4203{
  uint32_t          len = 0;
  unsigned iid_len = iid[0] & 0x03;
  unsigned i;

  /* Same lengths as in oap_1_tree_add_interface */
  if (iid_len == 0)
      iid_len = 16;
  else if (iid_len == 3)
      iid_len = 4;
  if (iid_len > iid_size - 1)
      iid_len = iid_size - 1;

  pBuf[len++] = '[';
  pBuf[len++] = '{';

  pBuf[len++] = OALString_HexDigitToChar((iid[0] >> 6) & 0x0F)(OALString_HexChar[((iid[0] >> 6) & 0x0F)]);
  pBuf[len++] = OALString_HexDigitToChar((iid[0] >> 2) & 0x0F)(OALString_HexChar[((iid[0] >> 2) & 0x0F)]);

  pBuf[len++] = '}';
  pBuf[len++] = ':';
  pBuf[len++] = '{';

  /* Data */
  for (i = 0; i < iid_len; i++)
  {
      pBuf[len++] = OALString_HexDigitToChar((iid[i + 1] >> 4) & 0x0F)(OALString_HexChar[((iid[i + 1] >> 4) & 0x0F)]);
      pBuf[len++] = OALString_HexDigitToChar(iid[i + 1] & 0x0F)(OALString_HexChar[(iid[i + 1] & 0x0F)]);
  }

  pBuf[len++] = '}';
  pBuf[len++] = ']';

  return len;
4237}

4239// NOLINTNEXTLINE(misc-no-recursion)
4240static uint32_t ObjectID_ToString(const DOFObjectID oid, char *pBuf, packet_info *pinfo)
4241{
  DOFObjectIDClass oidClass;
  uint32_t          len = 0;

  pBuf[len++] = '[';
  pBuf[len++] = '{';
  /* Class */
  oidClass = DOFObjectID_GetIDClass(oid);
  if (oidClass & 0xFF000000)
  {
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 28) & 0x0F)(OALString_HexChar[((oidClass >> 28) & 0x0F)]);
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 24) & 0x0F)(OALString_HexChar[((oidClass >> 24) & 0x0F)]);
  }
  if (oidClass & 0xFFFF0000)
  {
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 20) & 0x0F)(OALString_HexChar[((oidClass >> 20) & 0x0F)]);
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 16) & 0x0F)(OALString_HexChar[((oidClass >> 16) & 0x0F)]);
  }
  if (oidClass & 0xFFFFFF00)
  {
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 12) & 0x0F)(OALString_HexChar[((oidClass >> 12) & 0x0F)]);
      pBuf[len++] = OALString_HexDigitToChar((oidClass >> 8) & 0x0F)(OALString_HexChar[((oidClass >> 8) & 0x0F)]);
  }
  pBuf[len++] = OALString_HexDigitToChar((oidClass >> 4) & 0x0F)(OALString_HexChar[((oidClass >> 4) & 0x0F)]);
  pBuf[len++] = OALString_HexDigitToChar((oidClass) & 0x0F)(OALString_HexChar[((oidClass) & 0x0F)]);
  pBuf[len++] = '}';
  pBuf[len++] = ':';
  /* Data */
  len += ObjectID_DataToString(DOFObjectID_GetData(oid), DOFObjectID_GetDataSize(oid), &pBuf[len]);
  /* Handle Attributes, if any. */
  if (DOFObjectID_HasAttributes(oid))
  {
      uint8_t i;
      uint8_t attributeCount = DOFObjectID_GetAttributeCount(oid);

      pBuf[len++] = '(';
      for (i = 0; i < attributeCount; i++)
      {
          DOFObjectID embedOID;
          DOFObjectIDAttribute avpDescriptor = DOFObjectID_GetAttributeAtIndex(oid, i);

          if (!DOFObjectIDAttribute_IsValid(avpDescriptor)((avpDescriptor).id < DOFOBJECTIDATTRIBUTE_INVALID))
              break;  /* Done with Attributes. If here, some error took place. */

          if (i)
              pBuf[len++] = '|';
          pBuf[len++] = '{';
          pBuf[len++] = OALString_HexDigitToChar((DOFObjectIDAttribute_GetType(avpDescriptor) >> 4) & 0x0F)(OALString_HexChar[((((DOFObjectIDAttributeType)(avpDescriptor
).id) >> 4) & 0x0F)]);
          pBuf[len++] = OALString_HexDigitToChar((DOFObjectIDAttribute_GetType(avpDescriptor)) & 0x0F)(OALString_HexChar[((((DOFObjectIDAttributeType)(avpDescriptor
).id)) & 0x0F)]);
          pBuf[len++] = '}';
          pBuf[len++] = ':';

          /* Handle embedded Object IDs. */
          embedOID = DOFObjectID_Create_Bytes(pinfo->pool, DOFObjectIDAttribute_GetValueSize(avpDescriptor)((avpDescriptor).dataSize),
                                              DOFObjectIDAttribute_GetValue(avpDescriptor)((avpDescriptor).data));
          if (embedOID)
          {
              increment_dissection_depth(pinfo);
              len += ObjectID_ToString(embedOID, &pBuf[len], pinfo); /* Recurse to output string rep of found OID. */
              decrement_dissection_depth(pinfo);
              DOFObjectID_Destroy(embedOID);
          }
          else
          {
              /* Hex Data. */
              len += ObjectID_DataToString(DOFObjectIDAttribute_GetValue(avpDescriptor)((avpDescriptor).data),
                                           DOFObjectIDAttribute_GetValueSize(avpDescriptor)((avpDescriptor).dataSize), &pBuf[len]);
          }
      } /* end for(). */
      pBuf[len++] = ')';
  }
  pBuf[len++] = ']';

  return len;
4315}

4317static const char* dof_iid_create_standard_string(wmem_allocator_t* allocator, uint32_t bufferSize, const uint8_t *pIIDBuffer)
4318{
  char *pRetval;
  unsigned len = 9 + (bufferSize - 1) * 2;   /* Alias is always [{AA}:{01234567}] */

  pRetval = (char *)wmem_alloc(allocator, len + 1);
  if (pRetval)
  {
      len = InterfaceID_ToString(pIIDBuffer, bufferSize, pRetval);
      pRetval[len] = 0;
  }

  return pRetval;
4330}

4332static const char* dof_oid_create_standard_string(wmem_allocator_t* allocator, uint32_t bufferSize, const uint8_t *pOIDBuffer, packet_info *pinfo)
4333{
  DOFObjectID oid;
  char *pRetval;
  uint32_t len = bufferSize;

  oid = DOFObjectID_Create_Unmarshal(allocator, &len, pOIDBuffer);
  if (!oid)
      return "Illegal OID";

  len = ObjectID_ToStringLength(oid, pinfo);
  /* Use PCRMem_Alloc() and not DOFMem_Alloc() because app caller will be freeing memory with PCRMem_Destroy(). */
  pRetval = (char *)wmem_alloc(allocator, len + 1);
  if (pRetval)
  {
      ObjectID_ToString(oid, pRetval, pinfo);
      pRetval[len] = 0;
  }

  return pRetval;
4352}

4354struct parseCtx
4355{
  const char *oid;
  uint8_t *buffer;
  uint32_t buffLen;
  uint32_t oidLen;
  uint32_t currOidPos;
  uint32_t currBufferPos;
  unsigned depth;
4363};

4365/* Operations on OID string */
4366#define PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) ( (ctx)->oid[(ctx)->currOidPos] )
4367#define PARSECTX_PEEK_NEXT_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos+1] ) ( (ctx)->oid[(ctx)->currOidPos+1] )
4368#define PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) ( (ctx)->oid[(ctx)->currOidPos++] )
4369#define PARSECTX_GET_CURRENT_POS_OID(ctx)( (ctx)->oid+(ctx)->currOidPos ) ( (ctx)->oid+(ctx)->currOidPos )
4370#define PARSECTX_STEP_OID(ctx, count)((ctx)->currOidPos+=(count))((ctx)->currOidPos+=(count))

4372/* Operations on DOFObjectID buffer */
4373#define PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) )( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos: NULL((void*)0) )
4374#define PARSECTX_STEP_BUF(ctx, count)( (ctx)->currBufferPos+=(count))( (ctx)->currBufferPos+=(count))
4375#define PARSECTX_WRITE_AT_POS_BUF(ctx, pos, value)do{ if((ctx)->buffer) *(pos) = (value); } while(0) do{ if((ctx)->buffer) *(pos) = (value); } while(0)
4376#define PARSECTX_OR_AT_POS_BUF(ctx, pos, value)do{ if((ctx)->buffer) *(pos) |= (value); } while(0) do{ if((ctx)->buffer) *(pos) |= (value); } while(0)
4377#define PARSECTX_WRITE_BUF(ctx, value)( ((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (value): (ctx)->currBufferPos++ )( ((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos++] = (value): (ctx)->currBufferPos++ )
4378#define PARSECTX_CHECK_LEN(ctx, len)(((ctx)->buffer)? (((ctx)->currBufferPos+len <= (ctx
)->buffLen)? 0: 1): 0) (((ctx)->buffer)? (((ctx)->currBufferPos+len <= (ctx)->buffLen)? 0: 1): 0)

4380/* Operation to read from OID straight to buffer */
4381#define PARSECTX_WRITE_BUF_FROM_OID(ctx)(((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (ctx)->oid[(ctx)->currOidPos]: ((ctx)->currBufferPos
++),((ctx)->currOidPos++)) (((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos++] = (ctx)->oid[(ctx)->currOidPos]: ((ctx)->currBufferPos++),((ctx)->currOidPos++))

4383#define IS_DIGIT(c)(((c) >= '0' && (c) <= '9')) (((c) >= '0' && (c) <= '9'))
4384#define DIGIT2VALUE(c)(c-48) (c-48)

4386#define HEX2VALUE(c)( ((((c) >= '0' && (c) <= '9')))? (c-48) : ((c)
 >= 'A' && (c) <= 'F')? (c-55): (c-87) ) ( (IS_DIGIT(c)(((c) >= '0' && (c) <= '9')))? DIGIT2VALUE(c)(c-48) : ((c) >= 'A' && (c) <= 'F')? (c-55): (c-87) )
4387#define VALIDHEXSEP(c)( (c) == ' ' || (c) == ':' || (c) == '-' ) ( (c) == ' ' || (c) == ':' || (c) == '-' )
4388#define VALIDHEX(c)( ((c) >= '0' && (c) <= '9') || ((c) >= 'A' &&
 (c) <= 'F') || ((c) >= 'a' && (c) <= 'f') ) ( ((c) >= '0' && (c) <= '9') || ((c) >= 'A' && (c) <= 'F') || ((c) >= 'a' && (c) <= 'f') )
4389#define VALIDHEXBYTE(s)( ( (((s)[0]) >= '0' && ((s)[0]) <= '9') || (((
s)[0]) >= 'A' && ((s)[0]) <= 'F') || (((s)[0]) >=
 'a' && ((s)[0]) <= 'f') ) && ( (((s)[1]) >=
 '0' && ((s)[1]) <= '9') || (((s)[1]) >= 'A' &&
 ((s)[1]) <= 'F') || (((s)[1]) >= 'a' && ((s)[1
]) <= 'f') ) ) ( VALIDHEX((s)[0])( (((s)[0]) >= '0' && ((s)[0]) <= '9') || (((s)
[0]) >= 'A' && ((s)[0]) <= 'F') || (((s)[0]) >=
 'a' && ((s)[0]) <= 'f') ) && VALIDHEX((s)[1])( (((s)[1]) >= '0' && ((s)[1]) <= '9') || (((s)
[1]) >= 'A' && ((s)[1]) <= 'F') || (((s)[1]) >=
 'a' && ((s)[1]) <= 'f') ) )
4390#define VALIDNUMBER(c)((c) >= '0' && (c) <= '9') ((c) >= '0' && (c) <= '9')

4392#define VALIDASCIICHAR(c)(((uint8_t)c) >= 32 && ((uint8_t)c) <= 126 ) (((uint8_t)c) >= 32 && ((uint8_t)c) <= 126 )

4394#define IS_ESCAPED(c)( (c) == '(' || (c) == ')' || (c) == '[' || (c) == ']' || (c)
 == '{' || (c) == '}' || (c) == '\\' || (c) == '|' ) ( (c) == '(' || (c) == ')' || (c) == '[' || (c) == ']' || (c) == '{' || (c) == '}' || (c) == '\\' || (c) == '|' )

4396static uint8_t parseFormatOID(struct parseCtx *ctx);

4398static uint8_t parseHexField(struct parseCtx *ctx)
4399{
  /* Hex fields start with { and end with } can contain space, dash and colon*/
  if (PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) == '{' && PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) != '}')
  {
      while (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) != '}')
      {
          if (VALIDHEXBYTE(PARSECTX_GET_CURRENT_POS_OID(ctx))( ( (((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= '0' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= '9') || (
((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= 'A' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= 'F') || (
((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= 'a' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= 'f') ) &&
 ( (((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= '0' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= '9') || (
((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= 'A' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= 'F') || (
((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= 'a' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= 'f') ) ))
          {
              if (PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) == 0)
              {
                  PARSECTX_WRITE_BUF(ctx, HEX2VALUE(PARSECTX_PEEK_CHAR_OID(ctx)) << 4 | HEX2VALUE(PARSECTX_PEEK_NEXT_CHAR_OID(ctx)))( ((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (( ((((( (ctx)->oid[(ctx)->currOidPos] )) >= '0'
 && (( (ctx)->oid[(ctx)->currOidPos] )) <= '9'
)))? (( (ctx)->oid[(ctx)->currOidPos] )-48) : ((( (ctx)
->oid[(ctx)->currOidPos] )) >= 'A' && (( (ctx
)->oid[(ctx)->currOidPos] )) <= 'F')? (( (ctx)->oid
[(ctx)->currOidPos] )-55): (( (ctx)->oid[(ctx)->currOidPos
] )-87) ) << 4 | ( ((((( (ctx)->oid[(ctx)->currOidPos
+1] )) >= '0' && (( (ctx)->oid[(ctx)->currOidPos
+1] )) <= '9')))? (( (ctx)->oid[(ctx)->currOidPos+1]
 )-48) : ((( (ctx)->oid[(ctx)->currOidPos+1] )) >= 'A'
 && (( (ctx)->oid[(ctx)->currOidPos+1] )) <=
 'F')? (( (ctx)->oid[(ctx)->currOidPos+1] )-55): (( (ctx
)->oid[(ctx)->currOidPos+1] )-87) )): (ctx)->currBufferPos
++ );
                  PARSECTX_STEP_OID(ctx, 2)((ctx)->currOidPos+=(2));

                  if (VALIDHEXSEP(PARSECTX_PEEK_CHAR_OID(ctx))( (( (ctx)->oid[(ctx)->currOidPos] )) == ' ' || (( (ctx
)->oid[(ctx)->currOidPos] )) == ':' || (( (ctx)->oid
[(ctx)->currOidPos] )) == '-' ))
                  {
                      if (PARSECTX_PEEK_NEXT_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos+1] ) == '}')
                      {
                          /* no separator after byte block */
                          return 1;
                      }
                      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
                  }
              }
              else
              {
                  return 1;
              }
          }
          else
          {
              return 1;
          }
      }
      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      return 0;
  }
  return 1;
4436}

4438static uint8_t parseStringField(struct parseCtx *ctx)
4439{
  /* Copy into buffer until end or */
  while (ctx->currOidPos < (ctx->oidLen - 1))
  {
      char curr = PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] );
      if (curr == ']' || curr == '(')
      {
          break; /* End of string field */
      }
      else if (curr == '\\')
      {
          /* Handle escaped char */
          PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
          if (!IS_ESCAPED(PARSECTX_PEEK_CHAR_OID(ctx))( (( (ctx)->oid[(ctx)->currOidPos] )) == '(' || (( (ctx
)->oid[(ctx)->currOidPos] )) == ')' || (( (ctx)->oid
[(ctx)->currOidPos] )) == '[' || (( (ctx)->oid[(ctx)->
currOidPos] )) == ']' || (( (ctx)->oid[(ctx)->currOidPos
] )) == '{' || (( (ctx)->oid[(ctx)->currOidPos] )) == '}'
 || (( (ctx)->oid[(ctx)->currOidPos] )) == '\\' || (( (
ctx)->oid[(ctx)->currOidPos] )) == '|' ) || PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) != 0)
              return 1;
          PARSECTX_WRITE_BUF_FROM_OID(ctx)(((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (ctx)->oid[(ctx)->currOidPos]: ((ctx)->currBufferPos
++),((ctx)->currOidPos++));
      }
      else
      {
          if (VALIDASCIICHAR(curr)(((uint8_t)curr) >= 32 && ((uint8_t)curr) <= 126
 ) && PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) == 0)
              PARSECTX_WRITE_BUF_FROM_OID(ctx)(((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (ctx)->oid[(ctx)->currOidPos]: ((ctx)->currBufferPos
++),((ctx)->currOidPos++));
          else
              return 1;
      }
  }
  return 0;
4465}

4467static uint8_t OALMarshal_GetCompressedValueSize(uint8_t maxSize, uint32_t value)
4468{
  uint8_t lenbytes = (1 + (value > 0x7F) + (value > 0x3FFF));
  if (lenbytes > 2)
      return (maxSize);
  return (lenbytes);
4473}

4475static uint32_t OALMarshal_CompressValue(uint8_t maxSize, uint32_t value, uint32_t bufLength, uint8_t *buffer)
4476{
  uint8_t lenSize = OALMarshal_GetCompressedValueSize(maxSize, value);

  if (bufLength < lenSize)
      return 0;
  switch (lenSize)
  {
  case 4:
      *(buffer++) = (uint8_t)((value >> 24) & 0x3F) | 0xC0;
      *(buffer++) = (uint8_t)((value >> 16) & 0xFF);
      *(buffer++) = (uint8_t)((value >> 8) & 0xFF);
      *(buffer++) = (uint8_t)(value & 0xFF);
      break;

  case 3:
      *(buffer++) = (uint8_t)((value >> 16) & 0x3F) | 0xC0;
      *(buffer++) = (uint8_t)((value >> 8) & 0xFF);
      *(buffer++) = (uint8_t)(value & 0xFF);
      break;

  case 2:
      if (maxSize == 2)
      {
          *(buffer++) = (uint8_t)((value >> 8) & 0x7F) | 0x80;
      }
      else
      {
          *(buffer++) = (uint8_t)((value >> 8) & 0x3F) | 0x80;
      }
      *(buffer++) = (uint8_t)(value & 0xFF);
      break;

  case 1:
      *(buffer++) = (uint8_t)(value & 0x7F);
      break;

  default:
      /* Invalid computed size! */
      break;
  }
  return (lenSize);
4517}

4519static uint8_t parseOIDClass(struct parseCtx *ctx)
4520{
  if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '{' && PARSECTX_PEEK_NEXT_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos+1] ) != '}')
  {
      /* Hex */
      uint8_t classSize = 0;
      uint32_t oidClass = 0;
      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      while (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) != '}')
      {
          if (VALIDHEXBYTE(PARSECTX_GET_CURRENT_POS_OID(ctx))( ( (((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= '0' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= '9') || (
((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= 'A' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= 'F') || (
((( (ctx)->oid+(ctx)->currOidPos ))[0]) >= 'a' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[0]) <= 'f') ) &&
 ( (((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= '0' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= '9') || (
((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= 'A' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= 'F') || (
((( (ctx)->oid+(ctx)->currOidPos ))[1]) >= 'a' &&
 ((( (ctx)->oid+(ctx)->currOidPos ))[1]) <= 'f') ) ))
          {
              oidClass <<= 8;
              oidClass += (HEX2VALUE(PARSECTX_PEEK_CHAR_OID(ctx))( ((((( (ctx)->oid[(ctx)->currOidPos] )) >= '0' &&
 (( (ctx)->oid[(ctx)->currOidPos] )) <= '9')))? (( (
ctx)->oid[(ctx)->currOidPos] )-48) : ((( (ctx)->oid[
(ctx)->currOidPos] )) >= 'A' && (( (ctx)->oid
[(ctx)->currOidPos] )) <= 'F')? (( (ctx)->oid[(ctx)->
currOidPos] )-55): (( (ctx)->oid[(ctx)->currOidPos] )-87
) ) << 4 | HEX2VALUE(PARSECTX_PEEK_NEXT_CHAR_OID(ctx))( ((((( (ctx)->oid[(ctx)->currOidPos+1] )) >= '0' &&
 (( (ctx)->oid[(ctx)->currOidPos+1] )) <= '9')))? ((
 (ctx)->oid[(ctx)->currOidPos+1] )-48) : ((( (ctx)->
oid[(ctx)->currOidPos+1] )) >= 'A' && (( (ctx)->
oid[(ctx)->currOidPos+1] )) <= 'F')? (( (ctx)->oid[(
ctx)->currOidPos+1] )-55): (( (ctx)->oid[(ctx)->currOidPos
+1] )-87) ));
              PARSECTX_STEP_OID(ctx, 2)((ctx)->currOidPos+=(2));

              if (VALIDHEXSEP(PARSECTX_PEEK_CHAR_OID(ctx))( (( (ctx)->oid[(ctx)->currOidPos] )) == ' ' || (( (ctx
)->oid[(ctx)->currOidPos] )) == ':' || (( (ctx)->oid
[(ctx)->currOidPos] )) == '-' ))
              {
                  if (PARSECTX_PEEK_NEXT_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos+1] ) == '}')
                  {
                      /* no separator after byte block */
                      return 1;
                  }
                  PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
              }
          }
          else
          {
              return 1;
          }
      }
      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));

      classSize = OALMarshal_GetCompressedValueSize(4, oidClass);
      if (PARSECTX_CHECK_LEN(ctx, classSize)(((ctx)->buffer)? (((ctx)->currBufferPos+classSize <=
 (ctx)->buffLen)? 0: 1): 0) == 0)
      {
          if (PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) ))
              classSize = OALMarshal_CompressValue(4, oidClass, classSize, PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) ));

          PARSECTX_STEP_BUF(ctx, classSize)( (ctx)->currBufferPos+=(classSize));
      }

      return 0;
  }
  else
  {
      /* Number */
      uint8_t classSize = 0;
      uint32_t oidClass = 0;
      while (IS_DIGIT(PARSECTX_PEEK_CHAR_OID(ctx))(((( (ctx)->oid[(ctx)->currOidPos] )) >= '0' &&
 (( (ctx)->oid[(ctx)->currOidPos] )) <= '9')))
      {
          oidClass *= 10;
          oidClass += DIGIT2VALUE(PARSECTX_PEEK_CHAR_OID(ctx))(( (ctx)->oid[(ctx)->currOidPos] )-48);
          PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      }

      classSize = OALMarshal_GetCompressedValueSize(4, oidClass);
      if (PARSECTX_CHECK_LEN(ctx, classSize)(((ctx)->buffer)? (((ctx)->currBufferPos+classSize <=
 (ctx)->buffLen)? 0: 1): 0) == 0)
      {
          if (PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) ))
              classSize = OALMarshal_CompressValue(4, oidClass, classSize, PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) ));

          PARSECTX_STEP_BUF(ctx, classSize)( (ctx)->currBufferPos+=(classSize));
      }

      return 0;
  }
4586}

4588static uint8_t parseAttributeID(struct parseCtx *ctx)
4589{
  if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '{')
  {
      return parseHexField(ctx);
  }
  else
  {
      uint8_t avpid = 0;
      while (IS_DIGIT(PARSECTX_PEEK_CHAR_OID(ctx))(((( (ctx)->oid[(ctx)->currOidPos] )) >= '0' &&
 (( (ctx)->oid[(ctx)->currOidPos] )) <= '9')))
      {
          avpid *= 10;
          avpid += DIGIT2VALUE(PARSECTX_PEEK_CHAR_OID(ctx))(( (ctx)->oid[(ctx)->currOidPos] )-48);
          PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      }

      if (PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) == 0)
      {
          PARSECTX_WRITE_BUF(ctx, avpid)( ((ctx)->buffer)? (ctx)->buffer[(ctx)->currBufferPos
++] = (avpid): (ctx)->currBufferPos++ );
          return 0;
      }
  }
  return 1;
4611}

4613// NOLINTNEXTLINE(misc-no-recursion)
4614static uint8_t parseAttributeData(struct parseCtx *ctx)
4615{
  uint8_t ret;
  ctx->depth++;
  /* Preference text, not packet data. A deep OID must fail the parse, not abort. */
  if (ctx->depth >= prefs.gui_max_tree_depth)
  {
      ctx->depth--;
      return 1;
  }
  if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '[')
  {
      ret = parseFormatOID(ctx);
  }
  else if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '{')
  {
      ret = parseHexField(ctx);
  }
  else
  {
      ret = parseStringField(ctx);
  }
  ctx->depth--;
  return ret;
4638}

4640// NOLINTNEXTLINE(misc-no-recursion)
4641static uint8_t parseAttribute(struct parseCtx *ctx)
4642{
  if (parseAttributeID(ctx) == 0)
  {
      /* separated by ':' */
      if (PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) == ':' && PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) == 0)
      {
          uint8_t *length = PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) );
          if (length == NULL((void*)0))
              return 0;

          PARSECTX_STEP_BUF(ctx, 1)( (ctx)->currBufferPos+=(1));

          if (parseAttributeData(ctx) == 0)
          {
              PARSECTX_WRITE_AT_POS_BUF(ctx, length, (uint8_t)(PARSECTX_GET_CURRENT_POS_BUF(ctx) - (length + 1)))do{ if((ctx)->buffer) *(length) = ((uint8_t)(( ((ctx)->
buffer)? (ctx)->buffer+(ctx)->currBufferPos: ((void*)0)
 ) - (length + 1))); } while(0);
              return 0;
          }
      }
  }
  return 1;
4662}

4664// NOLINTNEXTLINE(misc-no-recursion)
4665static uint8_t parseAttributes(struct parseCtx *ctx)
4666{
  /* AVPs surrounded by '(' ')' but needs at least an avp */
  if (PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) == '(' &&  PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) != ')')
  {
      while (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) != ')')
      {
          uint8_t *avpID = PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) );
          if (avpID == NULL((void*)0))
              return 0;

          if (parseAttribute(ctx) != 0)
              return 1;

          /* multiple separated by '|' */
          if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '|' && PARSECTX_PEEK_NEXT_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos+1] ) != ')')
          {
              PARSECTX_OR_AT_POS_BUF(ctx, avpID, 0x80)do{ if((ctx)->buffer) *(avpID) |= (0x80); } while(0); /* set that there is a next attribute */
              PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
          }
      }
      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      return 0;
  }
  return 1;
4690}

4692// NOLINTNEXTLINE(misc-no-recursion)
4693static uint8_t parseFormatOID(struct parseCtx *ctx)
4694{
  /* oid must start with '[' */
  if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '[')
  {
      PARSECTX_STEP_OID(ctx, 1)((ctx)->currOidPos+=(1));
      /* Get class id */
      if (parseOIDClass(ctx) == 0)
      {
          /* separated by ':' */
          if (PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) == ':' && PARSECTX_CHECK_LEN(ctx, 1)(((ctx)->buffer)? (((ctx)->currBufferPos+1 <= (ctx)->
buffLen)? 0: 1): 0) == 0)
          {
              uint8_t *length = PARSECTX_GET_CURRENT_POS_BUF(ctx)( ((ctx)->buffer)? (ctx)->buffer+(ctx)->currBufferPos
: ((void*)0) );
              PARSECTX_STEP_BUF(ctx, 1)( (ctx)->currBufferPos+=(1));

              /* Get data */
              if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '{')
              {
                  /* hex data */
                  if (parseHexField(ctx) != 0)
                      return 1;
              }
              else
              {
                  /* string data */
                  if (parseStringField(ctx) != 0)
                      return 1;
              }

              /* Write length */
              if (length == NULL((void*)0))
                  return 0;
              PARSECTX_WRITE_AT_POS_BUF(ctx, length, (uint8_t)(PARSECTX_GET_CURRENT_POS_BUF(ctx) - (length + 1)))do{ if((ctx)->buffer) *(length) = ((uint8_t)(( ((ctx)->
buffer)? (ctx)->buffer+(ctx)->currBufferPos: ((void*)0)
 ) - (length + 1))); } while(0);

              /* Check if attributes exist */
              if (PARSECTX_PEEK_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos] ) == '(')
              {
                  PARSECTX_OR_AT_POS_BUF(ctx, length, 0x80)do{ if((ctx)->buffer) *(length) |= (0x80); } while(0); /* set that there are attributes */
                  if (parseAttributes(ctx) != 0)
                      return 1;
              }

              /* Ends with ] */
              if (PARSECTX_READ_CHAR_OID(ctx)( (ctx)->oid[(ctx)->currOidPos++] ) == ']')
              {
                  return 0;
              }
          }
      }
  }
  return 1;
4744}

4746static uint8_t dof_oid_create_internal(const char *oid, uint32_t *size, uint8_t *buffer)
4747{
  struct parseCtx ctx = {0};

  ctx.oid = oid;
  ctx.buffer = buffer;

  if (oid)
  {
      if (size)
      {
          ctx.buffLen = (*size);
          ctx.oidLen = (uint32_t)strlen(oid);
          if (PARSECTX_PEEK_CHAR_OID(&ctx)( (&ctx)->oid[(&ctx)->currOidPos] ) == '[')
          {
              /* Format OID */
              if (parseFormatOID(&ctx) == 0)
              {
                  (*size) = ctx.currBufferPos;
                  return 0;
              }
          }
          else if (PARSECTX_PEEK_CHAR_OID(&ctx)( (&ctx)->oid[(&ctx)->currOidPos] ) == '{')
          {
              /* HEX OID */
              if (parseHexField(&ctx) == 0)
              {
                  (*size) = ctx.currBufferPos;
                  return 0;
              }
          }
          (*size) = 0;
      }
  }
  return 1;
4781}

4783static void dof_oid_new_standard_string(const char *data, uint32_t *rsize, uint8_t **oid)
4784{
  if (data)
  {
      uint8_t err;
      uint32_t size = 0;

      /* Call parseInternal to find out how big the buffer needs to be. */
      err = dof_oid_create_internal(data, &size, NULL((void*)0));

      if (err == 0)
      {
          /* Create the DOFObjectID using the size that was just computed. */
          *oid = (uint8_t *)g_malloc(size + 1); /* Adds space for null-terminator, just in case. */

          if (*oid)
          {
              /* Now that the size is computed and the DOFObjectID is created, call parseInternal again to fill the oid buffer. */
              err = dof_oid_create_internal(data, &size, *oid);

              if (err == 0)
              {
                  *rsize = size;
                  return;
              }

              g_free(*oid)(__builtin_object_size ((*oid), 0) != ((size_t) - 1)) ? g_free_sized
 (*oid, __builtin_object_size ((*oid), 0)) : (g_free) (*oid);
          }
      }
  }

  *rsize = 0;
  *oid = NULL((void*)0);
4816}

4818/* Binary Parsing Support */

4820/**
* Read a compressed 32-bit quantity (PDU Type.3).
* Since the value is variable length, the new offset is
* returned. The value can also be returned, along with the size, although
* NULL is allowed for those parameters.
*/
4826static int read_c4(tvbuff_t *tvb, int offset, uint32_t *v, int *L)
4827{
  uint32_t val = 0;
  uint8_t len = 0;
  uint8_t b = tvb_get_uint8(tvb, offset++);
  int i;

  if ((b & 0x80) == 0)
  {
      len = 1;
      b = b & 0x7F;
  }
  else if ((b & 0x40) == 0)
  {
      len = 2;
      b = b & 0x3F;
  }
  else
  {
      len = 4;
      b = b & 0x3F;
  }

  val = b;
  for (i = 1; i < len; i++)
      val = (val << 8) | tvb_get_uint8(tvb, offset++);

  if (L)
      *L = len;
  if (v)
      *v = val;
  return offset;
4858}

4860/**
* Validate PDU Type.3
* Validates the encoding.
* Add Expert Info if format invalid
* This also validates Spec Type.3.1.
*/
4866static void validate_c4(packet_info *pinfo, proto_item *pi, uint32_t val, int len)
4867{
  if (len > 1 && val < 0x80)
  {
      /* SPEC Type.3.1 Violation. */
      expert_add_info_format(pinfo, pi, &ei_c2_c3_c4_format, "DOF Violation: Type.3.1: Compressed 32-bit Compression Mandatory.");
  }

  if (len > 2 && val < 0x4000)
  {
      /* SPEC Type.3.1 Violation. */
      expert_add_info_format(pinfo, pi, &ei_c2_c3_c4_format, "DOF Violation: Type.3.1: Compressed 32-bit Compression Mandatory.");
  }
4879}

4881/**
* Reads a compressed 24-bit quantity (PDU Type.2).
* Since the value is variable length, the new offset is
* returned.
* The value can also be returned, along with the size, although
* NULL is allowed for those parameters.
*/
4888static int read_c3(tvbuff_t *tvb, int offset, uint32_t *v, int *L)
4889{
  uint32_t val = 0;
  uint8_t len = 0;
  uint8_t b = tvb_get_uint8(tvb, offset++);
  int i;

  if ((b & 0x80) == 0)
  {
      len = 1;
      b = b & 0x7F;
  }
  else if ((b & 0x40) == 0)
  {
      len = 2;
      b = b & 0x3F;
  }
  else
  {
      len = 3;
      b = b & 0x3F;
  }

  val = b;
  for (i = 1; i < len; i++)
      val = (val << 8) | tvb_get_uint8(tvb, offset++);

  if (L)
      *L = len;
  if (v)
      *v = val;
  return offset;
4920}

4922/**
* Validate PDU Type.2
* Validates the encoding.
* Adds Expert Info if format invalid
* This also validates Spec Type.2.1.
*/
4928static void validate_c3(packet_info *pinfo, proto_item *pi, uint32_t val, int len)
4929{
  if (len > 1 && val < 0x80)
  {
      /* SPEC Type.2.1 Violation. */
      expert_add_info_format(pinfo, pi, &ei_c2_c3_c4_format, "DOF Violation: Type.2.1: Compressed 24-bit Compression Mandatory." );
  }

  if (len > 2 && val < 0x4000)
  {
      /* SPEC Type.2.1 Violation. */
      expert_add_info_format(pinfo, pi, &ei_c2_c3_c4_format, "DOF Violation: Type.2.1: Compressed 24-bit Compression Mandatory.");
  }
4941}

4943/**
* Reads a compressed 16-bit quantity (PDU Type.1).
* Since the value is variable length, the new offset is
* returned. The value can also be returned, along with the size, although
* NULL is allowed for those parameters.
*/
4949static int read_c2(tvbuff_t *tvb, int offset, uint16_t *v, int *L)
4950{
  uint16_t val = 0;
  uint8_t b = tvb_get_uint8(tvb, offset++);
  if (b & 0x80)
  {
      b = b & 0x7F;
      val = (b << 8) | tvb_get_uint8(tvb, offset++);
      if (L)
          *L = 2;
  }
  else
  {
      val = b;
      if (L)
          *L = 1;
  }

  if (v)
      *v = val;
  return offset;
4970}

4972/**
* Validates PDU Type.1
* Validates the encoding.
* Adds Expert Info if format invalid
* This also validates Spec Type.1.1.
*/
4978static void validate_c2(packet_info *pinfo, proto_item *pi, uint16_t val, int len)
4979{
  if (len > 1 && val < 0x80)
  {
      /* SPEC Type.1.1 Violation. */
      expert_add_info_format(pinfo, pi, &ei_c2_c3_c4_format, "DOF Violation: Type.1.1: Compressed 16-bit Compression Mandatory." );
  }
4985}

4987static void sid_packet_index_add(unsigned sid_id, dof_packet_data *packet)
4988{
  GSList *list;

  if (sid_id == 0 || packet30.1
'packet' is not equal to NULL
 == NULL((void*)0) || sid_id_to_packets == NULL((void*)0))
30
←
Assuming 'sid_id' is not equal to 0→
31
←
Assuming 'sid_id_to_packets' is not equal to NULL→
32
←
Taking false branch→
      return;

  list = (GSList *)g_hash_table_lookup(sid_id_to_packets, GUINT_TO_POINTER(sid_id)((gpointer) (gulong) (sid_id)));
  g_hash_table_steal(sid_id_to_packets, GUINT_TO_POINTER(sid_id)((gpointer) (gulong) (sid_id)));
  list = g_slist_prepend(list, packet);
33
←
Value assigned to field 'opid_first'→
  g_hash_table_insert(sid_id_to_packets, GUINT_TO_POINTER(sid_id)((gpointer) (gulong) (sid_id)), list);
4998}

5000/* Move every packet that stored sid_id_incorrect over to sid_id_correct. */
5001static void retarget_sid_id(unsigned sid_id_incorrect, unsigned sid_id_correct)
5002{
  GSList *saved;
  GSList *l;

  if (sid_id_incorrect == 0 || sid_id_incorrect == sid_id_correct || sid_id_to_packets == NULL((void*)0))
      return;

  saved = g_slist_copy((GSList *)g_hash_table_lookup(sid_id_to_packets, GUINT_TO_POINTER(sid_id_incorrect)((gpointer) (gulong) (sid_id_incorrect))));
  for (l = saved; l; l = l->next)
  {
      dof_packet_data *ptr = (dof_packet_data *)l->data;

      if (ptr->sender_sid_id == sid_id_incorrect)
          ptr->sender_sid_id = sid_id_correct;
      if (ptr->receiver_sid_id == sid_id_incorrect)
          ptr->receiver_sid_id = sid_id_correct;
      if (ptr->op.op_sid_id == sid_id_incorrect)
          ptr->op.op_sid_id = sid_id_correct;
      if (ptr->ref_op.op_sid_id == sid_id_incorrect)
          ptr->ref_op.op_sid_id = sid_id_correct;

      sid_packet_index_add(sid_id_correct, ptr);
  }
  g_slist_free(saved);
  g_hash_table_remove(sid_id_to_packets, GUINT_TO_POINTER(sid_id_incorrect)((gpointer) (gulong) (sid_id_incorrect)));

  /* Senders that were given the provisional id get the correct one in
   * later packets too. */
  if (node_key_to_sid_id != NULL((void*)0))
  {
      GHashTableIter iter;
      void *value;

      g_hash_table_iter_init(&iter, node_key_to_sid_id);
      while (g_hash_table_iter_next(&iter, NULL((void*)0), &value))
      {
          if (GPOINTER_TO_UINT(value)((guint) (gulong) (value)) == sid_id_incorrect)
              g_hash_table_iter_replace(&iter, GUINT_TO_POINTER(sid_id_correct)((gpointer) (gulong) (sid_id_correct)));
      }
  }
5042}

5044/**
* Given a packet data, and assuming that all of the prerequisite information is known,
* assign a SID ID to the packet if not already assigned.
* A SID ID is the *possibility* of a unique SID, but until the SID is learned the
* association is not made. Further, multiple SID ID may end up referring to the
* same SID, in which case the assignment must be repaired.
*/
5051static void assign_sid_id(dof_api_data *api_data)
5052{
  node_key_to_sid_id_key lookup_key;
  node_key_to_sid_id_key *key;
  dof_session_data *session;
  dof_packet_data *packet;
  unsigned value;

  /* Validate input. These represent dissector misuse, not decoding problems. */
  /* TODO: Diagnostic/programmer message. */
  if (!api_data || !api_data->packet || !api_data->session)
      return;

  session = api_data->session;
  packet = (dof_packet_data *)api_data->packet;


  /* Check if the sender_sid_id is already assigned, if so we are done. */
  if (!packet->sender_sid_id)
  {
      /* Build a (non-allocated) key to do the lookup. */
      lookup_key.transport_id = api_data->transport_session->transport_id;
      lookup_key.transport_node_id = api_data->transport_packet->sender_id;
      lookup_key.dof_id = session->dof_id;
      lookup_key.dof_node_id = packet->sender_id;
      lookup_key.dof_session_id = session->session_id;

      value = GPOINTER_TO_UINT(g_hash_table_lookup(node_key_to_sid_id, &lookup_key))((guint) (gulong) (g_hash_table_lookup(node_key_to_sid_id, &
lookup_key)));
      if (value)
      {
          void *sid_id_key = GUINT_TO_POINTER(value)((gpointer) (gulong) (value));
          void *sid_buffer;

          /* We found a match. */
          packet->sender_sid_id = value;

          /* If we know the SID, we must get it now. */
          sid_buffer = g_hash_table_lookup(sid_id_to_sid_buffer, sid_id_key);
          if (sid_buffer)
          {
              /* We found a match. */
              packet->sender_sid = (dof_2009_1_pdu_19_sid)sid_buffer;
          }
      }
      else
      {
          /* No match, need to add a key. */
          key = g_new0(node_key_to_sid_id_key, 1)((node_key_to_sid_id_key *) g_malloc0_n ((1), sizeof (node_key_to_sid_id_key
)));
          memcpy(key, &lookup_key, sizeof(node_key_to_sid_id_key));

          /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
          g_hash_table_insert(node_key_to_sid_id, key, GUINT_TO_POINTER(dpp_next_sid_id)((gpointer) (gulong) (dpp_next_sid_id)));
          packet->sender_sid_id = dpp_next_sid_id++;
      }
      sid_packet_index_add(packet->sender_sid_id, packet);
  }

  /* Check if the receiver_sid_id is already assigned, if so we are done. */
  if (!packet->receiver_sid_id)
  {
      /* Build a (non-allocated) key to do the lookup. */
      lookup_key.transport_id = api_data->transport_session->transport_id;
      lookup_key.transport_node_id = api_data->transport_packet->receiver_id;
      lookup_key.dof_id = session->dof_id;
      lookup_key.dof_node_id = packet->receiver_id;
      lookup_key.dof_session_id = session->session_id;

      value = GPOINTER_TO_UINT(g_hash_table_lookup(node_key_to_sid_id, &lookup_key))((guint) (gulong) (g_hash_table_lookup(node_key_to_sid_id, &
lookup_key)));
      if (value)
      {
          void *sid_id_key = GUINT_TO_POINTER(value)((gpointer) (gulong) (value));
          void *sid_buffer;

          /* We found a match. */
          packet->receiver_sid_id = value;

          /* If we know the SID, we must get it now. */
          sid_buffer = g_hash_table_lookup(sid_id_to_sid_buffer, sid_id_key);
          if (sid_buffer)
          {
              /* We found a match. */
              packet->receiver_sid = (dof_2009_1_pdu_19_sid)sid_buffer;
          }
      }
      else
      {
          /* No match, need to add a key. */
          key = g_new0(node_key_to_sid_id_key, 1)((node_key_to_sid_id_key *) g_malloc0_n ((1), sizeof (node_key_to_sid_id_key
)));
          memcpy(key, &lookup_key, sizeof(node_key_to_sid_id_key));

          /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
          g_hash_table_insert(node_key_to_sid_id, key, GUINT_TO_POINTER(dpp_next_sid_id)((gpointer) (gulong) (dpp_next_sid_id)));
          packet->receiver_sid_id = dpp_next_sid_id++;
      }
      if (packet->receiver_sid_id != packet->sender_sid_id)
          sid_packet_index_add(packet->receiver_sid_id, packet);
  }

5149}

5151/**
* Declare that the sender of the packet is known to have a SID
* that is identified by the specified buffer. There are a few
* cases here:
*  1. The sid of the sender is already assigned. This is a NOP.
*  2. The sid has never been seen. This associates the SID with the sender SID ID.
*  3. The sid has been seen, and matches the SID ID of the sender. This just sets the sid field.
*  4. The sid has been seen, but with a different SID ID than ours. Patch up all the packets.
*/
5160static void learn_sender_sid(dof_api_data *api_data, unsigned length, const uint8_t *sid)
5161{
  dof_packet_data *packet;
  uint8_t lookup_key[256];
  uint8_t *key;
  void *value;

  /* Validate input. */
  if (!api_data)
  {
      /* TODO: Print error. */
      return;
  }

  if (!api_data->packet)
  {
      /* TODO: Print error. */
      return;
  }

  packet = (dof_packet_data *)api_data->packet;
  if (!packet->sender_sid_id)
      return;

  /* Check for sender SID already known. */
  if (packet->sender_sid)
      return;

  /* The key holds the length in one octet; a longer SID is not learned */
  if (length > UINT8_MAX(255))
      return;

  /* Check for SID already known (has assigned SID ID) */
  /* Build a (non-allocated) key to do the lookup. */
  lookup_key[0] = length;
  memcpy(lookup_key + 1, sid, length);

  if (g_hash_table_lookup_extended(sid_buffer_to_sid_id, &lookup_key, (void * *)&key, &value))
  {
      unsigned sid_id = GPOINTER_TO_UINT(value)((guint) (gulong) (value));

      /* We found a match. */
      if (packet->sender_sid_id == sid_id)
      {
          /* It matches our SID ID. Set the sid field. */
          packet->sender_sid = key;
          return;
      }
      else
      {
          /* There is a mis-match between SID and SID ID. Packets that stored
          * the provisional id are retargeted to the id this SID already has.
          */
          retarget_sid_id(packet->sender_sid_id, sid_id);
      }

      return;
  }

  /* The SID has never been seen. Associate with the SID ID. */
  key = (dof_2009_1_pdu_19_sid)g_malloc0(length + 1);
  memcpy(key, lookup_key, length + 1);

  /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
  g_hash_table_insert(sid_buffer_to_sid_id, key, GUINT_TO_POINTER(packet->sender_sid_id)((gpointer) (gulong) (packet->sender_sid_id)));
  g_hash_table_insert(sid_id_to_sid_buffer, GUINT_TO_POINTER(packet->sender_sid_id)((gpointer) (gulong) (packet->sender_sid_id)), key);

  /* NOTE: We are storing a reference to the SID in the packet data. This memory
  * will be freed by the dissector init routine when the SID hash table is destroyed.
  * Nothing else should free this SID.
  */
  packet->sender_sid = (dof_2009_1_pdu_19_sid)key;

  /* We have learned the "correct" sid and sid_id, so we can set the sid of
  * any packets that have this sid_id (saves hash lookups in the future).
  */
  {
      GSList *l;
      GSList *list = NULL((void*)0);

      if (sid_id_to_packets)
          list = (GSList *)g_hash_table_lookup(sid_id_to_packets, GUINT_TO_POINTER(packet->sender_sid_id)((gpointer) (gulong) (packet->sender_sid_id)));

      for (l = list; l; l = l->next)
      {
          dof_packet_data *ptr = (dof_packet_data *)l->data;

          if (ptr->sender_sid_id == packet->sender_sid_id)
              ptr->sender_sid = key;

          if (ptr->receiver_sid_id == packet->sender_sid_id)
              ptr->receiver_sid = key;
      }
  }
5254}

5256/**
* Learn a SID from an explicit operation. This only defines sids and sid ids.
*/
5259static void learn_operation_sid(dof_packet_data *packet, dof_2009_1_pdu_20_opid *opid, unsigned length, const uint8_t *sid)
5260{
  uint8_t lookup_key[256];
  uint8_t *key;
  void *value;

  /* Check for sender SID already known. */
  if (opid->op_sid)
22
←
Assuming field 'op_sid' is null→
23
←
Taking false branch→
      return;

  /* The key holds the length in one octet; a longer SID is not learned */
  if (length > UINT8_MAX(255))
24
←
Assuming 'length' is <= UINT8_MAX→
25
←
Taking false branch→
      return;

  /* Check for SID already known (has assigned SID ID) */
  /* Build a (non-allocated) key to do the lookup. */
  lookup_key[0] = length;
  memcpy(lookup_key + 1, sid, length);

  if (g_hash_table_lookup_extended(sid_buffer_to_sid_id, &lookup_key, (void * *)&key, &value))
26
←
Assuming the condition is true→
27
←
Taking true branch→
  {
      unsigned sid_id = GPOINTER_TO_UINT(value)((guint) (gulong) (value));

      opid->op_sid_id = sid_id;
      opid->op_sid = key;
      if (packet27.1
'packet' is non-null
 && sid_id27.2
'sid_id' is not equal to field 'sender_sid_id'
 != packet->sender_sid_id && sid_id27.3
'sid_id' is not equal to field 'receiver_sid_id'
 != packet->receiver_sid_id)
28
←
Taking true branch→
          sid_packet_index_add(sid_id, packet);
29
←
Calling 'sid_packet_index_add'→
34
←
Returning from 'sid_packet_index_add'→
      return;
  }

  /* The SID has never been seen. Associate with the SID ID. */
  key = (dof_2009_1_pdu_19_sid)g_malloc0(length + 1);
  memcpy(key, lookup_key, length + 1);

  /* Assign the op_sid_id. */
  opid->op_sid_id = dpp_next_sid_id++;
  if (packet && opid->op_sid_id != packet->sender_sid_id && opid->op_sid_id != packet->receiver_sid_id)
      sid_packet_index_add(opid->op_sid_id, packet);

  /* Note, this is not multithread safe, but Wireshark isn't multithreaded. */
  g_hash_table_insert(sid_buffer_to_sid_id, key, GUINT_TO_POINTER(opid->op_sid_id)((gpointer) (gulong) (opid->op_sid_id)));
  g_hash_table_insert(sid_id_to_sid_buffer, GUINT_TO_POINTER(opid->op_sid_id)((gpointer) (gulong) (opid->op_sid_id)), key);

  /* NOTE: We are storing a reference to the SID in the packet data. This memory
  * will be freed by the dissector init routine when the SID hash table is destroyed.
  * Nothing else should free this SID.
  */
  opid->op_sid = (dof_2009_1_pdu_19_sid)key;
5307}

5309static void generateMac(gcry_cipher_hd_t cipher_state, uint8_t *nonce, const uint8_t *epp, int a_len, uint8_t *data, int len, uint8_t *mac, int mac_len)
5310{
  uint16_t i;

  /* a_len = 1, t = mac_len, q = 4: (t-2)/2 : (q-1) -> 4B */
  mac[0] = 0x43 | (((mac_len - 2) / 2) << 3);
  memcpy(mac + 1, nonce, 11);
  memset(mac + 12, 0, 4);
  mac[14] = len >> 8;
  mac[15] = len & 0xFF;

  gcry_cipher_encrypt(cipher_state, mac, 16, NULL((void*)0), 0);

  mac[0] ^= (a_len >> 8);
  mac[1] ^= (a_len);
  i = 2;

  for (int cnt = 0; cnt < a_len; cnt++, i++)
  {
      if (i % 16 == 0)
          gcry_cipher_encrypt(cipher_state, mac, 16, NULL((void*)0), 0);

      mac[i % 16] ^= epp[cnt];
  }

  i = 0;
  for (int cnt = 0; cnt < len; cnt++, i++)
  {
      if (i % 16 == 0)
          gcry_cipher_encrypt(cipher_state, mac, 16, NULL((void*)0), 0);

      mac[i % 16] ^= data[cnt];
  }

  gcry_cipher_encrypt(cipher_state, mac, 16, NULL((void*)0), 0);
5344}

5346static gcry_cipher_hd_t ccm_packet_cipher(ccm_session_data *session, ccm_packet_data *pdata)
5347{
  if (!pdata || pdata->period == 0)
      return session->cipher_data;

  if (session->cipher_data_table)
  {
      ccm_period_key *pk = (ccm_period_key *)g_hash_table_lookup(session->cipher_data_table, GUINT_TO_POINTER(pdata->period)((gpointer) (gulong) (pdata->period)));
      if (pk)
          return pk->cipher;
  }
  return NULL((void*)0);
5358}

5360static int decrypt(ccm_session_data *session, ccm_packet_data *pdata, uint8_t *nonce, const uint8_t *epp, int a_len, uint8_t *data, int len)
5361{
  int i;
  unsigned char ctr[16];
  unsigned char encrypted_ctr[16];
  unsigned char mac[16];
  unsigned char computed_mac[16];
  unsigned int skip;
  gcry_cipher_hd_t cipher;

  if (data == NULL((void*)0) || len <= 0)
      return 0;

  /* Check the mac length. Ciphertext shorter than the MAC is rejected before any copy. */
  if (session->mac_len < 4 || session->mac_len > 16 || len < session->mac_len)
      return 0;

  cipher = ccm_packet_cipher(session, pdata);
  if (!cipher)
      return 0;

  /* Determine how many blocks are skipped. */
5382#if 0 /* seems to be dead code... check this! */
  skip = a_len + 2;
  skip /= 16;
  if ((a_len + 2) % 16)
      skip += 1;
5387#endif
  skip = 0;

  /* This is hard-coded for q=4. This can only change with a protocol revision.
  Note the value is stored as (q-1). */
  ctr[0] = 0x03;
  memcpy(ctr + 1, nonce, 11);
  ctr[12] = 0;
  ctr[13] = 0;
  ctr[14] = 0;
  ctr[15] = skip; /* Preincremented below. */


  for (i = 0; i < len - session->mac_len; i++)
  {
      if (i % 16 == 0)
      {
          if (ctr[15] == 255)
              ctr[14] += 1;
          ctr[15] += 1;
          memcpy(encrypted_ctr, ctr, 16);
          gcry_cipher_encrypt(cipher, encrypted_ctr, 16, NULL((void*)0), 0);
      }

      data[i] ^= encrypted_ctr[i % 16];
  }

  memcpy(mac, data + i, session->mac_len);

  ctr[12] = 0;
  ctr[13] = 0;
  ctr[14] = 0;
  ctr[15] = 0;
  memcpy(encrypted_ctr, ctr, 16);
  gcry_cipher_encrypt(cipher, encrypted_ctr, 16, NULL((void*)0), 0);

  for (i = 0; i < session->mac_len; i++)
      mac[i] ^= encrypted_ctr[i];

  /* Now we have to generate the MAC... */
  generateMac(cipher, nonce, epp, a_len, data, (int)(len - session->mac_len), computed_mac, session->mac_len);
  if (!memcmp(mac, computed_mac, session->mac_len))
      return 1;

  /* Failure */
  return 0;
5433}

5435/* Master Protocol Layer Handlers */

5437/**
* This dissector is handed a DPP packet of any version. It is responsible for decoding
* the common header fields and then passing off to the specific DPP dissector
*/
5441static int dissect_app_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
5442{
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the APP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint16_t app;
      int app_len;

      read_c2(tvb, 0, &app, &app_len);

      col_add_fstr(pinfo->cinfo, COL_PROTOCOL, "APP(%u)", app);

      /* call the next dissector */
      if (dissector_try_uint_with_data(app_dissectors, app, tvb, pinfo, tree, true1, data))
      {
          col_set_fence(pinfo->cinfo, COL_PROTOCOL);
          col_set_fence(pinfo->cinfo, COL_INFO);

          return tvb_reported_length(tvb);
      }
      else
      {
          proto_tree_add_protocol_format(tree, proto_2008_1_app, tvb, 0, app_len,
                                         DOF_APPLICATION_PROTOCOL"DOF Application Protocol" ", Version: %u", app);
      }
  }

  return 0;
5472}

5474/**
* This dissector is handed a DPP packet of any version. It is responsible for decoding
* the common header fields and then passing off to the specific DPP dissector
*/
5478static int dof_dissect_dpp_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
5479{
  dof_api_data *api_data = (dof_api_data *)data;
  unsigned offset = 0;

  DISSECTOR_ASSERT(api_data != NULL)((void) ((api_data != ((void*)0)) ? (void)0 : (proto_report_dissector_bug
("%s:%u: failed assertion \"%s\"", "epan/dissectors/packet-dof.c"
, 5483, "api_data != ((void*)0)"))));

  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the DPP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t header = tvb_get_uint8(tvb, offset);
      uint8_t dpp_version = header & 0x7F;
      uint8_t dpp_flags_included = header & 0x80;
      proto_item *hi;
      proto_tree * dpp_root,*dpp_tree;

      col_add_fstr(pinfo->cinfo, COL_PROTOCOL, "DPPv%u", dpp_version);


      hi = proto_tree_add_protocol_format(tree, proto_2008_1_dpp, tvb, offset, 0,
                                          DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol" " Version %u, Flags: %s", dpp_version, dpp_flags_included ? "Included" : "Default");

      dpp_root = proto_item_add_subtree(hi, ett_2008_1_dpp);

      dpp_tree = proto_tree_add_subtree(dpp_root, tvb, offset, 1, ett_2008_1_dpp_1_header, NULL((void*)0), "Header");


      /* Version and Flag bit */
      proto_tree_add_item(dpp_tree, hf_2008_1_dpp_1_flag, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(dpp_tree, hf_2008_1_dpp_1_version, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;

      /* This may, in some cases, be the end of the packet. This is only valid in some
      * situations, which are checked here.
      */
      if (offset == tvb_reported_length(tvb))
      {
          /* TODO: Complete this logic. */

          proto_item_set_len(hi, offset);

          if (!api_data)
              return offset;

          if (api_data->transport_session->is_streaming)
          {
              col_append_str(pinfo->cinfo, COL_INFO, "DNP/DPP Negotiation");

              if (pinfo->fd->visited &&
                  api_data->transport_session->negotiation_required &&
                  ((api_data->transport_session->negotiation_complete_at == 0) || (api_data->transport_session->negotiation_complete_at_ts.secs - api_data->transport_session->session_start_ts.secs > 10)))
              {
                  /* This is the second pass, so we can check for timeouts. */
                  expert_add_info(pinfo, hi, &ei_dof_6_timeout);
              }

              return offset;
          }
      }

      /* call the next dissector */
      if (dissector_try_uint_with_data(dof_dpp_dissectors, dpp_version, tvb, pinfo, dpp_root, false0, data))
      {
          col_set_fence(pinfo->cinfo, COL_PROTOCOL);
          col_set_fence(pinfo->cinfo, COL_INFO);

          return tvb_reported_length(tvb);
      }
  }

  return 0;
5552}

5554/**
* This dissector is handed a DNP packet of any version. It is responsible for decoding
* the common header fields and then passing off to the specific DNP dissector
*/
5558static int dof_dissect_dnp_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, dof_api_data *api_data, int offset)
5559{
  uint8_t header = tvb_get_uint8(tvb, offset);
  uint8_t dnp_version = header & 0x7F;
  uint8_t dnp_flags_included = header & 0x80;
  proto_item *main_ti;
  proto_tree * dnp_root,*dnp_tree;

  col_add_fstr(pinfo->cinfo, COL_PROTOCOL, "DNPv%u", dnp_version);

  main_ti = proto_tree_add_protocol_format(tree, proto_2008_1_dnp, tvb, offset, 0,
                                           DOF_NETWORK_PROTOCOL"DOF Network Protocol" " Version %u, Flags: %s", dnp_version, dnp_flags_included ? "Included" : "Default");

  dnp_root = proto_item_add_subtree(main_ti, ett_2008_1_dnp);

  dnp_tree = proto_tree_add_subtree(dnp_root, tvb, offset, 1, ett_2008_1_dnp_header, NULL((void*)0), "Header");

  /* Version and Flag bit */
  proto_tree_add_item(dnp_tree, hf_2008_1_dnp_1_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(dnp_tree, hf_2008_1_dnp_1_version, tvb, offset, 1, ENC_NA0x00000000);

  /* call the next dissector */
  if (dissector_try_uint_with_data(dnp_dissectors, dnp_version, tvb, pinfo, dnp_root, false0, api_data))
  {
      /* Since the transport may have additional packets in this frame, protect our work. */
      col_set_fence(pinfo->cinfo, COL_PROTOCOL);
      col_set_fence(pinfo->cinfo, COL_INFO);
  }
  else
  {
      proto_item_set_end(main_ti, tvb, 1);

      /* During negotiation, we can move past DNP even if it is not known. */
      if (((header & 0x80) == 0) && api_data->transport_session->negotiation_required && ((pinfo->fd->num < api_data->transport_session->negotiation_complete_at) || (api_data->transport_session->negotiation_complete_at == 0)))
      {
          offset += dof_dissect_dpp_common(tvb_new_subset_remaining(tvb, offset + 1), pinfo, tree, api_data);
      }
  }

  if (dnp_flags_included && !api_data->transport_session->negotiation_complete_at)
  {
      api_data->transport_session->negotiation_complete_at = pinfo->fd->num;
      api_data->transport_session->negotiation_complete_at_ts = pinfo->abs_ts;
  }

  return offset;
5604}

5606/**
* This dissector is called for each DPS packet. It assumes that the first layer is
* DNP, but it does not know anything about versioning. Further, it only worries
* about decoding DNP (DNP will decode DPP, and so on).
*
* This routine is given the DPS packet for the first packet, but doesn't know anything
* about DPS sessions. It may understand transport sessions, but these are surprisingly
* worthless for DPS.
*/
5615static int dissect_dof_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
5616{
  dof_api_data *api_data = (dof_api_data *)data;
  proto_tree *dof_root;
  dof_packet_data *packet;

  DISSECTOR_ASSERT(api_data != NULL)((void) ((api_data != ((void*)0)) ? (void)0 : (proto_report_dissector_bug
("%s:%u: failed assertion \"%s\"", "epan/dissectors/packet-dof.c"
, 5621, "api_data != ((void*)0)"))));
  DISSECTOR_ASSERT(api_data->transport_session != NULL)((void) ((api_data->transport_session != ((void*)0)) ? (void
)0 : (proto_report_dissector_bug("%s:%u: failed assertion \"%s\""
, "epan/dissectors/packet-dof.c", 5622, "api_data->transport_session != ((void*)0)"
))));
  DISSECTOR_ASSERT(api_data->transport_packet != NULL)((void) ((api_data->transport_packet != ((void*)0)) ? (void
)0 : (proto_report_dissector_bug("%s:%u: failed assertion \"%s\""
, "epan/dissectors/packet-dof.c", 5623, "api_data->transport_packet != ((void*)0)"
))));

  packet = (dof_packet_data *)api_data->packet;

  /* Create the packet if it doesn't exist. */
  if (packet == NULL((void*)0))
  {
      api_data->packet = packet = create_packet_data(pinfo);
      DISSECTOR_ASSERT(packet != NULL)((void) ((packet != ((void*)0)) ? (void)0 : (proto_report_dissector_bug
("%s:%u: failed assertion \"%s\"", "epan/dissectors/packet-dof.c"
, 5631, "packet != ((void*)0)"))));

      /* TODO: This is not correct for reversed sessions. */
      packet->is_sent_by_initiator = api_data->transport_packet->is_sent_by_client;
  }

  /* Assign the transport sequence if it does not exist. */
  if (api_data->transport_session->transport_session_id == 0)
      api_data->transport_session->transport_session_id = globals.next_transport_session++;

  /* Compute the DPS information. This is a master holder for general information. */
  {
      proto_item *ti;

      ti = proto_tree_add_protocol_format(tree, proto_2008_1_dof, tvb, 0, tvb_reported_length(tvb), DOF_PROTOCOL_STACK"DOF Protocol Stack");
      dof_root = proto_item_add_subtree(ti, ett_2008_1_dof);

      /* Add the general packet information. */
      {
          ti = proto_tree_add_uint(dof_root, hf_2008_1_dof_session_transport, tvb, 0, 0, api_data->transport_session->transport_session_id);
          proto_item_set_generated(ti);

          ti = proto_tree_add_boolean(dof_root, hf_2008_1_dof_is_2_node, tvb, 0, 0, api_data->transport_session->is_2_node);
          proto_item_set_generated(ti);

          ti = proto_tree_add_boolean(dof_root, hf_2008_1_dof_is_streaming, tvb, 0, 0, api_data->transport_session->is_streaming);
          proto_item_set_generated(ti);

          if (api_data->session)
          {
              ti = proto_tree_add_uint(dof_root, hf_2008_1_dof_session, tvb, 0, 0, api_data->session->session_id);
              proto_item_set_generated(ti);
          }

          if (api_data->secure_session)
          {
              ti = proto_tree_add_uint_format(dof_root, hf_2008_1_dof_session, tvb, 0, 0, api_data->secure_session->original_session_id, "DPS Session (Non-secure): %d", api_data->secure_session->original_session_id);
              proto_item_set_generated(ti);
          }

          ti = proto_tree_add_uint(dof_root, hf_2008_1_dof_frame, tvb, 0, 0, packet->dof_frame);
          proto_item_set_generated(ti);

          ti = proto_tree_add_boolean(dof_root, hf_2008_1_dof_is_from_client, tvb, 0, 0, api_data->transport_packet->is_sent_by_client);
          proto_item_set_generated(ti);
      }
  }

  dof_dissect_dnp_common(tvb, pinfo, tree, api_data, 0);

  packet->processed = true1;
  return tvb_reported_length(tvb);
5683}

5685/**
* This dissector is called for each DPS packet. It assumes that the first layer is
* ENP, but it does not know anything about versioning. Further, it only worries
* about decoding ENP (ENP will decode EPP, and so on).
*
* This routine is given the DPS packet for the first packet, but doesn't know anything
* about DPS sessions. It may understand transport sessions, but these are surprisingly
* worthless for DPS.
*/
5694static int dissect_tunnel_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
5695{
  /* The packet data is the private_data, and must exist. */
  tcp_dof_packet_ref *ref = (tcp_dof_packet_ref *)data;
  unsigned offset = 0;

  /* An Exported PDU can name this dissector without the packet reference */
  if (ref == NULL((void*)0))
      return 0;

  /* Compute the APP control information. This is the version and the length bytes.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t version = tvb_get_uint8(tvb, offset);
      uint8_t opcode;
      proto_item *ti;
      proto_tree *app_root;

      col_add_fstr(pinfo->cinfo, COL_PROTOCOL, "TUNv%u", version);

      ti = proto_tree_add_protocol_format(tree, proto_2012_1_tunnel, tvb, offset, 0,
                                          "DOF Tunnel Protocol, Version: %u", version);

      app_root = proto_item_add_subtree(ti, ett_2012_1_tunnel);
      proto_tree_add_item(app_root, hf_2012_1_tunnel_1_version, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(app_root, hf_2012_1_tunnel_1_length, tvb, offset + 1, 2, ENC_BIG_ENDIAN0x00000000);

      opcode = tvb_get_uint8(tvb, offset + 3);
      if (opcode == 3)
      {
          tvbuff_t *next_tvb = tvb_new_subset_remaining(tvb, offset + 5);

          dissect_dof_common(next_tvb, pinfo, tree, &ref->api_data);
      }
  }

  return tvb_captured_length(tvb);
5732}

5734static int dissect_tun_app_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
5735{
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the APP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint16_t app;
      int app_len;


      app = tvb_get_uint8(tvb, 0);
      app_len = 1;

      col_add_fstr(pinfo->cinfo, COL_PROTOCOL, "APP(%u)", app);

      /* call the next dissector */
      if (dissector_try_uint(dof_tun_app_dissectors, app, tvb, pinfo, tree))
      {
          col_set_fence(pinfo->cinfo, COL_PROTOCOL);
          col_set_fence(pinfo->cinfo, COL_INFO);

          return tvb_captured_length(tvb);
      }
      else
      {
          proto_tree_add_protocol_format(tree, proto_2012_1_tunnel, tvb, 0, app_len,
                                              DOF_APPLICATION_PROTOCOL"DOF Application Protocol" ", Version: %u", app);
      }
  }

  return 0;
5767}

5769/* Packet and Session Data Creation */

5771static udp_session_data* create_udp_session_data(packet_info *pinfo, conversation_t *conversation _U___attribute__((unused)))
5772{
  udp_session_data *packet = wmem_new0(wmem_file_scope(), udp_session_data)((udp_session_data*)wmem_alloc0((wmem_file_scope()), sizeof(udp_session_data
)));

  /* TODO: Determine if this is valid or not. */
  /* WMEM_COPY_ADDRESS( wmem_file_scope(), &packet->server.address, &conversation->key_ptr->addr1 );
  packet->server.port = conversation->key_ptr->port1; */
  copy_address_wmem(wmem_file_scope(), &packet->server.addr, &pinfo->dst);
  packet->server.port = pinfo->destport;

  packet->common.transport_id = proto_2008_1_dof_udp;

  {
      const uint8_t *addr = (const uint8_t *)packet->server.addr.data;
      if ((packet->server.addr.type == AT_IPv4) && (addr != NULL((void*)0)) && (addr[0] != 224))
          packet->common.is_2_node = true1;
      else
          packet->common.is_2_node = false0;
  }

  packet->common.is_streaming = false0;
  packet->common.session_start_ts = pinfo->abs_ts;
  packet->common.negotiation_required = false0;
  packet->common.negotiation_complete_at = 0;

  return packet;
5797}

5799static tcp_session_data* create_tcp_session_data(packet_info *pinfo, conversation_t *conversation)
5800{
  tcp_session_data *packet = wmem_new0(wmem_file_scope(), tcp_session_data)((tcp_session_data*)wmem_alloc0((wmem_file_scope()), sizeof(tcp_session_data
)));

  copy_address_wmem(wmem_file_scope(), &packet->client.addr, conversation_key_addr1(conversation->key_ptr));
  packet->client.port = conversation_key_port1(conversation->key_ptr);
  copy_address_wmem(wmem_file_scope(), &packet->server.addr, conversation_key_addr2(conversation->key_ptr));
  packet->server.port = conversation_key_port2(conversation->key_ptr);

  packet->not_dps = false0;

  packet->common.transport_id = proto_2008_1_dof_tcp;
  packet->common.is_2_node = true1;
  packet->common.is_streaming = true1;
  packet->common.session_start_ts = pinfo->abs_ts;
  packet->common.negotiation_required = true1;
  packet->common.negotiation_complete_at = 0;

  return packet;
5818}

5820static dof_packet_data* create_packet_data(packet_info *pinfo)
5821{
  /* Create the packet data. */
  dof_packet_data *packet = wmem_new0(wmem_file_scope(), dof_packet_data)((dof_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(dof_packet_data
)));

  packet->data_list = wmem_list_new(wmem_file_scope());
  packet->frame = pinfo->fd->num;
  packet->dof_frame = next_dof_frame++;

  /* Add the packet into the list of packets. */
  if (!globals.dof_packet_head)
  {
      globals.dof_packet_head = packet;
      globals.dof_packet_tail = packet;
  }
  else
  {
      globals.dof_packet_tail->next = packet;
      globals.dof_packet_tail = packet;
  }

  return packet;
5842}

5844/* Dissectors for Transports (UDP/TCP) */

5846/**
* Dissect a UDP packet. The parent protocol is UDP. No assumptions about DPS
* data structures are made on input, but before calling common they must
* be set up.
* This dissector is registered with the UDP protocol on the standard DPS port.
* It will be used for anything that involves that port (source or destination).
*/
5853static int dissect_dof_udp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
5854{
  dof_api_data *api_data = (dof_api_data *)p_get_proto_data(wmem_file_scope(), pinfo, proto_2008_1_dof_udp, 0);
  if (api_data == NULL((void*)0))
  {
      conversation_t *conversation;
      udp_session_data *transport_session;
      dof_transport_packet *transport_packet;
      /* bool mcast = false; */

      /* {
          uint8_t* addr = (uint8_t*) pinfo->dst.data;
          if ( (pinfo->dst.type == AT_IPv4) && (addr != NULL) && (addr[0] != 224) )
              mcast = true;
      } */

      /* Register the source address as being DPS for the sender UDP port. */
      conversation = find_conversation(pinfo->fd->num, &pinfo->src, &pinfo->dst, conversation_pt_to_conversation_type(pinfo->ptype), pinfo->srcport, pinfo->destport, NO_ADDR_B0x00010000 | NO_PORT_B0x00020000);
      if (!conversation)
      {
          conversation = conversation_new(pinfo->fd->num, &pinfo->src, &pinfo->dst, conversation_pt_to_conversation_type(pinfo->ptype), pinfo->srcport, pinfo->destport, NO_ADDR20x01 | NO_PORT20x02);
          conversation_set_dissector(conversation, dof_udp_handle);
      }

      /* Find or create the conversation for this transport session. For UDP, the transport session is determined entirely by the
       * server port. This assumes that the first packet seen is from a client to the server.
       */
      conversation = find_conversation(pinfo->fd->num, &pinfo->dst, &pinfo->src, CONVERSATION_UDP, pinfo->destport, pinfo->srcport, NO_ADDR_B0x00010000 | NO_PORT_B0x00020000);
      if (conversation)
      {
          /* TODO: Determine if this is valid or not. */
          /*if ( conversation->key_ptr->port1 != pinfo->destport || ! addresses_equal( &conversation->key_ptr->addr1, &pinfo->dst ) )
              conversation = NULL; */
      }

      if (!conversation)
          conversation = conversation_new(pinfo->fd->num, &pinfo->dst, &pinfo->src, CONVERSATION_UDP, pinfo->destport, pinfo->srcport, NO_ADDR20x01 | NO_PORT20x02 | CONVERSATION_TEMPLATE0x08);

      transport_session = (udp_session_data *)conversation_get_proto_data(conversation, proto_2008_1_dof_udp);
      if (transport_session == NULL((void*)0))
      {
          transport_session = create_udp_session_data(pinfo, conversation);
          conversation_add_proto_data(conversation, proto_2008_1_dof_udp, transport_session);
      }

      /* UDP has no framing or retransmission issues, so the dof_api_data is stored directly on the frame. */
      api_data = wmem_new0(wmem_file_scope(), dof_api_data)((dof_api_data*)wmem_alloc0((wmem_file_scope()), sizeof(dof_api_data
)));
      if (api_data == NULL((void*)0))
          return 0;

      transport_packet = wmem_new0(wmem_file_scope(), dof_transport_packet)((dof_transport_packet*)wmem_alloc0((wmem_file_scope()), sizeof
(dof_transport_packet)));
      if (transport_packet == NULL((void*)0))
          return 0;

      transport_packet->is_sent_by_client = true1;
      if (addresses_equal(&transport_session->server.addr, &pinfo->src) && (transport_session->server.port == pinfo->srcport))
          transport_packet->is_sent_by_client = false0;

      transport_packet->sender_id = assign_addr_port_id(pinfo->pool, &pinfo->src, pinfo->srcport);
      transport_packet->receiver_id = assign_addr_port_id(pinfo->pool, &pinfo->dst, pinfo->destport);

      api_data->transport_session = &transport_session->common;
      api_data->transport_packet = transport_packet;
      p_add_proto_data(wmem_file_scope(), pinfo, proto_2008_1_dof_udp, 0, api_data);
  }

  return dissect_dof_common(tvb, pinfo, tree, api_data);
5920}

5922/**
* Determine if the current offset has already been processed.
* This is specific to the TCP dissector.
*/
5926static bool_Bool is_retransmission(packet_info *pinfo, tcp_session_data *session, tcp_packet_data *packet, struct tcpinfo *tcpinfo)
5927{
  /* TODO: Determine why we get big numbers sometimes... */
  /* if ( tcpinfo->seq != 0 && tcpinfo->seq < 1000000) */
  {
      tcp_ignore_data *id;
      uint32_t sequence = tcpinfo->seq;

      if (addresses_equal(&pinfo->src, &session->client.addr) && (pinfo->srcport == session->client.port))
      {
          id = packet->from_client_ignore_list;
      }
      else
      {
          id = packet->from_server_ignore_list;
      }

      while (id != NULL((void*)0) && id->sequence != sequence)
      {
          id = id->next;
      }

      if (id == NULL((void*)0))
          return false0;

      return id->ignore;
  }

  return false0;
5955}

5957/**
* We have found and processed packets starting at offset, so
* don't allow the same (or previous) packets.
* This only applies to TCP dissector conversations.
*/
5962static void remember_offset(packet_info *pinfo, tcp_session_data *session, tcp_packet_data *packet, struct tcpinfo *tcpinfo)
5963{
  bool_Bool ignore = false0;

  /* TODO: Determine why we get big numbers sometimes... */
  /* if ( tcpinfo->seq != 0 && tcpinfo->seq < 1000000) */
  {
      tcp_ignore_data **last;
      tcp_ignore_data *id;
      uint32_t sequence;
      uint32_t *seqptr = NULL((void*)0);

      if (addresses_equal(&pinfo->src, &session->client.addr) && (pinfo->srcport == session->client.port))
      {
          last = &(packet->from_client_ignore_list);
          id = packet->from_client_ignore_list;
          sequence = tcpinfo->seq;
          seqptr = &session->from_client_seq;

          if (LE_SEQ(tcpinfo->seq, session->from_client_seq)((int32_t)((tcpinfo->seq) - (session->from_client_seq))
 <= 0))
              ignore = true1;
      }
      else
      {
          last = &(packet->from_server_ignore_list);
          id = packet->from_server_ignore_list;
          sequence = tcpinfo->seq;
          seqptr = &session->from_server_seq;

          if (LE_SEQ(tcpinfo->seq, session->from_server_seq)((int32_t)((tcpinfo->seq) - (session->from_server_seq))
 <= 0))
              ignore = true1;
      }

      while (id != NULL((void*)0) && id->sequence != tcpinfo->seq)
      {
          last = &(id->next);
          id = id->next;
      }

      *seqptr = sequence;
      if (id == NULL((void*)0))
      {
          *last = wmem_new0(wmem_file_scope(), tcp_ignore_data)((tcp_ignore_data*)wmem_alloc0((wmem_file_scope()), sizeof(tcp_ignore_data
)));
          id = *last;
          id->ignore = ignore;
          id->sequence = tcpinfo->seq;
      }
  }
6010}

6012/**
* This dissector is registered with TCP using the standard port. It uses registered
* protocols to determine framing, and those dissectors will call into the base
* DPS dissector for each packet.
*/
6017static int dissect_dof_tcp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
6018{
  conversation_t *conversation;
  tcp_session_data *session;
  tcp_packet_data *packet;
  struct tcpinfo *tcpinfo = (struct tcpinfo *)data;
  uint8_t header;

  /* Get the TCP conversation. TCP creates a new conversation for each TCP connection,12
   * so we can "mirror" that by attaching our own data to that conversation. If our
   * data cannot be found, then it is a new connection (to us).
   */
  conversation = find_conversation_pinfo(pinfo, 0);
  {
      /* This should be impossible - the TCP dissector requires this conversation.
       * Bail...
       */
      DISSECTOR_ASSERT(conversation != NULL)((void) ((conversation != ((void*)0)) ? (void)0 : (proto_report_dissector_bug
("%s:%u: failed assertion \"%s\"", "epan/dissectors/packet-dof.c"
, 6034, "conversation != ((void*)0)"))));
  }


  /* This requires explanation. TCP will call this dissector, and we know
   * that the first byte (offset 0 of this tvb) is the first byte of an
   * DPS packet. The TCP dissector ensures this.
   *
   * We do *not* know that this is the only packet, and
   * so the dissector that we call below must handle framing. All of
   * this state must be stored, and so we store it in a transport
   * data structure. DPS packet data is created later and associated
   * differently.
   *
   * Further, this routine MAY be called MULTIPLE times for the SAME
   * frame with DIFFERENT sequence numbers. This makes handling
   * retransmissions very difficult - we must track each call to this
   * routine with its associated offset and ignore flag. However, due
   * to the way that Wireshark handles asking for more data we cannot
   * mark an offset as "duplicate" until after it has been processed.
   */

  /* TCP packet data is only associated with TCP frames that hold DPS packets. */
  session = (tcp_session_data *)conversation_get_proto_data(conversation, proto_2008_1_dof_tcp);
  if (session == NULL((void*)0))
  {
      session = create_tcp_session_data(pinfo, conversation);
      conversation_add_proto_data(conversation, proto_2008_1_dof_tcp, session);
  }

  if (session->not_dps)
      return 0;

  packet = (tcp_packet_data *)p_get_proto_data(wmem_file_scope(), pinfo, proto_2008_1_dof_tcp, 0);
  if (packet == NULL((void*)0))
  {
      packet = wmem_new0(wmem_file_scope(), tcp_packet_data)((tcp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(tcp_packet_data
)));
      p_add_proto_data(wmem_file_scope(), pinfo, proto_2008_1_dof_tcp, 0, packet);
  }

  if (is_retransmission(pinfo, session, packet, tcpinfo))
      return 0;

  /* Loop, checking all the packets in this frame and communicating with the TCP
   * desegmenter. The framing dissector entry is used to determine the size
   * of the current frame.
   */
  {
      /* Note that we must handle fragmentation on TCP... */
      unsigned offset = 0;

      while (offset < tvb_reported_length(tvb))
      {
          int available = tvb_ensure_captured_length_remaining(tvb, offset);
          int packet_length;

          header = tvb_get_uint8(tvb, offset);

          /* If we are negotiating, then we do not need the framing dissector
           * as we know the packet length is two. Note that for the first byte
           * of a TCP session there are only two cases, both handled here. An error
           * of not understanding the first byte will trigger that this is not
           * a DPS session.
           */
          if (((header & 0x80) == 0) && session->common.negotiation_required && ((pinfo->fd->num < session->common.negotiation_complete_at) || (session->common.negotiation_complete_at == 0)))
          {
              packet_length = 2;
              if (header > DNP_MAX_VERSION1)
              {
                  session->not_dps = true1;
                  return 0;
              }
          }
          else
          {
              packet_length = dof_dissect_dnp_length(tvb, pinfo, header & 0x7F, &offset);
              if (packet_length < 0)
              {
                  session->not_dps = true1;
                  return offset;
              }
          }

          if (packet_length == 0)
          {
              pinfo->desegment_offset = offset;
              pinfo->desegment_len = DESEGMENT_ONE_MORE_SEGMENT0x0fffffff;
              return offset + available;
          }

          if (available < packet_length)
          {
              pinfo->desegment_offset = offset;
              pinfo->desegment_len = packet_length - available;
              return offset + available;
          }

          remember_offset(pinfo, session, packet, tcpinfo);
          if (is_retransmission(pinfo, session, packet, tcpinfo))
              return 0;

          /* We have a packet. We have to store the dof_packet_data in a list, as there may be
           * multiple DPS packets in a single Wireshark frame.
           */
          {
              tvbuff_t *next_tvb = tvb_new_subset_length(tvb, offset, packet_length);
              tcp_dof_packet_ref *ref;
              int raw_offset = tvb_raw_offset(tvb) + offset;
              bool_Bool ref_is_new = false0;

              /* Get the packet data. This is a list in increasing sequence order. */
              if (packet->dof_packets == NULL((void*)0))
              {
                  ref_is_new = true1;
                  ref = wmem_new0(wmem_file_scope(), tcp_dof_packet_ref)((tcp_dof_packet_ref*)wmem_alloc0((wmem_file_scope()), sizeof
(tcp_dof_packet_ref)));
                  ref->transport_packet.sender_id = assign_addr_port_id(pinfo->pool, &pinfo->src, pinfo->srcport);
                  ref->transport_packet.receiver_id = assign_addr_port_id(pinfo->pool, &pinfo->dst, pinfo->destport);
                  packet->dof_packets = ref;
                  ref->start_offset = raw_offset;
              }
              else
                  ref = packet->dof_packets;

              /* Find the entry for our offset. */
              while (ref->start_offset != raw_offset)
              {
                  if (ref->next)
                  {
                      ref = ref->next;
                      continue;
                  }

                  {
                      tcp_dof_packet_ref *last = ref;

                      /* This is the default state, NULL and 0. */
                      ref_is_new = true1;
                      ref = wmem_new0(wmem_file_scope(), tcp_dof_packet_ref)((tcp_dof_packet_ref*)wmem_alloc0((wmem_file_scope()), sizeof
(tcp_dof_packet_ref)));
                      ref->transport_packet.sender_id = last->transport_packet.sender_id;
                      ref->transport_packet.receiver_id = last->transport_packet.receiver_id;
                      ref->start_offset = raw_offset;
                      last->next = ref;
                  }
              }

              if (ref_is_new)
              {
                  dof_transport_packet *tp = &(ref->transport_packet);

                  tp->is_sent_by_client = false0;
                  if (addresses_equal(&session->client.addr, &pinfo->src) &&
                      (session->client.port == pinfo->srcport))
                      tp->is_sent_by_client = true1;

                  ref->api_data.transport_session = (dof_transport_session *)&(session->common);
                  ref->api_data.transport_packet = tp;
              }


              dissect_dof_common(next_tvb, pinfo, tree, &ref->api_data);
          }

          offset += packet_length;
      }

      return offset;
  }
6201}

6203#if 0 /* TODO not used yet */
6204/**
* This dissector is registered with the UDP protocol on the standard DPS port.
* It will be used for anything that involves that port (source or destination).
*/
6208#if 0
6209static int dissect_tunnel_udp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
6210{
  conversation_t *conversation;
  dof_packet_data *packet;

  /* Initialize the default transport session structure. */
  if (!udp_transport_session)
  udp_transport_session = se_alloc0(sizeof(*udp_transport_session));

  conversation = find_or_create_conversation(pinfo);

  /* Add the packet data. */
  packet = p_get_proto_data(wmem_file_scope(), proto_2012_1_tunnel, 0);
  if (!packet)
  {
      packet = wmem_alloc0(wmem_file_scope(), sizeof(dof_packet_data));
      packet->frame = pinfo->fd->num;
      packet->next = NULL((void*)0);
      packet->start_offset = 0;
      packet->session_counter = &session_counter;
      packet->transport_session = udp_transport_session;
      p_add_proto_data(wmem_file_scope(), proto_2012_1_tunnel, 0, packet);
  }

  pinfo->private_data = packet;
  return dissect_tunnel_common(tvb, pinfo, tree);
6235#else
6236static int dissect_tunnel_udp(tvbuff_t *tvb _U___attribute__((unused)), packet_info *pinfo _U___attribute__((unused)), proto_tree *tree _U___attribute__((unused)), void *data _U___attribute__((unused)))
6237{
6238#endif
  return 0;
6240}
6241#endif


6244/**
* This dissector is registered with TCP using the standard port. It uses registered
* protocols to determine framing, and those dissectors will call into the base
* DPS dissector for each packet.
*/
6249static int dissect_tunnel_tcp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
6250{
  conversation_t *conversation;
  tcp_session_data *session;
  tcp_packet_data *packet;
  struct tcpinfo *tcpinfo = (struct tcpinfo *)data;

  /* Get the TCP conversation. TCP creates a new conversation for each TCP connection,
  * so we can "mirror" that by attaching our own data to that conversation. If our
  * data cannot be found, then it is a new connection (to us).
  */
  conversation = find_conversation_pinfo(pinfo, 0);
  {
      /* This should be impossible - the TCP dissector requires this conversation.
      * Bail...
      */
      DISSECTOR_ASSERT(conversation != NULL)((void) ((conversation != ((void*)0)) ? (void)0 : (proto_report_dissector_bug
("%s:%u: failed assertion \"%s\"", "epan/dissectors/packet-dof.c"
, 6265, "conversation != ((void*)0)"))));
  }


  /* This requires explanation. TCP will call this dissector, and we know
  * that the first byte (offset 0 of this tvb) is the first byte of an
  * DPS packet. The TCP dissector ensures this.
  *
  * We do *not* know that this is the only packet, and
  * so the dissector that we call below must handle framing. All of
  * this state must be stored, and so we store it in a transport
  * data structure. DPS packet data is created later and associated
  * differently.
  *
  * Further, this routine MAY be called MULTIPLE times for the SAME
  * frame with DIFFERENT sequence numbers. This makes handling
  * retransmissions very difficult - we must track each call to this
  * routine with its associated offset and ignore flag. However, due
  * to the way that Wireshark handles asking for more data we cannot
  * mark an offset as "duplicate" until after it has been processed.
  */

  /* TCP packet data is only associated with TCP frames that hold DPS packets. */
  session = (tcp_session_data *)conversation_get_proto_data(conversation, proto_2012_1_tunnel);
  if (session == NULL((void*)0))
  {
      session = create_tcp_session_data(pinfo, conversation);
      conversation_add_proto_data(conversation, proto_2012_1_tunnel, session);
  }

  packet = (tcp_packet_data *)p_get_proto_data(wmem_file_scope(), pinfo, proto_2012_1_tunnel, 0);
  if (packet == NULL((void*)0))
  {
      packet = wmem_new0(wmem_file_scope(), tcp_packet_data)((tcp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(tcp_packet_data
)));
      p_add_proto_data(wmem_file_scope(), pinfo, proto_2012_1_tunnel, 0, packet);
  }

  if (is_retransmission(pinfo, session, packet, tcpinfo))
      return 0;

  /* Loop, checking all the packets in this TCP frame.
  */
  {
      /* Note that we must handle fragmentation on TCP... */
      unsigned offset = 0;

      while (offset < tvb_reported_length(tvb))
      {
          int available = tvb_reported_length_remaining(tvb, offset);
          int packet_length;
          int header_length;
          int i;

          if (available < 3)
          {
              pinfo->desegment_offset = offset;
              pinfo->desegment_len = DESEGMENT_ONE_MORE_SEGMENT0x0fffffff;
              return offset + available;
          }

          packet_length = 0;
          header_length = 3;

          for (i = 0; i < 2; i++)
              packet_length = packet_length * 256 + tvb_get_uint8(tvb, offset + 1 + i);

          packet_length += header_length;

          if (available < packet_length)
          {
              pinfo->desegment_offset = offset;
              pinfo->desegment_len = packet_length - available;
              return offset + available;
          }

          /* We have a packet. We have to store the dof_packet_data in a list, as there may be
          * multiple DPS packets in a single Wireshark frame.
          */
          {
              tvbuff_t *next_tvb = tvb_new_subset_length(tvb, offset, packet_length);
              tcp_dof_packet_ref *ref;
              int raw_offset = tvb_raw_offset(tvb) + offset;
              bool_Bool ref_is_new = false0;

              /* Get the packet data. This is a list in increasing sequence order. */
              if (packet->dof_packets == NULL((void*)0))
              {
                  ref_is_new = true1;
                  ref = wmem_new0(wmem_file_scope(), tcp_dof_packet_ref)((tcp_dof_packet_ref*)wmem_alloc0((wmem_file_scope()), sizeof
(tcp_dof_packet_ref)));
                  ref->transport_packet.sender_id = assign_addr_port_id(pinfo->pool, &pinfo->src, pinfo->srcport);
                  ref->transport_packet.receiver_id = assign_addr_port_id(pinfo->pool, &pinfo->dst, pinfo->destport);
                  packet->dof_packets = ref;
                  ref->start_offset = raw_offset;
              }
              else
                  ref = packet->dof_packets;

              /* Find the entry for our offset. */
              while (ref->start_offset != raw_offset)
              {
                  if (ref->next)
                  {
                      ref = ref->next;
                      continue;
                  }

                  {
                      tcp_dof_packet_ref *last = ref;

                      /* This is the default state, NULL and 0. */
                      ref_is_new = true1;
                      ref = wmem_new0(wmem_file_scope(), tcp_dof_packet_ref)((tcp_dof_packet_ref*)wmem_alloc0((wmem_file_scope()), sizeof
(tcp_dof_packet_ref)));
                      ref->transport_packet.sender_id = last->transport_packet.sender_id;
                      ref->transport_packet.receiver_id = last->transport_packet.receiver_id;
                      ref->start_offset = raw_offset;
                      last->next = ref;
                  }
              }

              if (ref_is_new)
              {
                  dof_transport_packet *tp = &(ref->transport_packet);

                  tp->is_sent_by_client = false0;
                  if (addresses_equal(&session->client.addr, &pinfo->src) &&
                      (session->client.port == pinfo->srcport))
                      tp->is_sent_by_client = true1;

                  ref->api_data.transport_session = (dof_transport_session *)&(session->common);
                  ref->api_data.transport_packet = tp;
              }

              /* Manage the private data, restoring the existing value. Call the common dissector. */
              {
                  dissect_tunnel_common(next_tvb, pinfo, tree, ref);
              }
          }

          offset += packet_length;
      }

      return tvb_captured_length(tvb);
  }
6408}

6410/* Dissectors */

6412static int dissect_dnp_0(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
6413{
  unsigned offset = 0;

  uint8_t dnp_flags_included = 0;

  offset = 0;
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the DNP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t header = tvb_get_uint8(tvb, offset);

      dnp_flags_included = (header & 0x80) != 0;

      offset += 1;

      {
          col_set_str(pinfo->cinfo, COL_PROTOCOL, "DNPv0 ");

          if (dnp_flags_included)
          {
              /* TODO: Protocol violation. */
          }

          if (tvb_reported_length(tvb) == offset)
              col_set_str(pinfo->cinfo, COL_INFO, "Query");
          else
          {
              uint8_t first = tvb_get_uint8(tvb, offset);
              if (first == 0)
              {
                  /* Query with padding. */
                  col_set_str(pinfo->cinfo, COL_INFO, "Query");
                  proto_tree_add_item(tree, hf_2008_1_dnp_0_1_1_padding, tvb, offset, -1, ENC_NA0x00000000);
              }
              else
              {
                  /* Response. */
                  col_set_str(pinfo->cinfo, COL_INFO, "Query Response");
                  while (first)
                  {
                      proto_tree_add_item(tree, hf_2008_1_dnp_0_1_1_version, tvb, offset, 1, ENC_NA0x00000000);
                      offset += 1;
                      if (offset == tvb_reported_length(tvb))
                          break;

                      first = tvb_get_uint8(tvb, offset);
                  }

                  if (offset < tvb_reported_length(tvb))
                      proto_tree_add_item(tree, hf_2008_1_dnp_0_1_1_padding, tvb, offset, -1, ENC_NA0x00000000);
              }
          }
      }
  }

  col_set_fence(pinfo->cinfo, COL_PROTOCOL);
  col_set_fence(pinfo->cinfo, COL_INFO);
  return tvb_reported_length(tvb);
6474}

6476/**
* Determine the length of the packet in tvb, starting at an offset that is passed as a
* pointer in private_data.
* Return 0 if the length cannot be determined because there is not enough data in
* the buffer, otherwise return the length of the packet.
*/
6482static int determine_packet_length_1(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree _U___attribute__((unused)), void *data)
6483{
  /* Note that we must handle fragmentation on TCP... */
  int offset = *((int *)data);

  {
      int available = tvb_ensure_captured_length_remaining(tvb, offset);
      uint8_t header, flags;
      uint8_t size;
      uint8_t i;
      int data_len, header_len;

      if (available < 2)
          return 0;

      header = tvb_get_uint8(tvb, offset);
      data_len = 0;

      if ((header & 0x80) == 0)
      {
          /* The length is fixed in this case... */
          data_len = 0;
          header_len = 2;
          size = 0;
      }
      else
      {
          flags = tvb_get_uint8(tvb, offset + 1);
          size = flags & 0x03;
          header_len = 2 + size;
      }

      if (available < header_len)
          return 0;

      for (i = 0; i < size; i++)
          data_len = data_len * 256 + tvb_get_uint8(tvb, offset + 2 + i);

      return header_len + data_len;
  }
6522}

6524static int dissect_dnp_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
6525{
  unsigned offset = 0;
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet;

  int8_t dnp_version = -1;
  uint8_t dnp_flags_included = 0;
  uint8_t dnp_length_length = 0;
  uint32_t dnp_flags = 0;

  unsigned length = 0;
  unsigned encapsulated_length = 0;

  int i;

  proto_tree *dnp_tree = tree;

  if (!api_data)
  {
      /* TODO: Print error */
      return 0;
  }

  if (!api_data->packet)
  {
      /* TODO: Print error */
      return 0;
  }

  packet = api_data->packet;

  offset = 0;
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the DNP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t header = tvb_get_uint8(tvb, offset);
      uint32_t dnp_src_port = 0;
      uint32_t dnp_dst_port = 0;

      dnp_version = header & 0x7F;
      dnp_flags_included = (header & 0x80) != 0;


      offset += 1;

      {
          col_set_str(pinfo->cinfo, COL_PROTOCOL, "DNPv1 ");

          if (dnp_flags_included)
          {
              /* Including flags always terminates negotiation. */
              /* packet->negotiated = true; */

              proto_item *flags_item;

              dnp_flags = tvb_get_uint8(tvb, offset);
              flags_item = proto_tree_add_bitmask(dnp_tree, tvb, offset, hf_2009_9_dnp_1_flags, ett_2009_9_dnp_1_flags, bitmask_2009_9_dnp_1_flags, ENC_BIG_ENDIAN0x00000000);
              if ((dnp_flags & 0xF0) != 0)
                  expert_add_info(pinfo, flags_item, &ei_dof_10_flags_zero);

              offset += 1;
          }
          else
              dnp_flags = DNP_V1_DEFAULT_FLAGS(0);

          /* Determine the size of the length field. */
          dnp_length_length = dnp_flags & 0x03;
          if (dnp_length_length)
              proto_tree_add_item(dnp_tree, hf_2009_9_dnp_1_length, tvb, offset, dnp_length_length, ENC_BIG_ENDIAN0x00000000);

          /* Read the length. */
          length = 0;
          for (i = 0; i < dnp_length_length; i++)
              length = (length << 8) | tvb_get_uint8(tvb, offset + i);

          /* Validate the length. */
6604#if 0
          if ( (length == 0) && packet->negotiated && session && ! session->connectionless )
          {
          expert_add_info( pinfo, NULL((void*)0), &ei_dof_13_length_specified );
          }
6609#endif

          offset += dnp_length_length;

          /* If there isn't a length specified then use the packet size. */
          if (dnp_length_length == 0)
              length = tvb_reported_length_remaining(tvb, offset);

          encapsulated_length = length;

          /* Read the srcport */
          if (dnp_flags & 0x04)
          {
              int s_offset = offset;
              proto_item *item;
              int dnp_src_port_len;

              offset = read_c3(tvb, offset, &dnp_src_port, &dnp_src_port_len);
              item = proto_tree_add_uint_format(dnp_tree, hf_2009_9_dnp_1_srcport, tvb, s_offset, offset - s_offset, dnp_src_port, "Source Address: %u", dnp_src_port);
              validate_c3(pinfo, item, dnp_src_port, dnp_src_port_len);
              if (s_offset < 0 || offset < (unsigned)s_offset || offset - (unsigned)s_offset > encapsulated_length)
              {
                  expert_add_info(pinfo, item, &ei_dof_dnp_length_short);
                  return offset;
              }
              encapsulated_length -= offset - (unsigned)s_offset;
          }
          else
          {
              proto_item *item = proto_tree_add_uint_format(dnp_tree, hf_2009_9_dnp_1_srcport, tvb, 0, 0, 0, "Source Address: %u", 0);
              proto_item_set_generated(item);
          }

          /* Read the dstport */
          if (dnp_flags & 0x08)
          {
              int s_offset = offset;
              int dnp_dst_port_len;
              proto_item *item;

              offset = read_c3(tvb, offset, &dnp_dst_port, &dnp_dst_port_len);
              item = proto_tree_add_uint_format(dnp_tree, hf_2009_9_dnp_1_dstport, tvb, s_offset, offset - s_offset, dnp_dst_port, "Destination Address: %u", dnp_dst_port);
              validate_c3(pinfo, item, dnp_dst_port, dnp_dst_port_len);
              if (s_offset < 0 || offset < (unsigned)s_offset || offset - (unsigned)s_offset > encapsulated_length)
              {
                  expert_add_info(pinfo, item, &ei_dof_dnp_length_short);
                  return offset;
              }
              encapsulated_length -= offset - (unsigned)s_offset;
          }
          else
          {
              proto_item *item = proto_tree_add_uint_format(dnp_tree, hf_2009_9_dnp_1_dstport, tvb, 0, 0, 0, "Destination Address: %u", 0);
              proto_item_set_generated(item);
          }
      }

      proto_item_set_end(tree, tvb, offset);

      /* Given the transport session and the DPS port information, determine the DPS session. */
      if (api_data->session == NULL((void*)0))
      {
          uint32_t client;
          uint32_t server;

          if (api_data->transport_packet->is_sent_by_client)
          {
              client = dnp_src_port;
              server = dnp_dst_port;
          }
          else
          {
              client = dnp_dst_port;
              server = dnp_src_port;
          }

          api_data->session = dof_ns_session_retrieve(api_data->transport_session->transport_session_id, client, server);
          if (api_data->session == NULL((void*)0))
          {
              dof_session_data *sdata = wmem_new0(wmem_file_scope(), dof_session_data)((dof_session_data*)wmem_alloc0((wmem_file_scope()), sizeof(dof_session_data
)));
              dof_ns_session_define(api_data->transport_session->transport_session_id, client, server, sdata);
              sdata->session_id = globals.next_session++;
              sdata->dof_id = dnp_version;
              api_data->session = sdata;
          }
      }

      packet->sender_id = dnp_src_port;
      packet->receiver_id = dnp_dst_port;

      /* Assuming there is more, it must be DPP. */

      /* We have a packet. */
      {
          tvbuff_t *next_tvb = tvb_new_subset_length(tvb, offset, encapsulated_length);
          offset += dof_dissect_dpp_common(next_tvb, pinfo, proto_item_get_parent(tree), data);
      }
  }

  col_set_fence(pinfo->cinfo, COL_PROTOCOL);
  col_set_fence(pinfo->cinfo, COL_INFO);
  return offset;
6711}

6713static int dissect_dpp_0(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
6714{
  unsigned offset = 0;

  uint8_t dpp_flags_included = 0;

  offset = 0;
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the DPP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t header = tvb_get_uint8(tvb, offset);

      dpp_flags_included = (header & 0x80) != 0;

      offset += 1;

      {
          col_set_str(pinfo->cinfo, COL_PROTOCOL, "DPPv0 ");

          if (dpp_flags_included)
          {
              /* TODO: Protocol violation. */
          }

          if (tvb_reported_length(tvb) == offset)
              col_set_str(pinfo->cinfo, COL_INFO, "Query");
          else
          {
              uint8_t first = tvb_get_uint8(tvb, offset);
              /* Response. */
              col_set_str(pinfo->cinfo, COL_INFO, "Query Response");
              while (first)
              {
                  proto_tree_add_item(tree, hf_2008_1_dpp_0_1_1_version, tvb, offset, 1, ENC_NA0x00000000);
                  offset += 1;
                  if (offset == tvb_reported_length(tvb))
                      break;

                  first = tvb_get_uint8(tvb, offset);
              }
          }
      }
  }

  col_set_fence(pinfo->cinfo, COL_PROTOCOL);
  col_set_fence(pinfo->cinfo, COL_INFO);
  return tvb_reported_length(tvb);
6763}

6765static int dissect_dpp_v2_common(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
6766{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;
  unsigned offset = 0;
  uint8_t opcode;
  uint16_t app;
  int app_len;
  proto_item *ti;
  proto_tree *dpps_tree;
  proto_tree *opid_tree;

  if (api_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "DPPs ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_2009_12_dpp_common, tvb, offset, -1, ENC_NA0x00000000);
  dpps_tree = proto_item_add_subtree(ti, ett_2009_12_dpp_common);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(dpps_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);


  /* Retrieve the opcode. */
  opcode = tvb_get_uint8(tvb, offset);
  if (!packet_data->is_command)
      opcode |= OP_2009_12_RESPONSE_FLAG(0x80);

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, opcode, strings_2009_12_dpp_common_opcodes, "Unknown Opcode (%d)"));

  /* Opcode */
  proto_tree_add_uint_format(dpps_tree, hf_2009_12_dpp_2_14_opcode, tvb, offset, 1, opcode & 0x3F, "Opcode: %s (%u)", val_to_str(pinfo->pool, opcode, strings_2009_12_dpp_common_opcodes, "Unknown Opcode (%d)"), opcode & 0x3F);
  offset += 1;

  switch (opcode)
  {
  case OP_2009_12_SOURCE_LOST_CMD(1):
  case OP_2009_12_SOURCE_FOUND_CMD(8):
  case OP_2009_12_RENAME_CMD(2):
      packet_data->has_referenced_opid = true1;

      /* FALL THROUGH */

  case OP_2009_12_CANCEL_ALL_CMD(4):
  case OP_2009_12_NODE_DOWN_CMD(0):
  case OP_2009_12_QUERY_RSP((0x80)|(6)):
      /* SID */
  {
      proto_tree *oid_tree;
      int opid_len;
      tvbuff_t *next_tvb;

      if (packet_data->has_referenced_opid)
      {
          opid_tree = proto_tree_add_subtree(dpps_tree, tvb, offset, 0, ett_2009_12_dpp_2_opid, NULL((void*)0), "Operation Identifier");
      }
      else
      {
          opid_tree = dpps_tree;
      }

      oid_tree = proto_tree_add_subtree(opid_tree, tvb, offset, 0, ett_2009_12_dpp_2_opid, NULL((void*)0), "Source Identifier");

      next_tvb = tvb_new_subset_length(tvb, offset, tvb_reported_length(tvb) - offset);
      opid_len = call_dissector_only(dof_oid_handle, next_tvb, pinfo, oid_tree, NULL((void*)0));

      learn_sender_sid(api_data, opid_len, tvb_get_ptr(next_tvb, 0, opid_len));
      if (packet_data->has_referenced_opid)
          learn_operation_sid(packet_data, &packet_data->ref_op, opid_len, tvb_get_ptr(next_tvb, 0, opid_len));

      offset += opid_len;
  }

      if (packet_data->has_referenced_opid)
      {
          uint32_t opcnt;
          int opcnt_len;
          proto_item *pi;

          read_c4(tvb, offset, &opcnt, &opcnt_len);
          pi = proto_tree_add_uint_format(opid_tree, hf_2009_12_dpp_2_1_opcnt, tvb, offset, opcnt_len, opcnt, "Operation Count: %u", opcnt);
          validate_c4(pinfo, pi, opcnt, opcnt_len);
          offset += opcnt_len;

          packet_data->ref_op.op_cnt = opcnt;
      }

      break;
  }
  return offset;
6871}

6873static int dissect_dpp_2(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
6874{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;

  proto_item *ti = NULL((void*)0);
  proto_item *tf = NULL((void*)0);
  proto_item *opid = NULL((void*)0);

  int opid_start = -1;
  uint8_t dpp_flags_included = 0;
  uint32_t dpp_flags = 0;
  uint8_t dpp_opid_keytype = 0;

  proto_tree *dpp_flags_tree;
  proto_tree *opid_tree = NULL((void*)0);


  unsigned offset = 0;

  proto_tree *dpp_tree = tree;

  if (api_data == NULL((void*)0))
1
Assuming 'api_data' is not equal to NULL→
2
←
Taking false branch→
  {
      /* TODO: Output error. */
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
3
←
Assuming 'packet_data' is not equal to NULL→
4
←
Taking false branch→
  {
      /* TODO: Output error. */
      return 0;
  }

  /* We should have everything required for determining the SID ID. */
  assign_sid_id(api_data);

  offset = 0;
  col_clear(pinfo->cinfo, COL_INFO);

  /* Compute the DPP control information. This is the version and the flags byte.
  * The flags byte is either present, or is based on the version (and can be defaulted).
  */
  {
      uint8_t header = tvb_get_uint8(tvb, offset);
      dpp_flags_included = (header & 0x80) != 0;
5
←
Assuming the condition is true→
      offset += 1;

      {
          col_set_str(pinfo->cinfo, COL_PROTOCOL, "DPPv2 ");

          ti = proto_tree_add_uint_format(tree, hf_2008_1_dpp_sid_num, tvb,
                                          0, 0, packet_data->sender_sid_id, "SID ID: %d", packet_data->sender_sid_id);
          proto_item_set_generated(ti);

          if (packet_data->sender_sid)
6
←
Assuming field 'sender_sid' is null→
7
←
Taking false branch→
          {
              const char *SID = dof_oid_create_standard_string(pinfo->pool, packet_data->sender_sid[0], packet_data->sender_sid + 1, pinfo);
              ti = proto_tree_add_bytes_format_value(tree, hf_2008_1_dpp_sid_str, tvb, 0, 0, packet_data->sender_sid, "%s", SID);
              proto_item_set_generated(ti);
          }

          ti = proto_tree_add_uint_format(tree, hf_2008_1_dpp_rid_num, tvb,
                                          0, 0, packet_data->receiver_sid_id, "RID ID: %d", packet_data->receiver_sid_id);
          proto_item_set_generated(ti);

          if (packet_data->receiver_sid)
8
←
Assuming field 'receiver_sid' is null→
9
←
Taking false branch→
          {
              const char *SID = dof_oid_create_standard_string(pinfo->pool, packet_data->receiver_sid[0], packet_data->receiver_sid + 1, pinfo);
              ti = proto_tree_add_bytes_format_value(tree, hf_2008_1_dpp_rid_str, tvb, 0, 0, packet_data->receiver_sid, "%s", SID);
              proto_item_set_generated(ti);
          }

          if (dpp_flags_included9.1
'dpp_flags_included' is 1
)
10
←
Taking true branch→
          {
              dpp_flags = tvb_get_uint8(tvb, offset);
              tf = proto_tree_add_uint_format(dpp_tree, hf_2009_12_dpp_2_1_flags, tvb,
                                              offset, 1, dpp_flags, "Flags: 0x%02x", dpp_flags);
              if (((dpp_flags & 0x10) != 0) && ((dpp_flags & 0x0F) != 0))
11
←
Assuming the condition is false→
                  expert_add_info(pinfo, tf, &ei_dpp2_dof_10_flags_zero);
              if (((dpp_flags & 0x10) == 0) && ((dpp_flags & 0x09) != 0))
12
←
Assuming the condition is false→
13
←
Taking false branch→
                  expert_add_info(pinfo, tf, &ei_dpp2_dof_10_flags_zero);

              dpp_flags_tree = proto_item_add_subtree(tf, ett_2009_12_dpp_2_1_flags);

              if (dpp_flags == DPP_V2_DEFAULT_FLAGS(0))
14
←
Assuming 'dpp_flags' is not equal to DPP_V2_DEFAULT_FLAGS→
15
←
Taking false branch→
                  expert_add_info(pinfo, dpp_flags_tree, &ei_dpp_default_flags);

              proto_tree_add_item(dpp_flags_tree, hf_2009_12_dpp_2_1_flag_security, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(dpp_flags_tree, hf_2009_12_dpp_2_1_flag_opid, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(dpp_flags_tree, hf_2009_12_dpp_2_1_flag_cmdrsp, tvb, offset, 1, ENC_NA0x00000000);
              if ((dpp_flags & 0x10) == 0)
16
←
Taking true branch→
              {
                  proto_tree_add_item(dpp_flags_tree, hf_2009_12_dpp_2_1_flag_seq, tvb, offset, 1, ENC_NA0x00000000);
                  proto_tree_add_item(dpp_flags_tree, hf_2009_12_dpp_2_1_flag_retry, tvb, offset, 1, ENC_NA0x00000000);
              }

              offset += 1;
          }
          else
              dpp_flags = DPP_V2_DEFAULT_FLAGS(0);

          packet_data->is_command = (dpp_flags & 0x10) == 0;

          /* We are allowed to be complete here if still negotiating. */
          /*if ( ! packet->negotiated && (offset == tvb_reported_length(tvb)) )
          {
          col_set_str( pinfo->cinfo, COL_INFO, "DPS Negotiation" );
          return 1;
          }*/

          dpp_opid_keytype = (dpp_flags & 0x60) >> 5;
          switch (dpp_opid_keytype)
17
←
Control jumps to 'case 3:'  at line 7004→
          {
          case 0: /* No OPID */
              packet_data->has_opid = false0;
              break;

          case 1: /* Implied sender. */
              packet_data->has_opid = true1;
              packet_data->op.op_sid_id = packet_data->sender_sid_id;
              packet_data->op.op_sid = packet_data->sender_sid;
              break;

          case 2: /* Implied receiver. */
              packet_data->has_opid = true1;
              packet_data->op.op_sid_id = packet_data->receiver_sid_id;
              packet_data->op.op_sid = packet_data->receiver_sid;
              break;

          case 3: /* Explicit. */
              packet_data->has_opid = true1;
              break;
          }

          if (dpp_opid_keytype18.1
'dpp_opid_keytype' is not equal to 0
 != 0)
18
←
 Execution continues on line 7009→
19
←
Taking true branch→
          {
              opid_start = offset;
              opid_tree = proto_tree_add_subtree(dpp_tree, tvb, offset, 0, ett_2009_12_dpp_2_opid, NULL((void*)0), "Operation Identifier");
          }

          switch (dpp_opid_keytype)
20
←
Control jumps to 'case 3:'  at line 7020→
          {
          case 0: /* We have no opid. */
              break;

          case 3: /* Explicit. */
          {
              proto_tree *oid_tree;
              tvbuff_t *next_tvb;
              int opid_len;

              oid_tree = proto_tree_add_subtree(opid_tree, tvb, offset, 0, ett_2009_12_dpp_2_opid, NULL((void*)0), "Source Identifier");

              next_tvb = tvb_new_subset_length(tvb, offset, tvb_reported_length(tvb) - offset);
              opid_len = call_dissector_only(dof_oid_handle, next_tvb, pinfo, oid_tree, NULL((void*)0));
              proto_item_set_len(oid_tree, opid_len);

              learn_operation_sid(packet_data, &packet_data->op, opid_len, tvb_get_ptr(next_tvb, 0, opid_len));
21
←
Calling 'learn_operation_sid'→
35
←
Returning from 'learn_operation_sid'→

              /* Warn if Explicit SID could be optimized. */
              if (packet_data->op.op_sid_id == packet_data->sender_sid_id)
36
←
Assuming field 'op_sid_id' is not equal to field 'sender_sid_id'→
37
←
Taking false branch→
                  expert_add_info(pinfo, ti, &ei_dpp_explicit_sender_sid_included);
              if (packet_data->op.op_sid_id == packet_data->receiver_sid_id)
38
←
Assuming field 'op_sid_id' is not equal to field 'receiver_sid_id'→
39
←
Taking false branch→
                  expert_add_info(pinfo, ti, &ei_dpp_explicit_receiver_sid_included);

              offset += opid_len;
          }

              /* FALL THROUGH */

          case 1: /* Implied sender. */
          case 2: /* Implied receiver. */
          {
              uint32_t opcnt;
              int opcnt_len;
              proto_item *pi;

              /* Display the SID if known. */
              if ((dpp_opid_keytype39.1
'dpp_opid_keytype' is equal to 3
 != 3) && packet_data->op.op_sid)
              {
                  proto_tree *oid_tree;

                  tvbuff_t *next_tvb = tvb_new_child_real_data(tvb, packet_data->op.op_sid + 1, packet_data->op.op_sid[0], packet_data->op.op_sid[0]);
                  oid_tree = proto_tree_add_subtree(opid_tree, tvb, 0, 0, ett_2009_12_dpp_2_opid, NULL((void*)0), "Source Identifier");

                  call_dissector_only(dof_oid_handle, next_tvb, pinfo, oid_tree, NULL((void*)0));

                  proto_item_set_generated(ti);
              }

              read_c4(tvb, offset, &opcnt, &opcnt_len);
              pi = proto_tree_add_uint_format(opid_tree, hf_2009_12_dpp_2_1_opcnt, tvb, offset, opcnt_len, opcnt, "Operation Count: %u", opcnt);
              validate_c4(pinfo, pi, opcnt, opcnt_len);
              offset += opcnt_len;

              proto_item_set_len(opid, offset - opid_start);

              packet_data->op.op_cnt = opcnt;

              /* At this point we have a packet with an operation identifier. We need to
              * update the master list of operation identifiers, and do any checking that
              * we can in order to validate things.
              */
              if (packet_data->has_opid && !packet_data->opid_first)
40
←
Assuming field 'has_opid' is false→
              {
                  dof_packet_data *first = (dof_packet_data *)g_hash_table_lookup(dpp_opid_to_packet_data, (const void *) & packet_data->op);
                  if (first == NULL((void*)0))
                  {
                      /* First reference to this operation. */
                      g_hash_table_insert(dpp_opid_to_packet_data, (void *) & packet_data->op, (void *)packet_data);
                      packet_data->opid_first = packet_data;
                      packet_data->opid_last = packet_data;

                      /* The first opid must be a command. */
                  }
                  else
                  {
                      /* Operation exists, time to patch things in. */
                      packet_data->opid_first = first;
                      first->opid_last->opid_next = packet_data;
                      first->opid_last = packet_data;

                      if (!packet_data->is_command)
                      {
                          if (!first->opid_first_response)
                          {
                              first->opid_first_response = packet_data;
                              first->opid_last_response = packet_data;
                          }
                          else
                          {
                              first->opid_last_response->opid_next_response = packet_data;
                              first->opid_last_response = packet_data;
                          }
                      }
                  }
              }


              /* Add all the reference information to the tree. */
              if (globals.track_operations && tree)
41
←
Assuming field 'track_operations' is true→
42
←
Assuming 'tree' is non-null→
43
←
Taking true branch→
              {
                  proto_tree *ophistory_tree = proto_tree_add_subtree(tree, tvb, 0, 0, ett_2009_12_dpp_2_opid_history, NULL((void*)0), "Operation History");

                  dof_packet_data *ptr = packet_data->opid_first;
44
←
'ptr' initialized here→

                  if (ptr)
45
←
Assuming 'ptr' is null→
                      proto_tree_add_uint_format(ophistory_tree, hf_2008_1_dpp_first_command,
                                                 tvb, 0, 0, ptr->frame,
                                                 "First Operation: %u",
                                                 ptr->frame);

                  if (ptr->opid_last && ptr->opid_last != ptr)
46
←
Access to field 'opid_last' results in a dereference of a null pointer (loaded from variable 'ptr')
                      proto_tree_add_uint_format(ophistory_tree, hf_2008_1_dpp_last_command,
                                                 tvb, 0, 0, ptr->opid_last->frame,
                                                 "Last Operation: %u",
                                                 ptr->opid_last->frame);

                  if (ptr->opid_first_response)
                      proto_tree_add_uint_format(ophistory_tree, hf_2008_1_dpp_first_response,
                                                 tvb, 0, 0, ptr->opid_first_response->frame,
                                                 "First Response: %u",
                                                 ptr->opid_first_response->frame);

                  if (ptr->opid_last_response && ptr->opid_last_response != ptr->opid_first_response)
                      proto_tree_add_uint_format(ophistory_tree, hf_2008_1_dpp_last_response,
                                                 tvb, 0, 0, ptr->opid_last_response->frame,
                                                 "Last Response: %u",
                                                 ptr->opid_last_response->frame);

                  /* Determine the window start, then output the number of packets. Output the number of skipped packets before
                  * and after.
                  */
                  {
                      dof_packet_data *start = packet_data->opid_first;
                      unsigned diff = 0;
                      while (ptr)
                      {
                          if (ptr == packet_data)
                              break;

                          ptr = ptr->opid_next;
                          diff += 1;

                          if (diff > globals.track_operations_window)
                          {
                              start = start->opid_next;
                              diff -= 1;
                          }
                      }

                      ptr = start;
                      diff = 0;

                      while (ptr)
                      {
                          const char *THIS = "";

                          if (ptr == packet_data)
                          {
                              THIS = "this ";
                              diff = globals.track_operations_window + 1;
                          }

                          /* (DPS Frame) [ws WS Frame]: (SID)->(RID): (THIS) (SUMMARY) */
                          proto_tree_add_uint_format(ophistory_tree, hf_2008_1_dpp_related_frame,
                                                     tvb, 0, 0, ptr->frame,
                                                     "%u[ws %u]: %u->%u: %s%s",
                                                     ptr->dof_frame, ptr->frame,
                                                     ptr->sender_sid_id, ptr->receiver_sid_id,
                                                     THIS,
                                                     ptr->summary ? ptr->summary : "");

                          ptr = ptr->opid_next;
                          if (diff && !--diff)
                              break;
                      }
                  }
              }
          }
              break;
          }

          proto_item_set_len(opid_tree, offset - opid_start);

          {
              if ((dpp_flags & 0x10) == 0)
              {
                  uint8_t dpp_seq = 0;
                  uint8_t dpp_retry = 0;
                  uint16_t dpp_delay = 0;

                  /* Extract SEQ */
                  if (dpp_flags & 0x04)
                  {
                      dpp_seq = tvb_get_uint8(tvb, offset);
                      proto_tree_add_uint_format(dpp_tree, hf_2009_12_dpp_2_1_seq, tvb, offset, 1, dpp_seq, "Sequence: %u", dpp_seq);
                      offset += 1;
                  }

                  /* Extract Retry */
                  if (dpp_flags & 0x02)
                  {
                      dpp_retry = tvb_get_uint8(tvb, offset);
                      proto_tree_add_uint_format(dpp_tree, hf_2009_12_dpp_2_1_retry, tvb, offset, 1, dpp_retry, "Retry: %u", dpp_retry);
                      offset += 1;
                  }

                  /* Extract Delay */
                  {
                      dpp_delay = tvb_get_uint8(tvb, offset);
                      if (dpp_delay > 128)
                          dpp_delay = 128 + ((dpp_delay - 128) * 32);

                      proto_tree_add_uint_format(dpp_tree, hf_2009_12_dpp_2_1_delay, tvb, offset, 1, dpp_delay, "Delay: %u seconds", dpp_delay);
                      offset += 1;
                  }

                  packet_data->summary = wmem_strdup_printf(wmem_file_scope(), "command seq %u, retry %u, delay %u", dpp_seq, dpp_retry, dpp_delay);
              }
              else
                  packet_data->summary = "response";
          }

          /* Extract session information. */
          if (dpp_flags & 0x80)
          {
              uint32_t sec_offset = offset;
              uint8_t sh_flags;
              uint32_t ssid;
              proto_tree *security_tree;
              proto_tree *sec_flags_tree;
              proto_item *item;

              security_tree = proto_tree_add_subtree(dpp_tree, tvb, offset, -1, ett_2009_12_dpp_2_3_security, NULL((void*)0), "Security Header");

              sh_flags = tvb_get_uint8(tvb, offset);
              item = proto_tree_add_uint_format(security_tree, hf_2009_12_dpp_2_3_sec_flags, tvb,
                                                offset, 1, sh_flags, "Flags: 0x%02x", sh_flags);

              sec_flags_tree = proto_item_add_subtree(item, ett_2009_12_dpp_2_3_sec_flags);
              proto_tree_add_item(sec_flags_tree, hf_2009_12_dpp_2_3_sec_flag_secure, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(sec_flags_tree, hf_2009_12_dpp_2_3_sec_flag_rdid, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(sec_flags_tree, hf_2009_12_dpp_2_3_sec_flag_partition, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(sec_flags_tree, hf_2009_12_dpp_2_3_sec_flag_as, tvb, offset, 1, ENC_NA0x00000000);
              proto_tree_add_item(sec_flags_tree, hf_2009_12_dpp_2_3_sec_flag_ssid, tvb, offset, 1, ENC_NA0x00000000);
              offset += 1;

              ssid = 0;
              if (sh_flags & DPP_V2_SEC_FLAG_S(0x01))
              {
                  int s_offset = offset;
                  int ssid_len;
                  proto_item *pi;
                  offset = read_c4(tvb, offset, &ssid, &ssid_len);
                  pi = proto_tree_add_uint_format(security_tree, hf_2009_12_dpp_2_3_sec_ssid, tvb, s_offset, offset - s_offset, ssid, "Security State Identifier: %u (0x%x)", ssid, ssid);
                  validate_c4(pinfo, pi, ssid, ssid_len);
              }

              /* At this point we know the transport information, DNP port information, and the
              * SSID. This means that we can isolate the session that this communication belongs
              * to. Note that all uses of an SSID are scoped by the transport.
              */
              if (sh_flags & DPP_V2_SEC_FLAG_A(0x02))
                  ssid |= AS_ASSIGNED_SSID0x40000000;

              if (api_data->session && !api_data->secure_session)
              {
                  dof_secure_session_data *search = api_data->session->secure_sessions;
                  while (search)
                  {
                      if (ssid == search->ssid)
                          break;

                      search = search->next;
                  }

                  if (search)
                  {
                      api_data->session = search->parent;
                      api_data->secure_session = search;
                  }
              }

              if (sh_flags & DPP_V2_SEC_FLAG_D(0x08))
              {
                  int s_offset = offset;
                  uint32_t rdid;
                  int rdid_len;
                  proto_item *pi;
                  offset = read_c4(tvb, offset, &rdid, &rdid_len);
                  pi = proto_tree_add_uint_format(security_tree, hf_2009_12_dpp_2_3_sec_rdid, tvb, s_offset, offset - s_offset, rdid, "Remote Domain Identifier: %u (0x%x)", rdid, rdid);
                  validate_c4(pinfo, pi, rdid, rdid_len);

                  offset = dof_dissect_pdu_as_field(dissect_2008_16_security_10, tvb, pinfo, security_tree,
                                                    offset, hf_2009_12_dpp_2_3_sec_remote_partition, ett_2009_12_dpp_2_3_sec_remote_partition, NULL((void*)0));
              }

              if (sh_flags & DPP_V2_SEC_FLAG_P(0x04))
              {
                  offset = dof_dissect_pdu_as_field(dissect_2008_16_security_10, tvb, pinfo, security_tree,
                                                    offset, hf_2009_12_dpp_2_3_sec_partition, ett_2009_12_dpp_2_3_sec_partition, NULL((void*)0));
              }

              if (sh_flags & DPP_V2_SEC_FLAG_E(0x80))
              {
                  if (!packet_data->security_session_error && !api_data->secure_session)
                      packet_data->security_session_error = "[Encrypted - No Session Available]";

                  /* Security has not failed, and we have a security session. */
                  if (!packet_data->security_session_error)
                  {
                      dissector_table_t sec_header = find_dissector_table("dof.secmode");
                      /* TODO: CCM is hardcoded. We should try all of the sessions, which could mean multiple security modes. */
                      dissector_handle_t dp = dissector_get_uint_handle(sec_header, 0x6001); /* packet_data->security_session->security_mode); */
                      if (dp)
                      {
                          dof_secmode_api_data sdata;

                          sdata.context = HEADER;
                          sdata.security_mode_offset = offset;
                          sdata.dof_api = api_data;
                          sdata.secure_session = api_data->secure_session;
                          sdata.session_key_data = NULL((void*)0);

                          offset += call_dissector_only(dp, tvb, pinfo, security_tree, &sdata);
                      }
                  }

                  /* If we get here without success, then we can only bail. The
                   * error is shown in every pass, including the one that found it.
                   */
                  if (packet_data->security_session_error)
                  {
                      col_set_str(pinfo->cinfo, COL_INFO, packet_data->security_session_error);
                      proto_item_set_end(tree, tvb, offset);
                      expert_add_info(pinfo, security_tree, &ei_dpp_no_security_context);
                      {
                          tvbuff_t *data_tvb = tvb_new_subset_remaining(tvb, offset);
                          call_data_dissector(data_tvb, pinfo, tree);
                      }
                      proto_item_set_len(security_tree, offset - sec_offset);
                      return offset;
                  }

                  if (!packet_data->decrypted_buffer)
                  {
                      proto_item_set_end(tree, tvb, offset);
                      proto_item_set_len(security_tree, offset - sec_offset);
                      return offset;
                  }
              }
              proto_item_set_len(security_tree, offset - sec_offset);
          }

          /* The end of the packet must be called in the original tvb or chaos ensues... */
          proto_item_set_end(tree, tvb, offset);
      }


      if (packet_data->decrypted_tvb)
      {
          tvb = packet_data->decrypted_tvb;
          offset = packet_data->decrypted_offset;
      }

      /* Assuming there is more, it must be DPP. */
      /* We have a packet. We must handle the special case of this being *our* application
      * protocol (0x7FFF). If it is, then *we* are the dissector...
      */
      {
          uint16_t app;
          tvbuff_t *next_tvb = tvb_new_subset_length(tvb, offset, tvb_reported_length(tvb) - offset);

          read_c2(tvb, offset, &app, NULL((void*)0));
          if (app == 0x7FFF)
          {
              offset += dissect_dpp_v2_common(next_tvb, pinfo, proto_item_get_parent(tree), data);
          }
          else
          {
              offset += dissect_app_common(next_tvb, pinfo, proto_item_get_parent(tree), data);
          }
      }
  }

  col_set_fence(pinfo->cinfo, COL_PROTOCOL);
  col_set_fence(pinfo->cinfo, COL_INFO);
  return offset;
7404}

7406static int dissect_options(tvbuff_t *tvb, int offset, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
7407{
  while (offset < (int)tvb_captured_length(tvb))
  {
      proto_tree *subtree = proto_tree_add_subtree(tree, tvb, offset, 0, ett_2008_1_dsp_12_option, NULL((void*)0), "Option");
      tvbuff_t *next_tvb = tvb_new_subset_remaining(tvb, offset);
      int len = dissect_2008_1_dsp_1(next_tvb, pinfo, subtree);
      proto_item_set_len(proto_tree_get_parent(subtree), len);
      offset += len;
  }

  return offset;
7418}

7420static int dissect_dsp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
7421{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;
  unsigned offset = 0;
  uint8_t opcode;
  uint16_t app;
  int app_len;
  proto_item *ti;
  proto_tree *dsp_tree;
  proto_tree *options_tree;

  if (api_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "DSPv2 ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_2008_1_dsp, tvb, offset, -1, ENC_NA0x00000000);
  dsp_tree = proto_item_add_subtree(ti, ett_2008_1_dsp_12);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(dsp_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);

7458#if 0
  if (!packet->is_streaming)
  {
      col_set_str(pinfo->cinfo, COL_PROTOCOL, "DSPv2 ");

      if (tvb_captured_length(tvb) == offset)
      col_set_str(pinfo->cinfo, COL_INFO, "Query");
      else
      {
          col_set_str(pinfo->cinfo, COL_INFO, "Query Response");
          while (offset < tvb_captured_length(tvb))
          {
              uint16_t app;
              int start = offset;
              offset = read_c2(tvb, offset, &app, NULL((void*)0));
              proto_tree_add_uint(dsp_tree, hf_2008_1_app_version, tvb, start, offset - start, app);
          }
      }

      return offset;
  }
7479#endif

  if (offset == tvb_captured_length(tvb))
  {
      col_append_str(pinfo->cinfo, COL_INFO, "DSP [nop]");
      expert_add_info(pinfo, dsp_tree, &ei_implicit_no_op);

      return offset;
  }

  /* Determine the ESP opcode. */
  opcode = tvb_get_uint8(tvb, offset);

  if (!packet_data->is_command)
      opcode |= OP_2008_1_RSP(0x80);

  proto_tree_add_uint_format(dsp_tree, hf_2008_1_dsp_12_opcode, tvb, offset, 1, opcode, "Opcode: %s (%u)", val_to_str(pinfo->pool, opcode, strings_2008_1_dsp_opcodes, "Unknown Opcode (%d)"), opcode & 0x7F);
  offset += 1;
  col_append_sep_str(pinfo->cinfo, COL_INFO, "/", val_to_str(pinfo->pool, opcode, strings_2008_1_dsp_opcodes, "Unknown Opcode (%d)"));

  switch (opcode)
  {
  case OP_2008_1_OPEN_CMD6: /* 2008.1 DSP.14.1 */
      break;

  case OP_2008_1_OPEN_RSP((0x80)|6): /* 2008.1 DSP.14.2 */
  case OP_2008_1_OPEN_SECURE_RSP((0x80)|7): /* 2008.1 DSP.14.3 */
  {
      while (offset < tvb_captured_length(tvb))
      {
          uint16_t ap;
          int length;
          proto_item *pi;
          int start = offset;
          offset = read_c2(tvb, offset, &ap, &length);
          pi = proto_tree_add_uint(dsp_tree, hf_2008_1_app_version, tvb, start, offset - start, ap);
          validate_c2(pinfo, pi, ap, length);
      }
  }
      break;

  case OP_2008_1_QUERY_CMD0:
      break;

  case OP_2008_1_QUERY_RSP((0x80)|0):
      break;

  case OP_2008_1_CONFIG_ACK((0x80)|2):
      break;

  case OP_2008_1_CONFIG_REQ1:
      /* This will start a session if not existing... */
      /* FALL THROUGH */

  case OP_2008_1_CONFIG_NAK((0x80)|3):
  {
      int length = tvb_captured_length(tvb) - offset;

      options_tree = proto_tree_add_subtree_format(dsp_tree, tvb, offset, length, ett_2008_1_dsp_12_options, NULL((void*)0),
                                                   "DSP Options: (%d byte%s)", length, plurality(length, "", "s")((length) == 1 ? ("") : ("s")));
      offset = dissect_options(tvb, offset, pinfo, options_tree, NULL((void*)0));
  }
      break;

  case OP_2008_1_CONFIG_REJ((0x80)|4):
      /* TODO: Handle reject. */
      break;

  case OP_2008_1_TERMINATE_CMD5:
  case OP_2008_1_TERMINATE_RSP((0x80)|5):
      /* Nothing */
      break;
  }

  return offset;
7554}

7556static int dissect_ccm_dsp(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data _U___attribute__((unused)))
7557{
  /* We are handed a buffer that starts with an option and our protocol id. Any options follow that. */
  unsigned offset = 0;
  proto_item *parent = proto_tree_get_parent(tree);
  uint8_t len, strength_count, i;
  proto_item *ti;
  proto_tree *ccm_tree;

  /* Append description to the parent. */
  proto_item_append_text(parent, " (CCM)");

  /* Compute the version and flags, masking off other bits. */
  offset += 3; /* Skip the type and protocol. */
  len = tvb_get_uint8(tvb, offset++);

  ti = proto_tree_add_item(tree, hf_ccm_dsp_option, tvb, offset, len, ENC_NA0x00000000);
  ccm_tree = proto_item_add_subtree(ti, ett_ccm_dsp_option);

  proto_tree_add_item_ret_uint8(ccm_tree, hf_ccm_dsp_strength_count, tvb, offset++, 1, ENC_NA0x00000000, &strength_count);

  for (i = 0; i < strength_count; i++)
      proto_tree_add_item(ccm_tree, hf_ccm_dsp_strength, tvb, offset++, 1, ENC_NA0x00000000);

  proto_tree_add_item(ccm_tree, hf_ccm_dsp_e_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(ccm_tree, hf_ccm_dsp_m_flag, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(ccm_tree, hf_ccm_dsp_tmax, tvb, offset, 1, ENC_NA0x00000000);
  proto_tree_add_item(ccm_tree, hf_ccm_dsp_tmin, tvb, offset, 1, ENC_NA0x00000000);

  offset += 1;
  return offset;
7587}

7589/**
* This is the main entry point for the CCM dissector. It is always called from an DPS
* dissector, and is always passed the dof_secmode_data structure.
*/
7593static int dissect_ccm(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
7594{
  dof_secmode_api_data *secmode_api_data;
  dof_session_key_exchange_data *key_data;

  secmode_api_data = (dof_secmode_api_data *)data;
  if (secmode_api_data == NULL((void*)0))
  {
      return 0;
  }

  key_data = secmode_api_data->session_key_data;

  /* Based on the context of the request, handle the work. */
  switch (secmode_api_data->context)
  {
  case INITIALIZE:
      /* Parse off the initialization fields, and if necessary create the security mode state
      * that is being initialized. This is passed the DPS data, DPS session data, and Key Exchange Data.
      */
  {
      ccm_session_data *ccm_data = (ccm_session_data *)key_data->security_mode_key_data;
      unsigned offset = 0;
      uint8_t header;
      uint16_t length;

      if (!ccm_data)
      {
          /* We need to parse the initialization data. */
          ccm_data = wmem_new0(wmem_file_scope(), ccm_session_data)((ccm_session_data*)wmem_alloc0((wmem_file_scope()), sizeof(ccm_session_data
)));
          if (!ccm_data)
              return 0;
          wmem_register_callback(wmem_file_scope(), dof_sessions_destroy_cb, ccm_data);

          key_data->security_mode_key_data = ccm_data;

          if (!key_data->security_mode_data || key_data->security_mode_data_length < 3)
              return 0;

          /* TODO: Not sure that these are all right. */
          ccm_data->protocol_id = DOF_PROTOCOL_CCM24577;
          ccm_data->cipher = key_data->security_mode_data[1];
          ccm_data->encrypted = key_data->security_mode_data[key_data->security_mode_data_length - 1] & 0x80;
          ccm_data->mac_len = (key_data->security_mode_data[key_data->security_mode_data_length - 1] & 0x07) * 2 + 2;
          ccm_data->client_datagram_number = 0;
          ccm_data->server_datagram_number = 0;

          switch (ccm_data->protocol_id)
          {
          case DOF_PROTOCOL_CCM24577:
              if (gcry_cipher_open(&ccm_data->cipher_data, GCRY_CIPHER_AES, GCRY_CIPHER_MODE_ECB, 0)) {
                  return 0;
              }
              break;

          default:
              return 0;
          }
      }

      /* A NULL buffer is used when the key is installed before any CCM header
       * exists (TEP accept). Treat it like a 2-node session: key the handle
       * already opened above and do not read the tvbuff.
       */
      if (tvb == NULL((void*)0) || secmode_api_data->dof_api->transport_session->is_2_node)
      {
          if (!ccm_data->cipher_data || !key_data->session_key)
              return 0;

          switch (ccm_data->protocol_id)
          {
          case DOF_PROTOCOL_CCM24577:
              if (gcry_cipher_setkey(ccm_data->cipher_data, key_data->session_key, 32)) {
                  gcry_cipher_close(ccm_data->cipher_data);
                  ccm_data->cipher_data = NULL((void*)0);
                  return 0;
              }
              break;

          default:
              return 0;
          }

          /* This mode has a fixed size, so we can return here without parsing further. */
          return 2;
      }

      offset = read_c2(tvb, offset, &length, NULL((void*)0));
      /* TODO validate C2 */
      header = tvb_get_uint8(tvb, offset);
      offset += 1;

      /* Determine the period, and store the key. */
      {
          uint8_t period = (header & 0x70) >> 4;
          uint32_t lookup;
          ccm_period_key *existing = NULL((void*)0);
          ccm_period_key *ekey;

          if (!key_data->session_key)
              return 0;

          if (ccm_data->cipher_data_table == NULL((void*)0))
              ccm_data->cipher_data_table = g_hash_table_new_full(g_direct_hash, g_direct_equal, NULL((void*)0), dof_cipher_data_destroy);

          lookup = ccm_data->periods[period];
          if (lookup)
              existing = (ccm_period_key *)g_hash_table_lookup(ccm_data->cipher_data_table, GUINT_TO_POINTER(lookup)((gpointer) (gulong) (lookup)));

          if (!existing || memcmp(key_data->session_key, existing->key, sizeof(existing->key)) != 0)
          {
              ekey = ccm_period_key_new(key_data->session_key);
              if (!ekey)
                  return 0;

              ccm_data->period += 1;
              ccm_data->periods[period] = ccm_data->period;
              g_hash_table_insert(ccm_data->cipher_data_table, GUINT_TO_POINTER(ccm_data->period)((gpointer) (gulong) (ccm_data->period)), ekey);
          }
      }

      return offset + length - 1;
  }

  case HEADER:
  {
      ccm_session_data *session;
      dof_transport_session *transport_session = (dof_transport_session *)secmode_api_data->dof_api->transport_session;
      dof_secure_session_data *secure_session = secmode_api_data->secure_session;
      dof_session_key_exchange_data *security_data = NULL((void*)0);
      dof_packet_data *dof_packet = secmode_api_data->dof_api->packet;
      uint8_t ccm_flags;
      uint32_t nid;
      uint16_t slot = 0;
      uint32_t pn = 0;
      bool_Bool pn_present = false0;
      uint32_t tnid;
      uint32_t nnid;
      proto_tree *ccm_flags_tree;
      proto_tree *header_tree;
      proto_item * item,*header;
      ccm_packet_data *pdata;
      unsigned offset = 0;

      if (!dof_packet->security_session)
      {
          if (transport_session->is_streaming)
          {
              /* Find the first security data that is applicable - they are in order of packet sequence. */
              security_data = secure_session->session_security_data;
              while (security_data)
              {
                  if (dof_packet->is_sent_by_initiator && (dof_packet->dof_frame > security_data->i_valid))
                      break;

                  if (!dof_packet->is_sent_by_initiator && (dof_packet->dof_frame > security_data->r_valid))
                      break;

                  security_data = security_data->next;
              }

              if (security_data)
                  dof_packet->security_session = security_data;
              else
              {
                  dof_packet->security_session_error = "[Encrypted - No Session Available]";
                  return offset;
              }
          }
          else
          {
              dof_packet->security_session = secure_session->session_security_data;
              security_data = dof_packet->security_session;
          }
      }
      else
      {
          security_data = dof_packet->security_session;
      }

      if (!security_data || !security_data->session_key || !security_data->security_mode_key_data)
      {
          dof_packet->security_session_error = "[Encrypted - No Session Available]";
          return offset;
      }

      session = (ccm_session_data *)security_data->security_mode_key_data;
      offset = secmode_api_data->security_mode_offset;

      /* Add a master header for this protocol. */
      header = proto_tree_add_protocol_format(tree, proto_ccm, tvb, offset, 0,
                                              "CCM Security Mode, Version: 1");
      header_tree = proto_item_add_subtree(header, ett_header);
      tree = header_tree;

      ccm_flags = tvb_get_uint8(tvb, offset);
      item = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_flags, tvb,
                                        offset, 1, ccm_flags, "Flags: 0x%02x", ccm_flags);

      ccm_flags_tree = proto_item_add_subtree(item, ett_epp_v1_ccm_flags);
      proto_tree_add_item(ccm_flags_tree, hf_epp_v1_ccm_flags_manager, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(ccm_flags_tree, hf_epp_v1_ccm_flags_period, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(ccm_flags_tree, hf_epp_v1_ccm_flags_target, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(ccm_flags_tree, hf_epp_v1_ccm_flags_next_nid, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(ccm_flags_tree, hf_epp_v1_ccm_flags_packet, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;

      if (ccm_flags & 0x01)
          pn_present = true1;

      pdata = (ccm_packet_data *)dof_packet->security_packet;
      if (!pdata)
      {
          pdata = wmem_new0(wmem_file_scope(), ccm_packet_data)((ccm_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(ccm_packet_data
)));
          if (pdata)
          {
              dof_packet->security_packet = pdata;

              if (transport_session->is_2_node)
              {
                  if (dof_packet->is_sent_by_initiator)
                  {
                      pdata->nid = 0;
                      if (pn_present == false0)
                          pdata->dn = ++session->client_datagram_number;
                      else
                          pdata->dn = pn;
                  }
                  else
                  {
                      pdata->nid = 1;
                      if (pn_present == 0)
                          pdata->dn = ++session->server_datagram_number;
                      else
                          pdata->dn = pn;
                  }
              }
              else
              {
                  uint8_t packet_period = (ccm_flags & 0x70) >> 4;
                  pdata->period = session->periods[packet_period];
              }
          }
      }

      if (!pdata)
          return offset - secmode_api_data->security_mode_offset;

      if (!secure_session->is_2_node)
      {
          int nid_len;
          proto_item *pi;
          read_c4(tvb, offset, &nid, &nid_len);
          /* TODO: Do this right, as offset from BNID. */
          nid /= 2;
          pdata->nid = nid;
          pi = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_nid, tvb, offset, nid_len, nid, "Node ID: %u", nid);
          validate_c4(pinfo, pi, nid, nid_len);
          offset += nid_len;
      }
      else
      {
          item = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_nid, tvb, 0, 0, pdata->nid, "Node ID: %u", pdata->nid);
          proto_item_set_generated(item);
      }

      if (!secure_session->is_2_node)
      {
          int slot_len;
          proto_item *pi;
          read_c2(tvb, offset, &slot, &slot_len);
          pi = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_slot, tvb, offset, slot_len, slot, "Slot: %hu", slot);
          validate_c2(pinfo, pi, slot, slot_len);
          offset += slot_len;
      }
      else
      {
          item = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_slot, tvb, 0, 0, 0, "Slot: %u", 0);
          proto_item_set_generated(item);
      }

      if (ccm_flags & 0x01)
      {
          int pn_len;
          proto_item *pi;
          read_c4(tvb, offset, &pn, &pn_len);
          pi = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_pn, tvb, offset, pn_len, pn, "Packet Number: %u", pn);
          validate_c4(pinfo, pi, pn, pn_len);
          pdata->dn = pn;
          offset += pn_len;
      }
      else
      {
          item = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_pn, tvb, 0, 0, pdata->dn, "Packet Number: %u", pdata->dn);
          proto_item_set_generated(item);
      }

      if (ccm_flags & 0x08)
      {
          int tnid_len;
          proto_item *pi;
          read_c4(tvb, offset, &tnid, &tnid_len);
          pi = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_tnid, tvb, offset, tnid_len, tnid, "Target Node ID: %u", tnid);
          validate_c4(pinfo, pi, tnid, tnid_len);
          offset += tnid_len;
      }

      if (ccm_flags & 0x02)
      {
          int nnid_len;
          proto_item *pi;
          read_c4(tvb, offset, &nnid, &nnid_len);
          pi = proto_tree_add_uint_format(tree, hf_epp_v1_ccm_nnid, tvb, offset, nnid_len, nnid, "Next Node ID: %u", nnid);
          validate_c4(pinfo, pi, nnid, nnid_len);
          offset += nnid_len;
      }

      proto_item_set_len(header, offset - secmode_api_data->security_mode_offset);

      if (dof_packet->decrypted_buffer_error)
      {
          col_set_str(pinfo->cinfo, COL_INFO, dof_packet->decrypted_buffer_error);
          expert_add_info(pinfo, tree, &ei_decode_failure);
          return offset - secmode_api_data->security_mode_offset;
      }

      /* We have reached the encryption boundary. At this point the rest of the packet
      * is encrypted, and we may or may not be able to decrypt it.
      *
      * If we can decrypt it (which for now means that it uses a Session Key of [0]
      * the we switch to decoding the decrypted PDU. Otherwise we create an entry
      * for the encrypted bytes and move on...
      */

      {
          unsigned a_len = offset;
          const uint8_t *epp_buf = tvb_get_ptr(tvb, 0, offset);
          unsigned e_len = tvb_captured_length_remaining(tvb, offset);
          uint8_t *buf = (uint8_t *)tvb_memdup(pinfo->pool, tvb, offset, e_len);
          tvbuff_t *app;

          /* The default nonce is a function of whether or not this is the server
          * or the client and the packet count. The packet count either comes from
          * the PDU or is a function of the previous value (of the sending node).
          */
          uint8_t nonce[11] = { 0 };

          nonce[0] = (pdata->nid) >> 24;
          nonce[1] = (pdata->nid) >> 16;
          nonce[2] = (pdata->nid) >> 8;
          nonce[3] = (uint8_t)(pdata->nid);
          nonce[4] = slot >> 8;
          nonce[5] = (uint8_t)slot;
          nonce[7] = (pdata->dn) >> 24;
          nonce[8] = (pdata->dn) >> 16;
          nonce[9] = (pdata->dn) >> 8;
          nonce[10] = (uint8_t)(pdata->dn);

          /* Now the hard part. We need to determine the current packet number.
          * This is a function of the sending node, the previous state and the
          * current PDU.
          */

          app = NULL((void*)0);

          proto_item_set_end(tree, tvb, offset);
          if (e_len < session->mac_len)
          {
              dof_packet->decrypted_buffer_error = "[Encrypted packet - decryption failure]";
          }
          else if (!session->encrypted)
          {
              /* There is still a MAC involved, and even though we don't need a new
              * buffer we need to adjust the length of the existing buffer.
              * The MAC is not checked. Keep a copy of the (clear) payload as the
              * secured buffer, so that it is dissected and seen as secured.
              */
              unsigned plain_len = e_len - session->mac_len;

              app = tvb_new_subset_length(tvb, offset, plain_len);
              if (!dof_packet->decrypted_buffer && plain_len > 0)
                  dof_packet->decrypted_buffer = (uint8_t *)tvb_memdup(wmem_file_scope(), app, 0, plain_len);
              dof_packet->decrypted_tvb = app;
              dof_packet->decrypted_offset = 0;
          }
          else
          {
              unsigned plain_len = e_len - session->mac_len;

              if (dof_packet->decrypted_buffer)
              {
                  /* No need to decrypt, but still need to create buffer. */
                  app = tvb_new_real_data((const uint8_t *)dof_packet->decrypted_buffer, plain_len, plain_len);
                  tvb_set_child_real_data_tvbuff(tvb, app);
                  add_new_data_source(pinfo, app, "Decrypted DOF");
                  dof_packet->decrypted_tvb = app;
                  dof_packet->decrypted_offset = 0;
              }
              else
              {
                  if (decrypt(session, pdata, nonce, epp_buf, a_len, buf, e_len))
                  {
                      /* store decrypted buffer in file scope for reuse in next pass */
                      uint8_t *cache = (uint8_t *)wmem_alloc0(wmem_file_scope(), plain_len);
                      memcpy(cache, buf, plain_len);
                      app = tvb_new_real_data(cache, plain_len, plain_len);
                      tvb_set_child_real_data_tvbuff(tvb, app);
                      add_new_data_source(pinfo, app, "Decrypted DOF");
                      dof_packet->decrypted_buffer = cache;
                      dof_packet->decrypted_offset = 0;
                      dof_packet->decrypted_tvb = app;
                  }
                  else
                  {
                      /* Failure to decrypt or validate the MAC.
                      * The packet is secure, so there is nothing we can do!
                      */
                      dof_packet->decrypted_buffer_error = "[Encrypted packet - decryption failure]";
                  }
              }
          }

          /* Show a failure found just now as the later passes do (above). */
          if (dof_packet->decrypted_buffer_error)
          {
              col_set_str(pinfo->cinfo, COL_INFO, dof_packet->decrypted_buffer_error);
              expert_add_info(pinfo, tree, &ei_decode_failure);
          }
      }

      return offset - secmode_api_data->security_mode_offset;
  }
      break;

  case TRAILER:
     /* TODO check this case */
      break;

  }

  return 0;
8034}

8036static int dissect_ccm_app(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data _U___attribute__((unused)))
8037{
  unsigned offset = 0;
  uint8_t opcode = 0;
  uint16_t app;
  int app_len;

  proto_item *ti;
  proto_tree *ccm_tree;

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "CCM ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_ccm_app, tvb, offset, -1, ENC_NA0x00000000);
  ccm_tree = proto_item_add_subtree(ti, ett_ccm);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(ccm_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);

  /* Retrieve the opcode. */
  opcode = tvb_get_uint8(tvb, offset);

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, opcode, ccm_opcode_strings, "Unknown Opcode (%d)"));

  if (tree)
  {
      /* Opcode */
      proto_tree_add_item(ccm_tree, hf_ccm_opcode, tvb, offset, 1, ENC_NA0x00000000);
8068#if 0  /* this needs completion */
      offset += 1;

      switch (opcode)
      {
      case CCM_PDU_PROBE(0):
      {
      }
          break;

      }
8079#endif
  }

  return 1;
8083}

8085#if 0 /* TODO not used yet */
8086static int dissect_ccm_validate(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data)
8087{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet;
  ccm_session_data *session;
  int offset;
  uint8_t ccm_flags;
  uint32_t nid;
  uint16_t slot;
  uint32_t pn;
  uint32_t tnid;

  if (api_data == NULL((void*)0))
  {
      fprintf(stderrstderr, "api_data is NULL.");
      return 0;
  }

  packet = api_data->packet;
  if (packet == NULL((void*)0))
  {
      fprintf(stderrstderr, "api_data->packet is NULL.");
      return 0;
  }

  if (!packet->security_session)
  {
      fprintf(stderrstderr, "packet->security_session is NULL");
      return 0;
  }

  if (packet->security_session->security_mode != DOF_PROTOCOL_CCM24577)
  {
      fprintf(stderrstderr, "packet->security_session->security_mode != DOF_PROTOCOL_CCM");
      return 0;
  }

  session = (ccm_session_data *)packet->security_session->security_mode_key_data;

  /* The buffer we have been passed includes the entire EPP frame. The packet
  * structure gives us the offset to our header.
  */
  offset = 0;

  ccm_flags = tvb_get_uint8(tvb, offset);
  offset += 1;

  /* TODO validate the C2 and C4 fields below? */
  if (ccm_flags & 0x04)
      offset = read_c4(tvb, offset, &nid, NULL((void*)0));

  if (ccm_flags & 0x02)
      offset = read_c2(tvb, offset, &slot, NULL((void*)0));

  if (ccm_flags & 0x01)
      offset = read_c4(tvb, offset, &pn, NULL((void*)0));

  if (ccm_flags & 0x08)
      offset = read_c4(tvb, offset, &tnid, NULL((void*)0));


  /* We have reached the encryption boundary. At this point the rest of the packet
  * is encrypted, and we may or may not be able to decrypt it.
  *
  * If we can decrypt it (which for now means that it uses a Session Key of [0]
  * the we switch to decoding the decrypted PDU. Otherwise we create an entry
  * for the encrypted bytes and move on...
  */

  {
      unsigned a_len = offset;
      const uint8_t *epp_buf = tvb_get_ptr(tvb, 0, offset);
      unsigned e_len = tvb_captured_length_remaining(tvb, offset);
      uint16_t e_off;
      uint8_t *buf = (uint8_t *)g_malloc(e_len);

      /* The default nonce is a function of whether or not this is the server
      * or the client and the packet count. The packet count either comes from
      * the PDU or is a function of the previous value (of the sending node).
      */
      uint8_t nonce[] = { 0x00, 0x00, 0x00, 0x01,
          0x00, 0x00,
          0x00,
          0x00, 0x00, 0x00, 0x00 };

      nonce[0] = nid >> 24;
      nonce[1] = nid >> 16;
      nonce[2] = nid >> 8;
      nonce[3] = (uint8_t)nid;
      nonce[4] = slot >> 8;
      nonce[5] = (uint8_t)slot;
      nonce[7] = pn >> 24;
      nonce[8] = pn >> 16;
      nonce[9] = pn >> 8;
      nonce[10] = (uint8_t)pn;

      /* Now the hard part. We need to determine the current packet number.
      * This is a function of the sending node, the previous state and the
      * current PDU.
      */
      for (e_off = 0; e_off < e_len; e_off++)
          buf[e_off] = tvb_get_uint8(tvb, offset + e_off);

      /* TODO: This is hardcoded for a 4-byte MAC */

      proto_item_set_end(tree, tvb, offset);
      if (decrypt(session, (ccm_packet_data *)packet->security_packet, nonce, epp_buf, a_len, buf, e_len))
      {
          g_free(buf)(__builtin_object_size ((buf), 0) != ((size_t) - 1)) ? g_free_sized
 (buf, __builtin_object_size ((buf), 0)) : (g_free) (buf);
          return 1;
      }
      else
      {
          /* Failure to decrypt or validate the MAC.
          * The packet is secure, so there is nothing we can do!
          */
          g_free(buf)(__builtin_object_size ((buf), 0) != ((size_t) - 1)) ? g_free_sized
 (buf, __builtin_object_size ((buf), 0)) : (g_free) (buf);
          return 1;
      }
  }
8206}
8207#endif

8209static int dissect_oap_dsp(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data _U___attribute__((unused)))
8210{
  /* We are handed a buffer that starts with our protocol id. Any options follow that. */
  unsigned offset = 0;

  /* We don't care except for the treeview. */
  if (!tree)
      return 0;

  /* Compute the version and flags, masking off other bits. */
  offset += 4; /* Skip the type and protocol. */

  proto_tree_add_item(tree, hf_oap_1_dsp_option, tvb, 0, -1, ENC_NA0x00000000);
  return offset;
8223}

8225static int dissect_oap(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
8226{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;

  unsigned offset = 0;
  uint8_t opcode = 0;
  uint8_t flags = 0;
  uint16_t item_id = 0;
  uint16_t app;
  int app_len;

  oap_1_packet_data *oap_packet = NULL((void*)0);

  proto_item *ti;
  proto_tree *oap_tree;

  if (api_data == NULL((void*)0))
  {
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      return 0;
  }


  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "OAPv1 ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_oap_1, tvb, offset, -1, ENC_NA0x00000000);
  oap_tree = proto_item_add_subtree(ti, ett_oap_1);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(oap_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);

  if ((unsigned)app_len == tvb_captured_length(tvb))
  {
      col_append_str(pinfo->cinfo, COL_INFO, "OAP [nop]");
      expert_add_info(pinfo, oap_tree, &ei_implicit_no_op);

      return app_len;
  }

  oap_packet = (oap_1_packet_data *)dof_packet_get_proto_data(packet_data, proto_oap_1);
  if (!oap_packet)
  {
      oap_packet = wmem_new0(wmem_file_scope(), oap_1_packet_data)((oap_1_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(
oap_1_packet_data)));
      dof_packet_add_proto_data(packet_data, proto_oap_1, oap_packet);
  }

  /* Compute the version and flags, masking off other bits. */
  opcode = tvb_get_uint8(tvb, offset) & 0x1F;
  if (!packet_data->is_command)
      opcode |= OAP_1_RESPONSE(0x80);

  flags = tvb_get_uint8(tvb, offset) & 0xE0;

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, opcode, oap_opcode_strings, "Unknown Opcode (%d)"));


  /* Opcode */
  {
      uint8_t mask = 0x10;
      char str[20];
      uint8_t no_of_bits = 5;
      uint8_t i;
      uint8_t bit = 3;
      (void) g_strlcpy(str, "...", 20);

      /* read the bits for the int */
      for (i = 0; i < no_of_bits; i++)
      {
          if (bit && (!(bit % 4)))
              (void) g_strlcat(str, " ", 20);

          bit++;

          if (opcode & mask)
              (void) g_strlcat(str, "1", 20);
          else
              (void) g_strlcat(str, "0", 20);

          mask = mask >> 1;
      }

      proto_tree_add_uint_format(oap_tree, hf_oap_1_opcode, tvb, offset, 1, opcode & 0x1F, "%s = Opcode: %s (%u)", str, val_to_str(pinfo->pool, opcode, oap_opcode_strings, "Unknown Opcode (%d)"), opcode & 0x1F);
  }


  /* Flags, based on opcode.
  * Each opcode needs to define the flags, however, the fall into major categories...
  */
  switch (opcode)
  {
      /* Both alias and a flag that equals command control. */
  case OAP_1_CMD_ACTIVATE28:
  case OAP_1_CMD_CONNECT4:
  case OAP_1_CMD_FULL_CONNECT3:
  case OAP_1_CMD_GET10:
  case OAP_1_CMD_INVOKE12:
  case OAP_1_CMD_REGISTER25:
  case OAP_1_CMD_SET20:
  case OAP_1_CMD_SUBSCRIBE24:
  case OAP_1_CMD_WATCH30:
      proto_tree_add_item(oap_tree, hf_oap_1_alias_size, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(oap_tree, hf_oap_1_flags, tvb, offset, 1, ENC_NA0x00000000);
      if (flags & 0x20)
      {
          offset += 1;
          offset = oap_1_tree_add_cmdcontrol(pinfo, oap_tree, tvb, offset);
      }
      else
          offset += 1;

      break;

      /* No alias, but flags for command control. */
  case OAP_1_CMD_ADVERTISE5:
      /* TODO: Expert info on top two bits.*/
      proto_tree_add_item(oap_tree, hf_oap_1_flags, tvb, offset, 1, ENC_NA0x00000000);
      if (flags & 0x20)
      {
          offset += 1;
          offset = oap_1_tree_add_cmdcontrol(pinfo, oap_tree, tvb, offset);
      }
      else
          offset += 1;

      break;

      /* No alias, but flag for provider. */
  case OAP_1_RSP_GET(10|(0x80)):
  case OAP_1_RSP_INVOKE(12|(0x80)):
  case OAP_1_RSP_REGISTER(25|(0x80)):
  case OAP_1_RSP_SET(20|(0x80)):
  case OAP_1_RSP_SUBSCRIBE(24|(0x80)):
      /* TODO: Expert info on top two bits.*/
      proto_tree_add_item(oap_tree, hf_oap_1_flags, tvb, offset, 1, ENC_NA0x00000000);
      if (flags & 0x20)
      {
          offset += 1;
          offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, oap_tree,
                                            offset, hf_oap_1_providerid, ett_oap_1_1_providerid, NULL((void*)0));
      }
      else
          offset += 1;
      if ((opcode == OAP_1_RSP_GET(10|(0x80))) || (opcode == OAP_1_RSP_INVOKE(12|(0x80))))
      {
          /* The value list can be empty */
          if (tvb_reported_length_remaining(tvb, offset) > 0)
          {
              proto_tree_add_item(oap_tree, hf_oap_1_value_list, tvb, offset, -1, ENC_NA0x00000000);
              offset += tvb_reported_length_remaining(tvb, offset);
          }
      }

      break;

      /* Alias, but no flags. */
  case OAP_1_CMD_CHANGE2:
  case OAP_1_CMD_OPEN14:
  case OAP_1_CMD_PROVIDE16:
  case OAP_1_CMD_SIGNAL22:
      proto_tree_add_item(oap_tree, hf_oap_1_alias_size, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;
      break;

      /* Special flags. */
  case OAP_1_RSP_EXCEPTION(9|(0x80)):
      proto_tree_add_item(oap_tree, hf_oap_1_exception_internal_flag, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(oap_tree, hf_oap_1_exception_final_flag, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(oap_tree, hf_oap_1_exception_provider_flag, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;
      break;

      /* No flags. */
  case OAP_1_CMD_DEFINE6:
  case OAP_1_RSP_DEFINE(6|(0x80)):
  case OAP_1_RSP_OPEN(14|(0x80)):
      /* TODO: Non-zero not allowed.*/
      offset += 1;
      break;

  default:
      /* TODO: Illegal opcode.*/
      return offset;
  }

  /* Parse off arguments based on opcodes. */
  switch (opcode)
  {
  case OAP_1_CMD_SUBSCRIBE24:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      /* The item identifier comes first, but it is compressed. */
      {
          int item_id_len;
          proto_item *pi;

          read_c2(tvb, offset, &item_id, &item_id_len);
          pi = proto_tree_add_uint_format(oap_tree, hf_oap_1_itemid, tvb, offset, item_id_len, item_id, "Item ID: %u", item_id);
          validate_c2(pinfo, pi, item_id, item_id_len);
          offset += item_id_len;
      }

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);

      /* Read the minimum delta. */
      {
          int delta_len;
          uint16_t delta;
          proto_item *pi;

          read_c2(tvb, offset, &delta, &delta_len);
          pi = proto_tree_add_uint_format(oap_tree, hf_oap_1_subscription_delta, tvb, offset, delta_len, delta, "Minimum Delta: %u", delta);
          validate_c2(pinfo, pi, delta, delta_len);
          offset += delta_len;
      }
  }
      break;

  case OAP_1_CMD_REGISTER25:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      /* The item identifier comes first, but it is compressed. */
      {
          int item_id_len;
          proto_item *pi;

          read_c2(tvb, offset, &item_id, &item_id_len);
          pi = proto_tree_add_uint_format(oap_tree, hf_oap_1_itemid, tvb, offset, item_id_len, item_id, "Item ID: %u", item_id);
          validate_c2(pinfo, pi, item_id, item_id_len);
          offset += item_id_len;
      }

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);
  }
      break;

  case OAP_1_RSP_REGISTER(25|(0x80)):
  {
      if (flags & 0x20)
      {
          /* offset = add_oid( tvb, offset, NULL, oap_tree ); */
      }

      /* Sequence is next. */
      proto_tree_add_item(oap_tree, hf_oap_1_update_sequence, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
      offset += 2;
  }
      break;

  case OAP_1_CMD_WATCH30:
  case OAP_1_CMD_ACTIVATE28:
  case OAP_1_CMD_CONNECT4:
  case OAP_1_CMD_FULL_CONNECT3:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);
  }
      break;

  case OAP_1_CMD_ADVERTISE5:
      offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);
      break;

  case OAP_1_CMD_GET10:
  case OAP_1_CMD_INVOKE12:
  case OAP_1_CMD_SET20:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      /* The item identifier comes first, but it is compressed. */
      {
          int item_id_len;
          proto_item *pi;

          read_c2(tvb, offset, &item_id, &item_id_len);
          pi = proto_tree_add_uint_format(oap_tree, hf_oap_1_itemid, tvb, offset, item_id_len, item_id, "Item ID: %u", item_id);
          validate_c2(pinfo, pi, item_id, item_id_len);
          offset += item_id_len;
      }

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);

      if ((opcode == OAP_1_CMD_SET20) || (opcode == OAP_1_CMD_INVOKE12))
      {
          /* The value list can be empty */
          if (tvb_reported_length_remaining(tvb, offset) > 0)
          {
              proto_tree_add_item(oap_tree, hf_oap_1_value_list, tvb, offset, -1, ENC_NA0x00000000);
              offset += tvb_reported_length_remaining(tvb, offset);
          }
      }
  }
      break;

  case OAP_1_CMD_OPEN14:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);

      offset = oap_1_tree_add_interface(oap_tree, tvb, offset);

      offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, oap_tree,
                                        offset, hf_oap_1_objectid, ett_oap_1_objectid, NULL((void*)0));
  }
      break;

  case OAP_1_CMD_PROVIDE16:
  {
      uint8_t alias_length = flags >> 6;
      int alias_offset;
      int iid_offset;
      int oid_offset;

      if (alias_length == 3)
          alias_length = 4;

      alias_offset = offset;
      if (alias_length == 0)
      {
          expert_add_info_format(pinfo, ti, &ei_malformed, "alias_length == 0");
          return offset;
      }
      if (api_data->session == NULL((void*)0))
      {
          expert_add_info(pinfo, ti, &ei_oap_no_session);
          return offset;
      }
      offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_length, false0);

      iid_offset = offset;
      offset = oap_1_tree_add_interface(oap_tree, tvb, offset);

      oid_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, oap_tree,
                                        offset, hf_oap_1_objectid, ett_oap_1_objectid, NULL((void*)0));

      if (!packet_data->processed)
      {
          uint32_t alias;
          oap_1_binding *binding = wmem_new0(wmem_file_scope(), oap_1_binding)((oap_1_binding*)wmem_alloc0((wmem_file_scope()), sizeof(oap_1_binding
)));
          int i;

          alias = 0;
          for (i = 0; i < alias_length; i++)
              alias = (alias << 8) | tvb_get_uint8(tvb, alias_offset + i);

          binding->iid_length = oid_offset - iid_offset;
          binding->iid = (uint8_t *)wmem_alloc0(wmem_file_scope(), binding->iid_length);
          tvb_memcpy(tvb, binding->iid, iid_offset, binding->iid_length);

          binding->oid_length = offset - oid_offset;
          binding->oid = (uint8_t *)wmem_alloc0(wmem_file_scope(), binding->oid_length);
          tvb_memcpy(tvb, binding->oid, oid_offset, binding->oid_length);

          binding->frame = pinfo->fd->num;
          oap_1_define_alias(api_data, alias, binding);
      }
  }
      break;

  case OAP_1_CMD_CHANGE2:
  case OAP_1_CMD_SIGNAL22:
  {
      uint8_t alias_len = (flags & 0xC0) >> 6;
      if (alias_len == 3)
          alias_len = 4;

      /* The item identifier comes first, but it is compressed. */
      {
          int item_id_len;
          proto_item *pi;

          read_c2(tvb, offset, &item_id, &item_id_len);
          pi = proto_tree_add_uint_format(oap_tree, hf_oap_1_itemid, tvb, offset, item_id_len, item_id, "Item ID: %u", item_id);
          validate_c2(pinfo, pi, item_id, item_id_len);
          offset += item_id_len;
      }

      if (alias_len > 0)
      {
          if (api_data->session == NULL((void*)0))
          {
              expert_add_info(pinfo, ti, &ei_oap_no_session);
              return offset;
          }
          offset = oap_1_tree_add_alias(api_data, oap_packet, packet_data, oap_tree, tvb, pinfo, offset, alias_len, true1);
      }
      else
          offset = oap_1_tree_add_binding(oap_tree, pinfo, tvb, offset);

      /* Sequence is next. */
      proto_tree_add_item(oap_tree, hf_oap_1_update_sequence, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
      offset += 2;

      /* The value list can be empty */
      if (tvb_reported_length_remaining(tvb, offset) > 0)
      {
          proto_tree_add_item(oap_tree, hf_oap_1_value_list, tvb, offset, -1, ENC_NA0x00000000);
          offset += tvb_reported_length_remaining(tvb, offset);
      }
  }
      break;

  case OAP_1_RSP_EXCEPTION(9|(0x80)):
  {
      if (flags & 0x20)
      {
          /* offset = add_oid( tvb, offset, NULL, oap_tree );*/
      }

      /* The response code, compressed. */
      {
          int rsp_len;
          uint16_t rsp;

          /* TODO: Validate*/
          read_c2(tvb, offset, &rsp, &rsp_len);
          /* TODO: Add to tree with error codes. */
          offset += rsp_len;
      }
      /* The value list can be empty */
      if (tvb_reported_length_remaining(tvb, offset) > 0)
      {
          proto_tree_add_item(oap_tree, hf_oap_1_value_list, tvb, offset, -1, ENC_NA0x00000000);
          offset += tvb_reported_length_remaining(tvb, offset);
      }
  }
      break;

  default:
      /* TODO: Bad opcode!*/
      break;
  }

  return offset;
8734}

8736static int dissect_sgmp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
8737{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;
  unsigned offset = 0;
  uint8_t opcode;
  uint16_t app;
  int app_len;
  proto_item *ti;
  proto_tree *sgmp_tree;

  if (api_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "SGMPv1 ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_sgmp, tvb, offset, -1, ENC_NA0x00000000);
  sgmp_tree = proto_item_add_subtree(ti, ett_sgmp);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(sgmp_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);

  if (offset == tvb_captured_length(tvb))
  {
      col_append_str(pinfo->cinfo, COL_INFO, "SGMP [nop]");
      expert_add_info(pinfo, sgmp_tree, &ei_implicit_no_op);

      return offset;
  }


  /* Retrieve the opcode. */
  opcode = tvb_get_uint8(tvb, offset);
  if (!packet_data->is_command)
      opcode |= SGMP_RESPONSE(0x80);

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, opcode, sgmp_opcode_strings, "Unknown Opcode (%d)"));

  /* Opcode */
  proto_tree_add_item(sgmp_tree, hf_opcode, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  switch (opcode)
  {
  case SGMP_CMD_EPOCH_CHANGED(1):
  {
      /* TMIN - 2 bytes */
      {
          proto_tree_add_item(sgmp_tree, hf_sgmp_tmin, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
          offset += 2;
      }

      /* EPOCH - 2 bytes */
      {
          proto_tree_add_item(sgmp_tree, hf_sgmp_epoch, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
          offset += 2;
      }
  }
      break;

  case SGMP_CMD_HEARTBEAT(0):
  {
      int start_offset;

      /* Latest SGMP Version - Type.1 */
      {
          uint16_t version;
          int length;
          proto_item *pi;

          start_offset = offset;
          offset = read_c2(tvb, offset, &version, &length);
          pi = proto_tree_add_uint(sgmp_tree, hf_latest_version, tvb, start_offset, offset - start_offset, version);
          validate_c2(pinfo, pi, version, length);
      }

      /* Desire - 1 byte */
      {
          proto_tree_add_item(sgmp_tree, hf_desire, tvb, offset, 1, ENC_NA0x00000000);
          offset += 1;
      }

      /* Tie Breaker - 4 bytes */
      {
          proto_tree_add_item(sgmp_tree, hf_tie_breaker, tvb, offset, 4, ENC_BIG_ENDIAN0x00000000);
          offset += 4;
      }
  }
      break;

  case SGMP_CMD_REKEY(2):
  case SGMP_CMD_REKEY_EPOCH(5):
  case SGMP_CMD_REKEY_MERGE(7):
  {
8845#if 0 /*TODO check this */
      int start_offset;
      tvbuff_t *initial_state;
8848#endif
      uint8_t key[32];

      /* Delay - one byte */
      if (opcode != SGMP_CMD_REKEY_MERGE(7))
      {
          proto_tree_add_item(sgmp_tree, hf_delay, tvb, offset, 1, ENC_NA0x00000000);
          offset += 1;
      }

      /* Initial State - Security.9 (not REKEY_MERGE) */
      {
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_9, tvb, pinfo, sgmp_tree,
                                            offset, hf_initial_state, ett_initial_state, NULL((void*)0));
8862#if 0 /*TODO check this */
          initial_state = tvb_new_subset_length(tvb, start_offset, offset - start_offset);
8864#endif
      }

      /* Epoch - 2 bytes (only REKEY_EPOCH) */
      if (opcode == SGMP_CMD_REKEY_EPOCH(5))
      {
          proto_tree_add_item(sgmp_tree, hf_sgmp_epoch, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
          offset += 2;
      }

      /* Kgm - 32 bytes */
      {
          proto_tree_add_item(sgmp_tree, hf_key, tvb, offset, 32, ENC_NA0x00000000);
          tvb_memcpy(tvb, key, offset, 32);
          offset += 32;
      }

      /* Handle the initialization block. */
      if (!packet_data->processed && api_data->session)
      {
          /*dof_session_data* session = (dof_session_data*)api_data->session;*/

          /* Look up the field-dissector table, and determine if it is registered. */
          dissector_table_t field_dissector = find_dissector_table("dof.secmode");
          if (field_dissector != NULL((void*)0))
          {
8890#if 0
              dissector_handle_t field_handle = dissector_get_port_handle(field_dissector, packet_data->security_mode);
              if (field_handle != NULL((void*)0))
              {
                  void *saved_private = pinfo->private_data;
                  dof_secmode_api_data setup_data;
                  int block_length;

                  setup_data.version = DOF_API_VERSION;
                  setup_data.context = INITIALIZE;
                  setup_data.dof_api = api_data;
                  setup_data.secure_session = rekey_data->security_session;
                  /* TODO FIX THIS setup_data.session_key = session_key; */
                  pinfo->private_data = &setup_data;
                  block_length = call_dissector_only(field_handle, NULL((void*)0), pinfo, NULL((void*)0));
                  pinfo->private_data = saved_private;
              }
8907#endif
          }
      }
  }
      break;

  case SGMP_CMD_REQUEST_GROUP(3):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;
      unsigned I_offset = offset;
      sgmp_packet_data *sgmp_data = NULL((void*)0);
      uint16_t epoch;

      /* START OF I BLOCK */
      /* Domain - Security.7 */
      {
          start_offset = offset;
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, sgmp_tree,
                                            offset, hf_sgmp_domain, ett_sgmp_domain, NULL((void*)0));
          if (!packet_data->processed)
          {
              domain_length = dof_consumed_length(offset, start_offset);
              domain_buf = (uint8_t *)wmem_alloc0(pinfo->pool, domain_length);
              tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
          }
      }

      /* Epoch - 2 bytes */
      {
          proto_tree_add_item_ret_uint16(sgmp_tree, hf_sgmp_epoch, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000, &epoch);
          offset += 2;
      }

      /* Initiator Block - SGMP.6.3 */
      {
          /* SGMP Key Request - Security.4 */
          {
              dof_2008_16_security_4 response;
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_4, tvb, pinfo, sgmp_tree,
                                                offset, hf_initiator_block, ett_initiator_block, &response);
              if (!packet_data->processed)
              {
                  tvbuff_t *identity = response.identity;
                  unsigned identity_length = tvb_reported_length(identity);
                  uint8_t *identity_buf = (uint8_t *)wmem_alloc0(wmem_file_scope(), identity_length);

                  /* Get the buffer. */
                  tvb_memcpy(identity, identity_buf, 0, identity_length);

                  {
                      sgmp_data = wmem_new0(wmem_file_scope(), sgmp_packet_data)((sgmp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(sgmp_packet_data
)));
                      dof_packet_add_proto_data(packet_data, proto_sgmp, sgmp_data);

                      sgmp_data->domain_length = domain_length;
                      sgmp_data->domain = (uint8_t *)wmem_alloc0(wmem_file_scope(), domain_length);
                      memcpy(sgmp_data->domain, domain_buf, domain_length);

                      sgmp_data->group_length = identity_length;
                      sgmp_data->group = (uint8_t *)wmem_alloc0(wmem_file_scope(), identity_length);
                      memcpy(sgmp_data->group, identity_buf, identity_length);

                      sgmp_data->epoch = epoch;
                      sgmp_data->request_session = api_data->session;
                  }
              }
          }
      }

      /* Security Scope - Security.10 */
      {
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_10, tvb, pinfo, sgmp_tree,
                                            offset, hf_sgmp_security_scope, ett_sgmp_security_scope, NULL((void*)0));
      }

      /* END OF I BLOCK */
      if (sgmp_data && !sgmp_data->I)
      {
          sgmp_data->I_length = dof_consumed_length(offset, I_offset);
          sgmp_data->I = (uint8_t *)wmem_alloc0(wmem_file_scope(), sgmp_data->I_length);
          tvb_memcpy(tvb, sgmp_data->I, I_offset, sgmp_data->I_length);
      }
  }
      break;

  case SGMP_RSP_REQUEST_GROUP((3)|(0x80)):
  {
      int start_offset;
8996#if 0 /*TODO check this */
      unsigned A_offset;
      tvbuff_t *initial_state;
      unsigned A_end;
9000#endif

      /* START OF A BLOCK */
      /* Initial State - SGMP.6.2.1 */
      {
       /*   A_offset = offset;*/

          /* Initial State - Security.9 */
          {
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_9, tvb, pinfo, sgmp_tree,
                                                offset, hf_initial_state, ett_initial_state, NULL((void*)0));
9011#if 0 /*TODO check this */
              initial_state = tvb_new_subset_length(tvb, start_offset, offset - start_offset);
9013#endif
          }

          /* Latest SGMP Version - Type.1 */
          {
              uint16_t version;
              int length;
              proto_item *pi;

              start_offset = offset;
              offset = read_c2(tvb, offset, &version, &length);
              pi = proto_tree_add_uint(sgmp_tree, hf_latest_version, tvb, start_offset, offset - start_offset, version);
              validate_c2(pinfo, pi, version, length);
          }

          /* Desire - 1 byte */
          {
              proto_tree_add_item(sgmp_tree, hf_desire, tvb, offset, 1, ENC_NA0x00000000);
              offset += 1;
          }
      }

      /* END OF A BLOCK */
      /* A block data handled in first part of the next block. */
9037#if 0 /*TODO check this */
      A_end = offset;
9039#endif

      /* Ticket - Security.5 */
      {
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, sgmp_tree,
                                            offset, hf_ticket, ett_ticket, NULL((void*)0));
      }

      /* Try to match up the information learned here with any groups that exist.
      * Note that we do not know the SSID, and so we can only match based on the
      * domain and group identifier. We will learn the SSID based on a successful
      * match to a secure session.
      */
      if (packet_data->opid_first && !api_data->secure_session)
      {
9054#if 0
          sgmp_packet_data* cmd_data = (sgmp_packet_data*)dof_packet_get_proto_data(packet_data->opid_first, proto_sgmp);
          extern struct BlockCipher BlockCipher_AES_256;
          struct BlockCipher* cipher = &BlockCipher_AES_256;
          uint8_t* ekey = (uint8_t*)ep_alloc(cipher->keyStateSize);

          if (cmd_data && !cmd_data->A)
          {
              cmd_data->A_length = A_end - A_offset;
              cmd_data->A = (uint8_t*)wmem_alloc0(wmem_file_scope(), cmd_data->A_length);
              tvb_memcpy(tvb, cmd_data->A, A_offset, cmd_data->A_length);
          }

          /* Search through the appropriate keks to find a match. */
          {
              dof_learned_group_data* group = globals.learned_group_data;
              struct list;
              struct list
              { dof_learned_group_data *group;
                  struct list *next; };
              struct list *to_try = NULL((void*)0);
              uint8_t confirmation[32];
              uint8_t* discovered_kek = NULL((void*)0);
              dof_learned_group_auth_data *auth = NULL((void*)0);

              tvb_memcpy(tvb, confirmation, start_offset, 32);

              while (group)
              {
                  if ((cmd_data->domain_length == group->domain_length) &&
                      (memcmp(cmd_data->domain, group->domain, group->domain_length) == 0) &&
                      (cmd_data->group_length == group->group_length) &&
                      (memcmp(cmd_data->group, group->group, group->group_length) == 0))
                  {
                      struct list *n = (struct list *) ep_alloc0(sizeof(struct list));
                      n->group = group;
                      n->next = to_try;
                      to_try = n;
                  }

                  group = group->next;
              }

              /* At this point we may be able to learn the session key. */
              while (to_try && !discovered_kek)
              {
                  group = to_try->group;

                  auth = group->keys;

                  while (auth && !discovered_kek)
                  {
                      uint8_t mac[32];
                      uint8_t key[32];
                      int j;

                      /* It only makes sense to check matching epochs. */
                      if (auth->epoch == cmd_data->epoch)
                      {
                          tvb_memcpy(tvb, mac, start_offset, 32);
                          tvb_memcpy(tvb, key, start_offset + 32, 32);

                          if (cipher != NULL((void*)0))
                          {
                              cipher->GenerateKeyState(ekey, auth->kek);
                              cipher->Encrypt(ekey, mac);
                              cipher->Encrypt(ekey, mac + 16);
                          }

                          for (j = 0; j < 32; j++)
                          key[j] ^= mac[j];

                          if (sgmp_validate_session_key(cmd_data, confirmation, auth->kek, key))
                          {
                              discovered_kek = (uint8_t*)se_alloc0(32);
                              memcpy(discovered_kek, key, 32);
                              break;
                          }
                      }

                      auth = auth->next;
                  }

                  to_try = to_try->next;
              }

              /* Determine if there is already a secure session for this information. If there is, then
              * EPP will find it to decode any packets. If there is not, then we must create a secure
              * session and initialize it so that future packets can be decoded.
              * NOTE: None of the actual decoding is done here, because this packet is not encrypted
              * in the session that it defines.
              * NOTE: SGMP secure sessions are always attached to the DPS session, which is always
              * associated with the transport session (server address).
              */
              if (discovered_kek)
              {
                  dissector_table_t field_dissector;
                  dissector_handle_t field_handle;
                  dof_session_key_exchange_data *key_exchange = NULL((void*)0);

                  dof_secure_session_data *dof_secure_session = cmd_data->request_session->secure_sessions;
                  while (dof_secure_session)
                  {
                      if ((dof_secure_session->ssid == group->ssid) &&
                          (dof_secure_session->domain_length == group->domain_length) &&
                          (memcmp(dof_secure_session->domain, group->domain, group->domain_length) == 0))
                      break;

                      dof_secure_session = dof_secure_session->next;
                  }

                  if (!dof_secure_session)
                  {
                      dof_session_data *dof_session = wmem_alloc0(wmem_file_scope(), sizeof(dof_session_data));
                      dof_session->session_id = globals.next_session++;
                      dof_session->dof_id = api_data->session->dof_id;

                      dof_secure_session = wmem_alloc0(wmem_file_scope(), sizeof(dof_secure_session_data));
                      dof_secure_session->ssid = group->ssid;
                      dof_secure_session->domain_length = group->domain_length;
                      dof_secure_session->domain = group->domain;
                      dof_secure_session->original_session_id = cmd_data->request_session->session_id;
                      dof_secure_session->parent = dof_session;
                      dof_secure_session->is_2_node = false0;
                      dof_secure_session->next = cmd_data->request_session->secure_sessions;
                      cmd_data->request_session->secure_sessions = dof_secure_session;
                  }

                  /* This packet represents a new key exchange, and so a new key exchange data
                  * structure needs to be created.
                  */
                  {
                      key_exchange = wmem_alloc0(wmem_file_scope(), sizeof(dof_session_key_exchange_data));
                      if (!key_exchange)
                      return offset;

                      key_exchange->i_valid = packet_data->opid_first->dof_frame;
                      key_exchange->r_valid = packet_data->dof_frame;
                      key_exchange->security_mode = auth->security_mode;
                      key_exchange->security_mode_data = auth->mode;
                      key_exchange->security_mode_data_length = auth->mode_length;
                      key_exchange->session_key = discovered_kek;

                      /* Insert the new key information at the front of the list. */
                      if (!dof_secure_session->session_security_data_last)
                      dof_secure_session->session_security_data = key_exchange;
                      else
                      dof_secure_session->session_security_data_last->next = key_exchange;

                      dof_secure_session->session_security_data_last = key_exchange;
                  }

                  /* Look up the field-dissector table, and determine if it is registered. */
                  field_dissector = find_dissector_table("dps.secmode");
                  if (field_dissector != NULL((void*)0))
                  {
                      field_handle = dissector_get_uint_handle(field_dissector, auth->security_mode);
                      if (field_handle != NULL((void*)0))
                      {
                          dof_secmode_api_data setup_data;
                          int block_length;
                          tvbuff_t *ntvb = tvb_new_subset_remaining(tvb, A_offset);

                          setup_data.context = INITIALIZE;
                          setup_data.security_mode_offset = 0;
                          setup_data.dof_api = api_data;
                          setup_data.secure_session = dof_secure_session;
                          setup_data.session_key_data = key_exchange;
                          block_length = call_dissector_only(field_handle, ntvb, pinfo, tree, &setup_data);
                      }
                  }
              }
          }
9227#endif
      }
  }
      break;

  default:
      break;
  }

  return offset;
9237}

9239static bool_Bool validate_session_key(tep_rekey_data *rekey, unsigned S_length, uint8_t *S, uint8_t *confirmation, uint8_t *key)
9240{
  uint8_t pad[16];
  gcry_mac_hd_t hmac;
  gcry_error_t result;

  if (rekey->i_nonce_length > sizeof(pad) || rekey->r_nonce_length > sizeof(pad))
      return false0;
  if ((S_length > 0 && S == NULL((void*)0)) || (rekey->r_identity_length > 0 && rekey->r_identity == NULL((void*)0)))
      return false0;

  memset(pad, 0, sizeof(pad));
  result = gcry_mac_open(&hmac, GCRY_MAC_HMAC_SHA256, 0, NULL((void*)0));
  if (result != 0)
      return false0;

  gcry_mac_setkey(hmac, key, 32);
  gcry_mac_write(hmac, pad, 16 - rekey->i_nonce_length);
  if (rekey->i_nonce_length > 0)
      gcry_mac_write(hmac, rekey->i_nonce, rekey->i_nonce_length);
  gcry_mac_write(hmac, pad, 16 - rekey->r_nonce_length);
  if (rekey->r_nonce_length > 0)
      gcry_mac_write(hmac, rekey->r_nonce, rekey->r_nonce_length);
  if (S_length > 0)
      gcry_mac_write(hmac, S, S_length);
  if (rekey->r_identity_length > 0)
      gcry_mac_write(hmac, rekey->r_identity, rekey->r_identity_length);
  result = gcry_mac_verify(hmac, confirmation, 32);
  gcry_mac_close(hmac);
  return result == 0;
9269}

9271static int dissect_tep_dsp(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data _U___attribute__((unused)))
9272{
  /* We are handed a buffer that starts with our protocol id. Any options follow that. */
  unsigned offset = 0;

  /* We don't care except for the treeview. */
  if (!tree)
      return 0;

  /* Compute the version and flags, masking off other bits. */
  offset += 4; /* Skip the type and protocol. */

  proto_tree_add_item(tree, hf_dsp_option, tvb, 0, -1, ENC_NA0x00000000);
  return offset;
9285}

9287static int dissect_2008_4_tep_2_2_1(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, uint32_t *ssid, void *data)
9288{
  unsigned offset = 0;
  proto_item *ti;
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;

  if (api_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  /* State Identifier - Only if Unsecured */
  if (packet_data->decrypted_buffer == NULL((void*)0))
  {
      proto_item *pi;
      int ssid_len;
      int start = offset;
      offset = read_c4(tvb, offset, ssid, &ssid_len);
      pi = proto_tree_add_uint(tree, hf_tep_2_2_1_state_identifier, tvb, start, offset - start, *ssid);
      validate_c4(pinfo, pi, *ssid, ssid_len);
  }

  /* Initial State */
  {
      int block_length;
      tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
      ti = proto_tree_add_item(tree, hf_tep_2_2_1_initial_state, tvb, offset, 0, ENC_NA0x00000000);
      ti = proto_item_add_subtree(ti, ett_tep_2_2_1_initial_state);
      block_length = dof_dissect_pdu(dissect_2008_16_security_9, start, pinfo, ti, NULL((void*)0));
      proto_item_set_len(ti, block_length);
      offset += block_length;
  }

  return offset;
9330}

9332/**
* This is the main entry point for the CCM dissector.
* TEP operations create security periods.
* They can also create sessions when used with "None" sessions.
* In any case, these PDUs need to pass information between
* them.
* They also must maintain state for each rekey request, some of
* which modify the session key, some of which create new
* sessions, and others that determine new session information
* like permission sets.
*
* In order to store information appropriately, the following structures are
* used:
*   1. api_data (dof_api_data*) source for all other state.
*   2. packet (dof_packet_data*) dps packet information.
*   3. rekey_data (tep_rekey_data*) tep information for rekey/accept/confirm.
*/
9349static int dissect_tep(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
9350{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet;
  tep_rekey_data *rekey_data;

  unsigned offset = 0;
  uint8_t operation;
  uint16_t app;
  int app_len;
  proto_item *ti;
  proto_tree *tep_tree, *operation_tree;

  if (api_data == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  packet = api_data->packet;
  if (packet == NULL((void*)0))
  {
      /* TODO: Output error. */
      return 0;
  }

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "TEPv1 ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_tep, tvb, offset, -1, ENC_NA0x00000000);
  tep_tree = proto_item_add_subtree(ti, ett_tep);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(tep_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo,ti, app, app_len);

  /* Check for empty packet. */
  if (offset == tvb_captured_length(tvb))
  {
      col_append_str(pinfo->cinfo, COL_INFO, "TEP [nop]");
      expert_add_info(pinfo, tep_tree, &ei_implicit_no_op);

      return offset;
  }

  /* Retrieve the opcode. */
  operation = tvb_get_uint8(tvb, offset);
  if (!packet->is_command)
      operation |= TEP_OPCODE_RSP(0x80);

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, operation, tep_opcode_strings, "Unknown Opcode (%d)"));

  ti = proto_tree_add_uint_format(tep_tree, hf_tep_operation, tvb, offset, 1, operation, "Operation: %s (%u)", val_to_str(pinfo->pool, operation, tep_opcode_strings, "Unknown Opcode (%d)"), operation);

  operation_tree = proto_item_add_subtree(ti, ett_tep_operation);
  ti = proto_tree_add_boolean(operation_tree, hf_tep_operation_type, tvb, offset, 0, operation);
  proto_item_set_generated(ti);

  /* The flags are reserved except for OPCODE=1 & COMMAND */
  if ((operation & 0x8F) == 0x01)
  {
      proto_tree_add_item(operation_tree, hf_tep_c, tvb, offset, 1, ENC_NA0x00000000);
      proto_tree_add_item(operation_tree, hf_tep_k, tvb, offset, 1, ENC_NA0x00000000);
  }

  proto_tree_add_item(operation_tree, hf_tep_opcode, tvb, offset, 1, ENC_NA0x00000000);
  offset += 1;

  switch (operation)
  {
  case TEP_PDU_REQUEST_KEY((0x10)|(1)):
      /* The K bit must be set, so there is a domain ONLY IF NOT SECURED. */

      /* Remember the current request. */
      rekey_data = (tep_rekey_data *)packet->opid_data;
      if (!rekey_data)
      {
          packet->opid_data = rekey_data = wmem_new0(wmem_file_scope(), tep_rekey_data)((tep_rekey_data*)wmem_alloc0((wmem_file_scope()), sizeof(tep_rekey_data
)));
      }

      if (!rekey_data->key_data)
          rekey_data->key_data = wmem_new0(wmem_file_scope(), dof_session_key_exchange_data)((dof_session_key_exchange_data*)wmem_alloc0((wmem_file_scope
()), sizeof(dof_session_key_exchange_data)));
      rekey_data->is_rekey = true1;

      /* The K bit must be set, so there is a domain ONLY IF NOT SECURED. */
      if (packet->decrypted_buffer == NULL((void*)0))
      {
          int start_offset = offset;

          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, tep_tree,
                                            offset, hf_tep_2_1_domain, ett_tep_2_1_domain, NULL((void*)0));

          if (!rekey_data->domain)
          {
              rekey_data->domain_length = dof_consumed_length(offset, start_offset);
              rekey_data->domain = (uint8_t *)wmem_alloc0(wmem_file_scope(), rekey_data->domain_length);

              /* Get the buffer. */
              tvb_memcpy(tvb, rekey_data->domain, start_offset, rekey_data->domain_length);
          }
      }
      else
      {
          /* The domain is not present, but this is a secure packet and so the domain can be obtained
          * through the session.
          */
          if (!rekey_data->domain)
          {
              rekey_data->domain_length = api_data->secure_session->domain_length;
              rekey_data->domain = api_data->secure_session->domain;
          }
      }

      /* FALL THROUGH */

  case TEP_PDU_REQUEST(1):

      /* Remember the current request. */
      rekey_data = (tep_rekey_data *)packet->opid_data;
      if (!rekey_data)
      {
          if (api_data->secure_session == NULL((void*)0))
          {
              /* TODO: Output error. */
              return 0;
          }
          packet->opid_data = rekey_data = wmem_new0(wmem_file_scope(), tep_rekey_data)((tep_rekey_data*)wmem_alloc0((wmem_file_scope()), sizeof(tep_rekey_data
)));
          rekey_data->domain_length = api_data->secure_session->domain_length;
          rekey_data->domain = api_data->secure_session->domain;
      }

      /* The C bit must be clear, so there is an Initiator Block. */
      {
          dof_2008_16_security_6_1 response;
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_1, tvb, pinfo, tep_tree,
                                            offset, hf_tep_2_1_initiator_block, ett_tep_2_1_initiator_block, &response);
          if (!packet->processed)
          {
              tvbuff_t *inonce = response.i_nonce;
              tvbuff_t *iidentity = response.i_identity;

              rekey_data->i_nonce_length = tvb_reported_length(inonce);
              rekey_data->i_nonce = (uint8_t *)wmem_alloc0(wmem_file_scope(), rekey_data->i_nonce_length);
              tvb_memcpy(inonce, rekey_data->i_nonce, 0, rekey_data->i_nonce_length);

              rekey_data->i_identity_length = tvb_reported_length(iidentity);
              rekey_data->i_identity = (uint8_t *)wmem_alloc0(wmem_file_scope(), rekey_data->i_identity_length);
              tvb_memcpy(iidentity, rekey_data->i_identity, 0, rekey_data->i_identity_length);

              rekey_data->security_mode = response.security_mode;
              rekey_data->security_mode_data_length = response.security_mode_data_length;
              rekey_data->security_mode_data = response.security_mode_data;
          }
      }
      break;

  case TEP_PDU_ACCEPT((0x80)|(1)):
  {
      uint32_t ssid = 0;
      uint8_t *S = NULL((void*)0);
      unsigned S_length = 0;
      uint8_t confirmation[32];
      typedef struct identity_key
      {
          uint8_t *session_key;
          struct identity_key *next;
      } identity_key;
      identity_key *identity_key_list = NULL((void*)0);
      dof_secure_session_data *dof_secure_session = NULL((void*)0);

      if (!packet->opid_first)
      {
          /* TODO: Print error */
          return 0;
      }

      rekey_data = (tep_rekey_data *)packet->opid_first->opid_data;
      if (!rekey_data)
          return tvb_captured_length(tvb);

      /* Initiator Ticket */
      {
          int start_offset;
          uint8_t ticket[64];

          start_offset = offset;
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, tep_tree,
                                            offset, hf_tep_2_2_initiator_ticket, ett_tep_2_2_initiator_ticket, NULL((void*)0));

          if (!packet->processed)
          {
              int i;

              /* Produce a (possibly empty) list of potential keys based on our
              * initiator secrets based on identity. These will be validated
              * later on.
              */
              for (i = 0; i < globals.global_security->identity_data_count; i++)
              {
                  dof_identity_data *identity = globals.global_security->identity_data + i;
                  gcry_cipher_hd_t rijndael_handle;
                  int j;

                  if (identity->domain_length != rekey_data->domain_length)
                      continue;
                  if (memcmp(identity->domain, rekey_data->domain, identity->domain_length) != 0)
                      continue;
                  if (identity->identity_length != rekey_data->i_identity_length)
                      continue;
                  if (memcmp(identity->identity, rekey_data->i_identity, identity->identity_length) != 0)
                      continue;

                  tvb_memcpy(tvb, ticket, start_offset, 64);

                  if (!gcry_cipher_open(&rijndael_handle, GCRY_CIPHER_AES, GCRY_CIPHER_MODE_ECB, 0)) {
                      if (!gcry_cipher_setkey(rijndael_handle, identity->secret, 32)) {
                          gcry_cipher_encrypt(rijndael_handle, ticket, 16, NULL((void*)0), 0);
                          gcry_cipher_encrypt(rijndael_handle, ticket + 16, 16, NULL((void*)0), 0);
                      }
                      gcry_cipher_close(rijndael_handle);
                  }

                  for (j = 0; j < 32; j++)
                      ticket[j + 32] = ticket[j + 32] ^ ticket[j];

                  /* Add the key to the list - ep memory. */
                  {
                      identity_key *key = (identity_key *)wmem_alloc0(wmem_file_scope(), sizeof(*key));
                      key->session_key = (uint8_t *)wmem_alloc0(wmem_file_scope(), 32);
                      memcpy(key->session_key, ticket + 32, 32);
                      key->next = identity_key_list;
                      identity_key_list = key;
                  }
              }
          }
      }

      /* Ticket Confirmation */
      {
          if (!packet->processed)
              tvb_memcpy(tvb, confirmation, offset, sizeof(confirmation));
          proto_tree_add_item(tep_tree, hf_tep_2_2_ticket_confirmation, tvb, offset, 32, ENC_NA0x00000000);
          offset += 32;
      }

      /* Responder Initialization - present based on whether the command was a rekey */
      {

          if (rekey_data->is_rekey)
          {
              int block_length;
              tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
              ti = proto_tree_add_item(tep_tree, hf_tep_2_2_responder_initialization, tvb, offset, 0, ENC_NA0x00000000);
              ti = proto_item_add_subtree(ti, ett_tep_2_2_responder_initialization);
              block_length = dissect_2008_4_tep_2_2_1(start, pinfo, ti, &ssid, data);
              proto_item_set_len(ti, block_length);
              offset += block_length;

              if (!packet->processed)
              {
                  if (block_length > 0)
                  {
                      S_length = (unsigned)block_length;
                      S = (uint8_t *)wmem_alloc0(wmem_file_scope(), S_length);
                      tvb_memcpy(start, S, 0, S_length);
                  }
              }

              /* TEP can create new sessions when not used inside an existing secure
              * session. Each session can use an SSID, present in TEP.2.2.1.
              * Note that in this case there may be no existing session, and so
              * we need to "backpedal" and create one.
              */
              if (packet->decrypted_buffer == NULL((void*)0) && !packet->processed)
              {
9627#if 0
                  if (api_data->session)
                  tep_session = (tep_session_data*)dof_session_get_proto_data((dof_session_data*)api_data->session, proto_tep);
                  if (!tep_session && api_data->session)
                  {
                      tep_session = (tep_session_data*)se_alloc0(sizeof(*tep_session));
                      dof_session_add_proto_data((dof_session_data*)api_data->session, proto_tep, tep_session);
                  }

                  tep_session->pending_rekey = cmd;
                  tep_session->pending_confirm = packet;
9638#endif
              }
          }
      }

      /* Responder Block */
      {
          dof_2008_16_security_6_2 response;
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_2, tvb, pinfo, tep_tree,
                                            offset, hf_tep_2_2_responder_block, ett_tep_2_2_responder_block, &response);
          if (!packet->processed)
          {
              tvbuff_t *rnonce = response.r_nonce;
              tvbuff_t *ridentity = response.r_identity;

              rekey_data->r_nonce_length = tvb_reported_length(rnonce);
              rekey_data->r_nonce = (uint8_t *)wmem_alloc0(wmem_file_scope(), rekey_data->r_nonce_length);
              tvb_memcpy(rnonce, rekey_data->r_nonce, 0, rekey_data->r_nonce_length);

              rekey_data->r_identity_length = tvb_reported_length(ridentity);
              rekey_data->r_identity = (uint8_t *)wmem_alloc0(wmem_file_scope(), rekey_data->r_identity_length);
              tvb_memcpy(ridentity, rekey_data->r_identity, 0, rekey_data->r_identity_length);
          }
      }

      /* Authentication Initialization */
      {
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_3, tvb, pinfo, tep_tree,
                                            offset, hf_tep_2_2_authenticator_initialization, ett_tep_2_2_authenticator_initialization, NULL((void*)0));
      }


      /* The request was accepted, and so a new secure session exists. We define the session,
      * add it to the list of secure sessions for the unsecure session, and EPP will do the
      * rest.
      */
      if (packet->decrypted_buffer == NULL((void*)0))
      {
          /* This triggers the creation of the corresponding secure DPS session if it is not already
          * created. This allows information to be stored in that session even though no packets
          * have used it yet. There is a problem, however, because at this point we do not know
          * the SSID that (may) be associated with this session.
          */
          {
              dof_session_data *dof_session = api_data->session;

              dof_secure_session = dof_session->secure_sessions;
              while (dof_secure_session != NULL((void*)0))
              {
                  /* Determine matching session. The session list already is scoped by transport and DPS
                  * session, so the only thing remaining is the domain and secure session ID.
                  */
                  if ((dof_secure_session->ssid == ssid) &&
                      (dof_secure_session->domain_length == rekey_data->domain_length) &&
                      (memcmp(dof_secure_session->domain, rekey_data->domain, rekey_data->domain_length) == 0))
                      break;

                  dof_secure_session = dof_secure_session->next;
              }

              if (!dof_secure_session)
              {
                  dof_session = wmem_new0(wmem_file_scope(), dof_session_data)((dof_session_data*)wmem_alloc0((wmem_file_scope()), sizeof(dof_session_data
)));
                  dof_session->session_id = globals.next_session++;
                  dof_session->dof_id = api_data->session->dof_id;

                  dof_secure_session = wmem_new0(wmem_file_scope(), dof_secure_session_data)((dof_secure_session_data*)wmem_alloc0((wmem_file_scope()), sizeof
(dof_secure_session_data)));
                  dof_secure_session->ssid = ssid;
                  dof_secure_session->domain_length = rekey_data->domain_length;
                  dof_secure_session->domain = rekey_data->domain;
                  dof_secure_session->original_session_id = api_data->session->session_id;
                  dof_secure_session->parent = dof_session;
                  dof_secure_session->is_2_node = true1;
                  dof_secure_session->next = api_data->session->secure_sessions;
                  api_data->session->secure_sessions = dof_secure_session;

                  if (!dof_secure_session->session_security_data_last)
                      dof_secure_session->session_security_data = rekey_data->key_data;
                  else
                      dof_secure_session->session_security_data_last->next = rekey_data->key_data;

                  dof_secure_session->session_security_data_last = rekey_data->key_data;
              }
          }
      }

      /* This PDU indicates the beginning of security for the responder. The next PDU
      * sent will be encrypted with these settings. This means that we must determine
      * the security settings and set them in the session.
      */
      if (!packet->processed && rekey_data->is_rekey)
      {
          int i;
          uint8_t *session_key = NULL((void*)0);

          /* We have everything that we need. Determine the session secret if we can. */

          /* Check any keys determined above by initiator identity. */
          while (session_key == NULL((void*)0) && identity_key_list)
          {
              if (validate_session_key(rekey_data, S_length, S, confirmation, identity_key_list->session_key))
              {
                  session_key = (uint8_t *)wmem_alloc0(wmem_file_scope(), 32);
                  memcpy(session_key, identity_key_list->session_key, 32);
              }

              identity_key_list = identity_key_list->next;
          }

          /* For each key in the global configuration, see if we can validate the confirmation. */
          for (i = 0; session_key == NULL((void*)0) && i < globals.global_security->session_key_count; i++)
          {
              if (validate_session_key(rekey_data, S_length, S, confirmation, globals.global_security->session_key[i].session_key))
                  session_key = globals.global_security->session_key[i].session_key;
          }


          /* Whether or not this can be decrypted, the security mode information
          * should be kept with the session.
          */
          {
              rekey_data->key_data->r_valid = packet->dof_frame;
              rekey_data->key_data->i_valid = UINT32_MAX(4294967295U);
              rekey_data->key_data->session_key = session_key;
              rekey_data->key_data->security_mode = rekey_data->security_mode;
              rekey_data->key_data->security_mode_data_length = rekey_data->security_mode_data_length;
              rekey_data->key_data->security_mode_data = rekey_data->security_mode_data;

              if (session_key && dof_secure_session)
              {
                  /* Look up the field-dissector table, and determine if it is registered. */
                  dissector_table_t field_dissector = find_dissector_table("dof.secmode");
                  if (field_dissector != NULL((void*)0))
                  {
                      dissector_handle_t field_handle = dissector_get_uint_handle(field_dissector, rekey_data->key_data->security_mode);
                      if (field_handle != NULL((void*)0))
                      {
                          dof_secmode_api_data setup_data;

                          setup_data.context = INITIALIZE;
                          setup_data.security_mode_offset = 0;
                          setup_data.dof_api = api_data;
                          setup_data.secure_session = dof_secure_session;
                          setup_data.session_key_data = rekey_data->key_data;

                          call_dissector_only(field_handle, NULL((void*)0), pinfo, NULL((void*)0), &setup_data);
                      }
                  }
              }
          }
      }

      /* Add a field to show the session key that has been learned (in this
       * pass or an earlier one).
       */
      if (rekey_data->key_data && rekey_data->key_data->session_key && tep_tree)
      {
          ti = proto_tree_add_bytes_with_length(tree, hf_tep_session_key, tvb, 0, 0, rekey_data->key_data->session_key, 32);
          proto_item_set_generated(ti);
      }
  }
      break;

  case TEP_PDU_CONFIRM((0x20)|(1)):
  {
      /* C is set, K is clear. */
      /* Ticket Confirmation */
      proto_tree_add_item(tep_tree, hf_tep_2_1_ticket_confirmation, tvb, offset, 32, ENC_NA0x00000000);
      offset += 32;

      if (!packet->processed && api_data->session && packet->opid_first && packet->opid_first->opid_data)
      {
          dof_session_key_exchange_data *sk_data;

          rekey_data = (tep_rekey_data *)packet->opid_first->opid_data;
          sk_data = rekey_data->key_data;

          /* TODO: Error if not found or if already set. */
          if (sk_data)
              sk_data->i_valid = packet->dof_frame;
      }
  }
      break;

  case TEP_PDU_END_SESSION(5):
  case TEP_PDU_SESSION_ENDING(6):
      break;

  case TEP_PDU_REJECT((0x80)|0):
  {
      /* Error Code */
      proto_tree_add_item(tep_tree, hf_tep_reject_code, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;

      /* Error Description */
      if (tvb_captured_length(tvb) > offset)
          proto_tree_add_item(tep_tree, hf_tep_reject_data, tvb, offset, -1, ENC_NA0x00000000);
  }
      break;

  default:
      break;
  }
  return offset;
9842}

9844static int dissect_trp_dsp(tvbuff_t *tvb, packet_info *pinfo _U___attribute__((unused)), proto_tree *tree, void *data _U___attribute__((unused)))
9845{
  /* We are handed a buffer that starts with our protocol id. Any options follow that. */
  unsigned offset = 0;

  /* We don't care except for the treeview. */
  if (!tree)
      return 0;

  /* Compute the version and flags, masking off other bits. */
  offset += 4; /* Skip the type and protocol. */

  proto_tree_add_item(tree, hf_trp_dsp_option, tvb, 0, -1, ENC_NA0x00000000);
  return offset;
9858}

9860static int dissect_trp(tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *data)
9861{
  dof_api_data *api_data = (dof_api_data *)data;
  dof_packet_data *packet_data;
  unsigned offset = 0;
  uint8_t opcode;
  uint16_t app;
  int app_len;
  proto_item *ti;
  proto_tree *trp_tree;
  trp_packet_data *trp_data;

  /* Make entries in Protocol column and Info column on summary display */
  col_set_str(pinfo->cinfo, COL_PROTOCOL, "TRP ");

  /* Create the protocol tree. */
  offset = 0;
  ti = proto_tree_add_item(tree, proto_trp, tvb, offset, -1, ENC_NA0x00000000);
  trp_tree = proto_item_add_subtree(ti, ett_trp);

  /* Add the APPID. */
  offset = read_c2(tvb, offset, &app, &app_len);
  ti = proto_tree_add_uint(trp_tree, hf_2008_1_app_version, tvb, 0, app_len, app);
  validate_c2(pinfo, ti, app, app_len);

  if (api_data == NULL((void*)0))
  {
      expert_add_info_format(pinfo, ti, &ei_malformed, "api_data == NULL");
      return offset;
  }

  packet_data = api_data->packet;
  if (packet_data == NULL((void*)0))
  {
      expert_add_info_format(pinfo, ti, &ei_malformed, "api_data == NULL");
      return offset;
  }

  trp_data = (trp_packet_data *)dof_packet_get_proto_data(packet_data, proto_trp);

  if (offset == tvb_captured_length(tvb))
  {
      col_append_str(pinfo->cinfo, COL_INFO, "TRP [nop]");
      expert_add_info(pinfo, trp_tree, &ei_implicit_no_op);

      return offset;
  }

  /* Retrieve the opcode. */
  opcode = tvb_get_uint8(tvb, offset);
  if (!packet_data->is_command)
      opcode |= TRP_RESPONSE(0x80);

  col_append_fstr(pinfo->cinfo, COL_INFO, "%s ", val_to_str(pinfo->pool, opcode, trp_opcode_strings, "Unknown Opcode (%d)"));

  /* Opcode */
  ti = proto_tree_add_uint_format(trp_tree, hf_trp_opcode, tvb, offset, 1, opcode & 0x7F, "Opcode: %s (%u)", val_to_str(pinfo->pool, opcode, trp_opcode_strings, "Unknown Opcode (%d)"), opcode & 0x7F);
  offset += 1;

  switch (opcode)
  {
  case TRP_RSP_REJECT((0x80)|0):
  {
      /* Error Code */
      proto_tree_add_item(trp_tree, hf_trp_errorcode, tvb, offset, 1, ENC_NA0x00000000);
      offset += 1;
  }
      break;

  case TRP_CMD_REQUEST_KEK(1):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;

      /* Domain - Security.7 */
      start_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree, offset, hf_domain, ett_domain, NULL((void*)0));
      if (!packet_data->processed)
      {
          domain_length = dof_consumed_length(offset, start_offset);
          domain_buf = (uint8_t *)wmem_alloc0(wmem_file_scope(), domain_length);
          tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
      }

      /* Initiator Block - TRP.4.1.1 */
      {
          dof_2008_16_security_4 response;
          trp_packet_data *trp_pkt_data = NULL((void*)0);

          start_offset = offset;

          /* Initiator Key Request - Security.4 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_4, tvb, pinfo, trp_tree,
                                            offset, hf_initiator_request, ett_initiator_request, &response);
          if (!packet_data->processed)
          {
              tvbuff_t *identity = response.identity;
              unsigned identity_length = tvb_reported_length(identity);
              uint8_t *identity_buf = (uint8_t *)wmem_alloc0(pinfo->pool, identity_length);
              int i;

              /* Get the buffer. */
              tvb_memcpy(identity, identity_buf, 0, identity_length);

              /* Check to see if there is a matching identity. */
              for (i = 0; i < globals.global_security->identity_data_count; i++)
              {
                  dof_identity_data *gidentity = globals.global_security->identity_data + i;

                  if (domain_length != gidentity->domain_length ||
                      memcmp(domain_buf, gidentity->domain, domain_length) != 0)
                      continue;

                  if (identity_length == gidentity->identity_length &&
                      memcmp(identity_buf, gidentity->identity, identity_length) == 0)
                  {
                      trp_pkt_data = wmem_new0(wmem_file_scope(), trp_packet_data)((trp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(trp_packet_data
)));
                      dof_packet_add_proto_data(packet_data, proto_trp, trp_pkt_data);

                      trp_pkt_data->domain_length = domain_length;
                      trp_pkt_data->domain = (uint8_t *)wmem_alloc0(wmem_file_scope(), domain_length);
                      memcpy(trp_pkt_data->domain, domain_buf, domain_length);

                      trp_pkt_data->identity_length = identity_length;
                      trp_pkt_data->identity = (uint8_t *)wmem_alloc0(wmem_file_scope(), identity_length);
                      memcpy(trp_pkt_data->identity, identity_buf, identity_length);

                      trp_pkt_data->secret = gidentity->secret;
                  }
              }
          }

          /* The initiator is in the identity table (found now or in an
           * earlier pass).
           */
          if (trp_pkt_data || (trp_data && trp_data->identity_length))
              expert_add_info(pinfo, ti, &ei_trp_initiator_id_known);

          /* Group Identifier - Security.8 */
          {
              int gid_start = offset;
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_8, tvb, pinfo, trp_tree,
                                                offset, hf_group_identifier, ett_group_identifier, NULL((void*)0));

              if (trp_pkt_data)
              {
                  trp_pkt_data->group_length = dof_consumed_length(offset, gid_start);
                  trp_pkt_data->group = (uint8_t *)wmem_alloc0(wmem_file_scope(), trp_pkt_data->group_length);
                  tvb_memcpy(tvb, trp_pkt_data->group, gid_start, trp_pkt_data->group_length);
              }
          }

          if (trp_pkt_data)
          {
              /* We need to store the entire block_I for later use. */
              trp_pkt_data->block_I_length = dof_consumed_length(offset, start_offset);
              trp_pkt_data->block_I = (uint8_t *)wmem_alloc0(wmem_file_scope(), trp_pkt_data->block_I_length);
              tvb_memcpy(tvb, trp_pkt_data->block_I, start_offset, trp_pkt_data->block_I_length);
          }
      }
  }
      break;

  case TRP_RSP_REQUEST_KEK((0x80)|(1)):
  {
      int start_offset;
      uint32_t ssid;
      uint8_t *mode;
      unsigned mode_length;
      uint8_t *block_A;
      unsigned block_A_length;

      if (trp_data && trp_data->kek_known)
      {
          expert_add_info(pinfo, ti, &ei_trp_kek_discovered);
      }

      /* Initiator Ticket - Security.5 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, trp_tree,
                                        offset, hf_initiator_ticket, ett_initiator_ticket, NULL((void*)0));

      /* Initialization Block - TRP.4.2.1 */
      /* A BLOCK */
      {
          start_offset = offset;

          /* THB */
          {
              proto_tree_add_item(trp_tree, hf_thb, tvb, offset, 1, ENC_NA0x00000000);
              offset += 1;
          }

          /* TMIN */
          {
              proto_tree_add_item(trp_tree, hf_tmin, tvb, offset, 1, ENC_NA0x00000000);
              offset += 1;
          }

          /* TMAX */
          {
              proto_tree_add_item(trp_tree, hf_tmax, tvb, offset, 1, ENC_NA0x00000000);
              offset += 1;
          }

          /* Epoch */
          {
              proto_tree_add_item(trp_tree, hf_trp_epoch, tvb, offset, 2, ENC_BIG_ENDIAN0x00000000);
              offset += 2;
          }

          /* SIDg - Type.4 */
          {
              offset = dof_dissect_pdu_as_field(dissect_2009_11_type_4, tvb, pinfo, trp_tree,
                                                offset, hf_sidg, ett_sidg, NULL((void*)0));
          }

          /* Initiator Node Security Scope - Security.10 */
          {
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_10, tvb, pinfo, trp_tree,
                                                offset, hf_security_scope, ett_security_scope, NULL((void*)0));
          }

          /* Security Mode - Security.13 */
          {
              int mode_start = offset;
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_13, tvb, pinfo, trp_tree,
                                                offset, hf_security_mode, ett_security_mode, NULL((void*)0));
              if (!packet_data->processed)
              {
                  mode_length = dof_consumed_length(offset, mode_start);
                  mode = (uint8_t *)wmem_alloc0(pinfo->pool, mode_length);
                  tvb_memcpy(tvb, mode, mode_start, mode_length);
              }
          }

          /* State Identifier - Type.3 */
          {
              int s_offset = offset;
              int ssid_len;
              proto_item *pi;
              offset = read_c4(tvb, offset, &ssid, &ssid_len);
              ssid |= AS_ASSIGNED_SSID0x40000000;   /* TRP SSID are *always* assigned by the AS. */
              pi = proto_tree_add_uint_format(trp_tree, hf_ssid, tvb, s_offset, offset - s_offset, ssid, "SSID: %u", ssid);
              validate_c4(pinfo, pi, ssid, ssid_len);
          }

          /* PG - Security.2 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_2, tvb, pinfo, trp_tree,
                                            offset, hf_responder_pg, ett_responder_pg, NULL((void*)0));

          /* Group Validation - Security.11 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_11, tvb, pinfo, trp_tree,
                                            offset, hf_responder_validation, ett_responder_validation, NULL((void*)0));

          /* Initiator Validation - Security.11 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_11, tvb, pinfo, trp_tree,
                                            offset, hf_initiator_validation, ett_initiator_validation, NULL((void*)0));

          block_A_length = dof_consumed_length(offset, start_offset);
          block_A = (uint8_t *)wmem_alloc0(pinfo->pool, block_A_length);
          tvb_memcpy(tvb, block_A, start_offset, block_A_length);
      }

      /* Determine the KEK, if possible. This requires that either the initiator node's secret
      * is known or that the group has been configured. In either case this requires knowledge
      * from the matching command, including the domain, identity, and group information.
      */
      if (packet_data->opid_first && !packet_data->processed)
      {
10130#if 0
          trp_packet_data* cmd_data = (trp_packet_data*)dof_packet_get_proto_data(packet_data->opid_first, proto_trp);
          uint8_t mac[32];
          extern struct BlockCipher BlockCipher_AES_256;
          struct BlockCipher* cipher = &BlockCipher_AES_256;
          uint8_t* ekey = (uint8_t*)ep_alloc(cipher->keyStateSize);

          int i;

          if (cmd_data)
          {
              uint8_t kek[32];

              tvb_memcpy(tvb, mac, mac_offset, 32);
              tvb_memcpy(tvb, kek, mac_offset + 32, 32);

              if (cipher != NULL((void*)0))
              {
                  cipher->GenerateKeyState(ekey, cmd_data->secret);
                  cipher->Encrypt(ekey, mac);
                  cipher->Encrypt(ekey, mac + 16);
              }

              for (i = 0; i < 32; i++)
              kek[i] ^= mac[i];

              {
                  OALSecureHMACContext ctx;
                  OALSecureHMACDigest digest;

                  OALSecureHMAC_Start(&ctx, cmd_data->secret);
                  OALSecureHMAC_Digest(&ctx, cmd_data->domain_length, cmd_data->domain);
                  OALSecureHMAC_Digest(&ctx, cmd_data->block_I_length, cmd_data->block_I);
                  OALSecureHMAC_Digest(&ctx, block_A_length, block_A);
                  OALSecureHMAC_Digest(&ctx, 32, kek);
                  OALSecureHMAC_Finish(&ctx, digest);

                  tvb_memcpy(tvb, mac, mac_offset, 32);
                  if (memcmp(mac, digest, 32) == 0)
                  {
                      dof_learned_group_data* group = globals.learned_group_data;
                      dof_learned_group_auth_data *auth = NULL((void*)0);

                      /* The KEK has been discovered, flag this for output on the PDU. */
                      if (!trp_data)
                      {
                          trp_data = wmem_alloc0(wmem_file_scope(), sizeof(trp_packet_data));
                          dof_packet_add_proto_data(packet_data, proto_trp, trp_data);
                      }

                      trp_data->kek_known = true1;

                      while (group)
                      {
                          if ((cmd_data->domain_length == group->domain_length) &&
                              (memcmp(cmd_data->domain, group->domain, group->domain_length) == 0) &&
                              (cmd_data->group_length == group->group_length) &&
                              (memcmp(cmd_data->group, group->group, group->group_length) == 0) &&
                              (ssid == group->ssid))
                          break;

                          group = group->next;
                      }

                      if (group == NULL((void*)0))
                      {
                          group = wmem_alloc0(wmem_file_scope, sizeof(dof_learned_group_data));
                          group->domain_length = cmd_data->domain_length;
                          group->domain = cmd_data->domain;
                          group->group_length = cmd_data->group_length;
                          group->group = cmd_data->group;
                          group->ssid = ssid;
                          group->next = globals.learned_group_data;
                          globals.learned_group_data = group;
                      }

                      auth = group->keys;

                      while (auth)
                      {
                          if (epoch == auth->epoch)
                          break;

                          auth = auth->next;
                      }

                      if (auth == NULL((void*)0))
                      {
                          auth = wmem_alloc0(wmem_file_scope(), sizeof(dof_learned_group_auth_data));
                          auth->epoch = epoch;
                          auth->next = group->keys;
                          group->keys = auth;

                          auth->kek = (uint8_t*)wmem_alloc0(wmem_file_scope(), 32);
                          memcpy(auth->kek, kek, 32);

                          auth->mode_length = mode_length;
                          auth->mode = (uint8_t*)wmem_alloc0(wmem_file_scope(), mode_length);
                          memcpy(auth->mode, mode, mode_length);

                          auth->security_mode = (mode[1] * 256) | mode[2];
                          auth->parent = group;
                      }
                  }
              }
          }
10236#endif
      }
  }
      break;

  case TRP_CMD_REQUEST_RANDOM(2):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;

      /* Domain - Security.7 */
      start_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree,
                                        offset, hf_domain, ett_domain, NULL((void*)0));
      if (!packet_data->processed)
      {
          domain_length = dof_consumed_length(offset, start_offset);
          domain_buf = (uint8_t *)wmem_alloc0(pinfo->pool, domain_length);
          tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
      }

      /* Initiator Block - TRP.6.1.1 */
      {
          dof_2008_16_security_4 response;
          trp_packet_data *trp_pkt_data = NULL((void*)0);

          start_offset = offset;

          /* Initiator Key Request - Security.4 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_4, tvb, pinfo, trp_tree,
                                            offset, hf_initiator_request, ett_initiator_request, &response);
          if (!packet_data->processed)
          {
              tvbuff_t *identity = response.identity;
              unsigned identity_length = tvb_reported_length(identity);
              uint8_t *identity_buf = (uint8_t *)wmem_alloc0(pinfo->pool, identity_length);
              int i;

              /* Get the buffer. */
              tvb_memcpy(identity, identity_buf, 0, identity_length);

              /* Check to see if there is a matching identity. */
              for (i = 0; i < globals.global_security->identity_data_count; i++)
              {
                  dof_identity_data *gidentity = globals.global_security->identity_data + i;

                  if (domain_length != gidentity->domain_length ||
                      memcmp(domain_buf, gidentity->domain, domain_length) != 0)
                      continue;

                  if (identity_length == gidentity->identity_length &&
                      memcmp(identity_buf, gidentity->identity, identity_length) == 0)
                  {
                      trp_pkt_data = wmem_new0(wmem_file_scope(), trp_packet_data)((trp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(trp_packet_data
)));
                      dof_packet_add_proto_data(packet_data, proto_trp, trp_pkt_data);

                      trp_pkt_data->domain_length = domain_length;
                      trp_pkt_data->domain = (uint8_t *)wmem_alloc0(wmem_file_scope(), domain_length);
                      memcpy(trp_pkt_data->domain, domain_buf, domain_length);

                      trp_pkt_data->identity_length = identity_length;
                      trp_pkt_data->identity = (uint8_t *)wmem_alloc0(wmem_file_scope(), identity_length);
                      memcpy(trp_pkt_data->identity, identity_buf, identity_length);

                      trp_pkt_data->secret = gidentity->secret;
                  }
              }
          }

          /* The initiator is in the identity table (found now or in an
           * earlier pass).
           */
          if (trp_pkt_data || (trp_data && trp_data->identity_length))
              expert_add_info(pinfo, ti, &ei_trp_initiator_id_known);

          if (trp_pkt_data)
          {
              /* We need to store the entire block_I for later use. */
              trp_pkt_data->block_I_length = dof_consumed_length(offset, start_offset);
              trp_pkt_data->block_I = (uint8_t *)wmem_alloc0(wmem_file_scope(), trp_pkt_data->block_I_length);
              tvb_memcpy(tvb, trp_pkt_data->block_I, start_offset, trp_pkt_data->block_I_length);
          }
      }
  }
      break;

  case TRP_RSP_REQUEST_RANDOM((0x80)|(2)):
  {
      /* Initiator Ticket - Security.5 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, trp_tree,
                                        offset, hf_initiator_ticket, ett_initiator_ticket, NULL((void*)0));
  }
      break;

  case TRP_CMD_REQUEST_SECURITY_SCOPES(4):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;

      /* Domain - Security.7 */
      start_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree,
                                        offset, hf_domain, ett_domain, NULL((void*)0));
      if (!packet_data->processed)
      {
          domain_length = dof_consumed_length(offset, start_offset);
          domain_buf = (uint8_t *)wmem_alloc0(pinfo->pool, domain_length);
          tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
      }

      /* Initiator Block - TRP.5.1.1 */
      {
          dof_2008_16_security_4 response;
          trp_packet_data *trp_pk_data = NULL((void*)0);

          start_offset = offset;

          /* Initiator Duration Request */
          proto_tree_add_item(trp_tree, hf_trp_duration, tvb, offset, 1, ENC_NA0x00000000);
          offset += 1;

          /* Initiator Key Request - Security.4 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_4, tvb, pinfo, trp_tree,
                                            offset, hf_initiator_request, ett_initiator_request, &response);
          if (!packet_data->processed)
          {
              tvbuff_t *identity = response.identity;
              unsigned identity_length = tvb_reported_length(identity);
              uint8_t *identity_buf = (uint8_t *)wmem_alloc0(pinfo->pool, identity_length);
              int i;

              /* Get the buffer. */
              tvb_memcpy(identity, identity_buf, 0, identity_length);

              /* Check to see if there is a matching identity. */
              for (i = 0; i < globals.global_security->identity_data_count; i++)
              {
                  dof_identity_data *gidentity = globals.global_security->identity_data + i;

                  if (domain_length != gidentity->domain_length ||
                      memcmp(domain_buf, gidentity->domain, domain_length) != 0)
                      continue;

                  if (identity_length == gidentity->identity_length &&
                      memcmp(identity_buf, gidentity->identity, identity_length) == 0)
                  {
                      trp_pk_data = wmem_new0(wmem_file_scope(), trp_packet_data)((trp_packet_data*)wmem_alloc0((wmem_file_scope()), sizeof(trp_packet_data
)));
                      dof_packet_add_proto_data(packet_data, proto_trp, trp_pk_data);

                      trp_pk_data->domain_length = domain_length;
                      trp_pk_data->domain = (uint8_t *)wmem_alloc0(wmem_file_scope(), domain_length);
                      memcpy(trp_pk_data->domain, domain_buf, domain_length);

                      trp_pk_data->identity_length = identity_length;
                      trp_pk_data->identity = (uint8_t *)wmem_alloc0(wmem_file_scope(), identity_length);
                      memcpy(trp_pk_data->identity, identity_buf, identity_length);

                      trp_pk_data->secret = gidentity->secret;
                  }
              }
          }

          /* The initiator is in the identity table (found now or in an
           * earlier pass).
           */
          if (trp_pk_data || (trp_data && trp_data->identity_length))
              expert_add_info(pinfo, ti, &ei_trp_initiator_id_known);

          /* Node - Security.8 */
          {
              int gid_start = offset;
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_8, tvb, pinfo, trp_tree,
                                                offset, hf_node_identifier, ett_node_identifier, NULL((void*)0));

              if (trp_pk_data)
              {
                  trp_pk_data->group_length = dof_consumed_length(offset, gid_start);
                  trp_pk_data->group = (uint8_t *)wmem_alloc0(wmem_file_scope(), trp_pk_data->group_length);
                  tvb_memcpy(tvb, trp_pk_data->group, gid_start, trp_pk_data->group_length);
              }
          }

          if (trp_pk_data)
          {
              /* We need to store the entire block_I for later use. */
              trp_pk_data->block_I_length = dof_consumed_length(offset, start_offset);
              trp_pk_data->block_I = (uint8_t *)wmem_alloc0(wmem_file_scope(), trp_pk_data->block_I_length);
              tvb_memcpy(tvb, trp_pk_data->block_I, start_offset, trp_pk_data->block_I_length);
          }
      }
  }
      break;

  case TRP_RSP_REQUEST_SECURITY_SCOPES((0x80)|(4)):
  {
      int start_offset;
      uint8_t *block_A;
      unsigned block_A_length;

      /* Initiator Ticket - Security.5 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, trp_tree,
                                        offset, hf_initiator_ticket, ett_initiator_ticket, NULL((void*)0));

      /* Initialization Block - TRP.5.2.1 */
      /* A BLOCK */
      {
          start_offset = offset;

          /* Initiator Duration Request */
          proto_tree_add_item(trp_tree, hf_trp_duration, tvb, offset, 1, ENC_NA0x00000000);
          offset += 1;

          /* Initiator Node Security Scope - Security.10 */
          {
              offset = dof_dissect_pdu_as_field(dissect_2008_16_security_10, tvb, pinfo, trp_tree,
                                                offset, hf_security_scope, ett_security_scope, NULL((void*)0));
          }

          /* Validation - Security.11 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_11, tvb, pinfo, trp_tree,
                                            offset, hf_initiator_validation, ett_initiator_validation, NULL((void*)0));

          block_A_length = dof_consumed_length(offset, start_offset);
          block_A = (uint8_t *)wmem_alloc0(pinfo->pool, block_A_length);
          tvb_memcpy(tvb, block_A, start_offset, block_A_length);
      }
  }
      break;

  case TRP_CMD_RESOLVE_CREDENTIAL(6):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;

      /* Domain - Security.7 */
      start_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree,
                                        offset, hf_domain, ett_domain, NULL((void*)0));
      if (!packet_data->processed)
      {
          domain_length = dof_consumed_length(offset, start_offset);
          domain_buf = (uint8_t *)wmem_alloc0(pinfo->pool, domain_length);
          tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
      }

      /* Identity Resolution - Security.3.2 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_3_2, tvb, pinfo, trp_tree,
                                        offset, hf_identity_resolution, ett_identity_resolution, NULL((void*)0));
  }
      break;

  case TRP_RSP_RESOLVE_CREDENTIAL((0x80)|(6)):
  {
      /* Identity Resolution - Security.3.2 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_3_2, tvb, pinfo, trp_tree,
                                        offset, hf_identity_resolution, ett_identity_resolution, NULL((void*)0));
  }
      break;

  case TRP_CMD_REQUEST_SESSION(3):
  {
      uint8_t *domain_buf = NULL((void*)0);
      unsigned domain_length = 0;
      int start_offset;

      if (trp_data && trp_data->identity_length)
      {
          expert_add_info(pinfo, ti, &ei_trp_initiator_id_known);
      }

      /* Domain - Security.7 */
      start_offset = offset;
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree,
                                        offset, hf_domain, ett_domain, NULL((void*)0));
      if (!packet_data->processed)
      {
          domain_length = dof_consumed_length(offset, start_offset);
          domain_buf = (uint8_t *)wmem_alloc0(pinfo->pool, domain_length);
          tvb_memcpy(tvb, domain_buf, start_offset, domain_length);
      }

      /* Responder Block - Security.6.2 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_2, tvb, pinfo, trp_tree,
                                        offset, hf_responder_request, ett_responder_request, NULL((void*)0));

      /* Initiator Block - Security.6.1 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_1, tvb, pinfo, trp_tree,
                                        offset, hf_initiator_request, ett_initiator_request, NULL((void*)0));
  }
      break;

  case TRP_RSP_REQUEST_SESSION((0x80)|(3)):
  {
      int start_offset;
      uint8_t *block_A;
      unsigned block_A_length;

      /* Responder Ticket - Security.5 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, trp_tree,
                                        offset, hf_responder_ticket, ett_responder_ticket, NULL((void*)0));

      /* Initiator Ticket - Security.5 */
      offset = dof_dissect_pdu_as_field(dissect_2008_16_security_5, tvb, pinfo, trp_tree,
                                        offset, hf_initiator_ticket, ett_initiator_ticket, NULL((void*)0));


      /* Initialization Block - Security.6.3 */
      /* A BLOCK */
      {
          start_offset = offset;

          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_6_3, tvb, pinfo, trp_tree,
                                            offset, hf_authentication_block, ett_authentication_block, NULL((void*)0));

          block_A_length = dof_consumed_length(offset, start_offset);
          block_A = (uint8_t *)wmem_alloc0(pinfo->pool, block_A_length);
          tvb_memcpy(tvb, block_A, start_offset, block_A_length);
      }
  }
      break;

  case TRP_CMD_VALIDATE_CREDENTIAL(9):
      {
          tvbuff_t *data_tvb;

          /* Domain - Security.7 */
          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_7, tvb, pinfo, trp_tree,
                                            offset, hf_domain, ett_domain, NULL((void*)0));

          offset = dof_dissect_pdu_as_field(dissect_2008_16_security_3_1, tvb, pinfo, trp_tree,
                                            offset, hf_identity_resolution, ett_identity_resolution, NULL((void*)0));
          data_tvb = tvb_new_subset_remaining(tvb, offset);
          call_data_dissector(data_tvb, pinfo, trp_tree);
      }
      break;

  case TRP_RSP_VALIDATE_CREDENTIAL((0x80)|(9)):
  {
      tvbuff_t *data_tvb = tvb_new_subset_remaining(tvb, offset);
      call_data_dissector(data_tvb, pinfo, trp_tree);
  }
     break;
  }

  return offset;
10584}

10586/* Initialize Core Tunnel Functionality */
10587static void dof_tun_register(void)
10588{
  static hf_register_info hf[] =
  {
      { &hf_2012_1_tunnel_1_version,
          { "Version", "dof.2012_1.tunnel_1.version", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2012_1_tunnel_1_length,
          { "Length", "dof.2012_1.tunnel_1.length", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  static int *ett[] = {
      &ett_2012_1_tunnel,
  };

  proto_2012_1_tunnel = proto_register_protocol(TUNNEL_PROTOCOL_STACK"DOF Tunnel Protocol Stack", "DTPS", "dtps");
  proto_register_field_array(proto_2012_1_tunnel, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

  register_dissector_with_description("dof.tunnel", TUNNEL_PROTOCOL_STACK"DOF Tunnel Protocol Stack", dissect_tunnel_common, proto_2012_1_tunnel);
  dof_tun_app_dissectors = register_dissector_table("dof.tunnel.app", "DOF Tunnel Version", proto_2012_1_tunnel, FT_UINT8, BASE_DEC);
10609}

10611static void dof_tun_reset(void)
10612{
10613}

10615static void dof_tun_cleanup(void)
10616{
10617}

10619/* The registration hand-off routine */
10620static void dof_tun_handoff(void)
10621{
  static dissector_handle_t tcp_handle;

  register_dissector_with_description("dof.app", TUNNEL_APPLICATION_PROTOCOL"DOF Tunnel Protocol", dissect_tun_app_common, proto_2008_1_app);

  tcp_handle = create_dissector_handle(dissect_tunnel_tcp, proto_2012_1_tunnel);

  dissector_add_uint_with_preference("tcp.port", DOF_TUN_NON_SEC_TCP_PORT8567, tcp_handle);
10629}

10631/* Main DOF Registration Support */

10633static void dof_reset(void)
10634{
  globals.next_session = 1;
  globals.next_transport_session = 1;
  globals.dof_packet_head = globals.dof_packet_tail = NULL((void*)0);
  globals.global_security = &global_security;
  globals.learned_group_data = NULL((void*)0);
  globals.decrypt_all_packets = decrypt_all_packets;
  globals.track_operations = track_operations;
  globals.track_operations_window = track_operations_window;

  init_addr_port_tables();

  /* Reset the packet counter. */
  next_dof_frame = 1;

  /* Load the template values for different groups. */
  {
      secmode_field_t *list = secmode_list;
      unsigned i;

      global_security.group_data = g_new0(dof_group_data, num_secmode_list)((dof_group_data *) g_malloc0_n ((num_secmode_list), sizeof (
dof_group_data)));
      global_security.group_data_count = num_secmode_list;
      for (i = 0; i < num_secmode_list; i++)
      {
          unsigned kek_len;
          dof_group_data *group_data = global_security.group_data + i;
          uint32_t size;

          /* Hex digits or an OID string, as for the identity secrets. */
          if (VALIDHEX(list[i].domain[0])( ((list[i].domain[0]) >= '0' && (list[i].domain[0
]) <= '9') || ((list[i].domain[0]) >= 'A' && (list
[i].domain[0]) <= 'F') || ((list[i].domain[0]) >= 'a' &&
 (list[i].domain[0]) <= 'f') ))
          {
              parse_hex_string(list[i].domain, &(group_data->domain), &(group_data->domain_length));
          }
          else
          {
              size = (uint32_t)strlen(list[i].domain);
              dof_oid_new_standard_string(list[i].domain, &size, &(group_data->domain));
              group_data->domain_length = size;
          }

          if (VALIDHEX(list[i].identity[0])( ((list[i].identity[0]) >= '0' && (list[i].identity
[0]) <= '9') || ((list[i].identity[0]) >= 'A' &&
 (list[i].identity[0]) <= 'F') || ((list[i].identity[0]) >=
 'a' && (list[i].identity[0]) <= 'f') ))
          {
              parse_hex_string(list[i].identity, &(group_data->identity), &(group_data->identity_length));
          }
          else
          {
              size = (uint32_t)strlen(list[i].identity);
              dof_oid_new_standard_string(list[i].identity, &size, &(group_data->identity));
              group_data->identity_length = size;
          }
          parse_hex_string(list[i].kek, &(group_data->kek), &kek_len);
      }
  }

  /* Load the template values for different secrets. */
  {
      seckey_field_t *list = seckey_list;
      unsigned i;

      /* Clear existing. */
      for (i = 0; i < global_security.session_key_count; i++)
      {
          dof_session_key_data *session_data = &global_security.session_key[i];
          g_free(session_data->session_key)(__builtin_object_size ((session_data->session_key), 0) !=
 ((size_t) - 1)) ? g_free_sized (session_data->session_key
, __builtin_object_size ((session_data->session_key), 0)) :
 (g_free) (session_data->session_key);
      }

      g_free(global_security.session_key)(__builtin_object_size ((global_security.session_key), 0) != (
(size_t) - 1)) ? g_free_sized (global_security.session_key, __builtin_object_size
 ((global_security.session_key), 0)) : (g_free) (global_security
.session_key);
      global_security.session_key = NULL((void*)0);
      global_security.session_key_count = 0;

      global_security.session_key = g_new0(dof_session_key_data, num_seckey_list)((dof_session_key_data *) g_malloc0_n ((num_seckey_list), sizeof
 (dof_session_key_data)));
      global_security.session_key_count = num_seckey_list;
      for (i = 0; i < num_seckey_list; i++)
      {
          unsigned key_len;
          dof_session_key_data *session_data = global_security.session_key + i;
          parse_hex_string(list[i].key, &(session_data->session_key), &key_len);
      }
  }

  /* Load the template values for different identities. */
  {
      identsecret_field_t *list = identsecret_list;
      unsigned i;

      /* Clear existing. */
      for (i = 0; i < global_security.identity_data_count; i++)
      {
          dof_identity_data *identity_data = &global_security.identity_data[i];
          g_free(identity_data->domain)(__builtin_object_size ((identity_data->domain), 0) != ((size_t
) - 1)) ? g_free_sized (identity_data->domain, __builtin_object_size
 ((identity_data->domain), 0)) : (g_free) (identity_data->
domain);
          g_free(identity_data->identity)(__builtin_object_size ((identity_data->identity), 0) != (
(size_t) - 1)) ? g_free_sized (identity_data->identity, __builtin_object_size
 ((identity_data->identity), 0)) : (g_free) (identity_data
->identity);
          g_free(identity_data->secret)(__builtin_object_size ((identity_data->secret), 0) != ((size_t
) - 1)) ? g_free_sized (identity_data->secret, __builtin_object_size
 ((identity_data->secret), 0)) : (g_free) (identity_data->
secret);
      }

      g_free(global_security.identity_data)(__builtin_object_size ((global_security.identity_data), 0) !=
 ((size_t) - 1)) ? g_free_sized (global_security.identity_data
, __builtin_object_size ((global_security.identity_data), 0))
 : (g_free) (global_security.identity_data);
      global_security.identity_data = NULL((void*)0);
      global_security.identity_data_count = 0;

      global_security.identity_data = g_new0(dof_identity_data, num_identsecret_list)((dof_identity_data *) g_malloc0_n ((num_identsecret_list), sizeof
 (dof_identity_data)));
      global_security.identity_data_count = num_identsecret_list;
      for (i = 0; i < num_identsecret_list; i++)
      {
          unsigned key_len;
          uint32_t size;

          dof_identity_data *identity_data = global_security.identity_data + i;
          if (VALIDHEX(list[i].domain[0])( ((list[i].domain[0]) >= '0' && (list[i].domain[0
]) <= '9') || ((list[i].domain[0]) >= 'A' && (list
[i].domain[0]) <= 'F') || ((list[i].domain[0]) >= 'a' &&
 (list[i].domain[0]) <= 'f') ))
          {
              parse_hex_string(list[i].domain, &(identity_data->domain), &(identity_data->domain_length));
          }
          else
          {
              size = (uint32_t)strlen(list[i].domain);
              dof_oid_new_standard_string(list[i].domain, &size, &(identity_data->domain));
              identity_data->domain_length = size;
          }

          if (VALIDHEX(list[i].identity[0])( ((list[i].identity[0]) >= '0' && (list[i].identity
[0]) <= '9') || ((list[i].identity[0]) >= 'A' &&
 (list[i].identity[0]) <= 'F') || ((list[i].identity[0]) >=
 'a' && (list[i].identity[0]) <= 'f') ))
          {
              parse_hex_string(list[i].identity, &(identity_data->identity), &(identity_data->identity_length));
          }
          else
          {
              size = (uint32_t)strlen(list[i].identity);
              dof_oid_new_standard_string(list[i].identity, &size, &(identity_data->identity));
              identity_data->identity_length = size;
          }

          parse_hex_string(list[i].secret, &(identity_data->secret), &key_len);
      }
  }
10765}

10767static void dof_cleanup(void)
10768{
  unsigned i;

  /* Clear existing. */
  for (i = 0; i < global_security.group_data_count; i++)
  {
      dof_group_data *group_data = &global_security.group_data[i];
      g_free(group_data->domain)(__builtin_object_size ((group_data->domain), 0) != ((size_t
) - 1)) ? g_free_sized (group_data->domain, __builtin_object_size
 ((group_data->domain), 0)) : (g_free) (group_data->domain
);
      g_free(group_data->identity)(__builtin_object_size ((group_data->identity), 0) != ((size_t
) - 1)) ? g_free_sized (group_data->identity, __builtin_object_size
 ((group_data->identity), 0)) : (g_free) (group_data->identity
);
      g_free(group_data->kek)(__builtin_object_size ((group_data->kek), 0) != ((size_t)
 - 1)) ? g_free_sized (group_data->kek, __builtin_object_size
 ((group_data->kek), 0)) : (g_free) (group_data->kek);
  }

  g_free(global_security.group_data)(__builtin_object_size ((global_security.group_data), 0) != (
(size_t) - 1)) ? g_free_sized (global_security.group_data, __builtin_object_size
 ((global_security.group_data), 0)) : (g_free) (global_security
.group_data);
  global_security.group_data = NULL((void*)0);
  global_security.group_data_count = 0;

10784}

10786/**
* Initialize Core DPS Functionality
*/
10789static void dof_register(void)
10790{
  static hf_register_info hf[] =
  {
      { &hf_security_1_permission_type,
          { "Permission Type", "dof.2008.16.security.1.desired-duration", FT_UINT16, BASE_DEC, VALS(dof_2008_16_permission_type)((0 ? (const struct _value_string*)0 : ((dof_2008_16_permission_type
)))), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_1_length,
          { "Length", "dof.2008.16.security.1.length", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_1_data,
          { "Data", "dof.2008.16.security.1.data", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.2 */
      { &hf_security_2_count,
          { "Count", "dof.2008.16.security.2.count", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_2_permission,
          { "Permission", "dof.2008.16.security.2.permission", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.3.1 */
      { &hf_security_3_1_credential_type,
          { "Credential Type", "dof.2008.16.security.3.1.credential_type", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_3_1_stage,
          { "Stage", "dof.2008.16.security.3.1.stage", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_3_1_security_node_identifier,
          { "Security Node Identifier", "dof.2008.16.security.3.1.security_node_identifier", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security 3.2 */
      { &hf_security_3_2_credential_type,
          { "Credential Type", "dof.2008.16.security.3.2.credential_type", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_3_2_stage,
          { "Stage", "dof.2008.16.security.3.2.stage", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_3_2_length,
          { "Length", "dof.2008.16.security.3.2.length", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_3_2_public_data,
          { "Public Data", "dof.2008.16.security.3.2.public_data", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.4 */
      { &hf_security_4_l,
          { "L", "dof.2008.16.security.4.l", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_4_f,
          { "F", "dof.2008.16.security.4.f", FT_UINT8, BASE_DEC, NULL((void*)0), 0x40, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_4_ln,
          { "Ln", "dof.2008.16.security.4.ln", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_4_identity,
          { "Identity", "dof.2008.16.security.4.identity", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_4_nonce,
          { "Nonce", "dof.2008.16.security.4.nonce", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_4_permission_set,
          { "Permission Set", "dof.2008.16.security.4.permission_set", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.5 */
      { &hf_security_5_mac,
          { "MAC", "dof.2008.16.security.5.mac", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_5_key,
          { "KEY", "dof.2008.16.security.5.key", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.6.1 */
      { &hf_security_6_1_desired_duration,
          { "Desired Duration", "dof.2008.16.security.6.1.desired_duration", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_6_1_desired_security_mode,
          { "Desired Security Mode", "dof.2008.16.security.6.1.desired_security_mode", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_6_1_initiator_request,
          { "Initiator Request", "dof.2008.16.security.6.1.initiator_request", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.6.2 */
      { &hf_security_6_2_responder_request,
          { "Responder Request", "dof.2008.16.security.6.2.responder_request", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.6.3 */
      { &hf_security_6_3_granted_duration,
          { "Granted Duration", "dof.2008.16.security.6.3.granted_duration", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_6_3_session_security_scope,
          { "Session Security Scope", "dof.2008.16.security.6.3.session_security_scope", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_6_3_initiator_validation,
          { "Initiator Validation", "dof.2008.16.security.6.3.initiator_validation", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_6_3_responder_validation,
          { "Responder Validation", "dof.2008.16.security.6.3.responder_validation", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.9 */
      { &hf_security_9_length,
          { "Length", "dof.2008.16.security.9.length", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_9_initial_state,
          { "Initial State", "dof.2008.16.security.9.initial_state", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.10 */
      { &hf_security_10_count,
          { "Count", "dof.2008.16.security.10.count", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_10_permission_group_identifier,
          { "Permission Group Identifier", "dof.2008.16.security.10.permission_group_identifier", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.11 */
      { &hf_security_11_count,
          { "Count", "dof.2008.16.security.11.count", FT_UINT16, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_11_permission_security_scope,
          { "Permission Security Scope", "dof.2008.16.security.11.permission_security_scope", FT_NONE, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* Security.12 */
      { &hf_security_12_m,
          { "M", "dof.2008.16.security.12.m", FT_UINT8, BASE_DEC, VALS(dof_2008_16_security_12_m)((0 ? (const struct _value_string*)0 : ((dof_2008_16_security_12_m
)))), 0xC0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_12_count,
          { "Count", "dof.2008.16.security.12.count", FT_UINT8, BASE_DEC, NULL((void*)0), 0x3F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_12_permission_group_identifier,
          { "Permission Group Identifier", "dof.2008.16.security.12.permission_group_identifier", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2008_1_dof_session_transport,
          { "Transport Session", "dof.transport_session", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dof_session,
          { "DPS Session", "dof.session", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dof_frame,
          { "DPS Frame", "dof.frame", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dof_is_2_node,
          { "DPS Is 2 Node", "dof.is_2_node", FT_BOOLEAN, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dof_is_streaming,
          { "DPS Is Streaming", "dof.is_streaming", FT_BOOLEAN, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dof_is_from_client,
          { "DPS Is From Client", "dof.is_from_client", FT_BOOLEAN, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      }
  };

  static int *ett[] = {
      /* Security.2 */
      &ett_security_2_permission,
      &ett_security_3_1_security_node_identifier,

      /* Security.11 */
      &ett_security_11_permission_security_scope,

      &ett_security_6_1_desired_security_mode,
      &ett_security_6_1_initiator_request,

      &ett_security_6_2_responder_request,
      &ett_security_6_3_session_security_scope,
      &ett_security_6_3_initiator_validation,
      &ett_security_6_3_responder_validation,

      &ett_security_4_identity,
      &ett_security_4_permission_set,

      &ett_2008_1_dof,
  };

  static ei_register_info ei[] =
  {
10960#if 0
      { &ei_undecoded, { "dof.undecoded", PI_UNDECODED0x05000000, PI_WARN0x00600000, "DOF: Some protocol octets were not decoded", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
10962#endif
      { &ei_malformed, { "dof.malformed", PI_MALFORMED0x07000000, PI_ERROR0x00800000, "Malformed:", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_implicit_no_op, { "dof.implicit_no_op", PI_PROTOCOL0x09000000, PI_COMMENT0x00100000, "Implicit No-op", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_c2_c3_c4_format, { "dof.c2_c3_c4_format", PI_MALFORMED0x07000000, PI_WARN0x00600000, "DOF: Cx IE format", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_security_3_1_invalid_stage, { "dof.security.3.1.invalid_stage", PI_MALFORMED0x07000000, PI_ERROR0x00800000, "DPS: Security.3.1: Stage invalid.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_security_4_invalid_bit, { "dof.security.4.invalid_bit", PI_MALFORMED0x07000000, PI_WARN0x00600000, "DPS: Security.4: Reserved bit set.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_security_13_out_of_range, { "dof.security.13.out_of_range", PI_MALFORMED0x07000000, PI_ERROR0x00800000, "DPS: Security.13: Attribute Data out of range.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  /* Security mode of operation templates. */
  static uat_field_t secmode_uat_fields[] = {
      UAT_FLD_CSTRING(secmode_list, domain, "Domain", "The domain, coded as hex digits of PDU Security.7."){"domain", "Domain", PT_TXTMOD_STRING,{uat_fld_chk_str,secmode_list_domain_set_cb
,secmode_list_domain_tostr_cb},{0,0,0},0,"The domain, coded as hex digits of PDU Security.7."
,((void*)0)},
      UAT_FLD_CSTRING(secmode_list, identity, "Group ID", "The group identifier, coded as hex digits of PDU Security.8."){"identity", "Group ID", PT_TXTMOD_STRING,{uat_fld_chk_str,secmode_list_identity_set_cb
,secmode_list_identity_tostr_cb},{0,0,0},0,"The group identifier, coded as hex digits of PDU Security.8."
,((void*)0)},
      UAT_FLD_CSTRING(secmode_list, kek, "KEK", "The KEK, coded as hex digits representing the KEK (256-bit)."){"kek", "KEK", PT_TXTMOD_STRING,{uat_fld_chk_str,secmode_list_kek_set_cb
,secmode_list_kek_tostr_cb},{0,0,0},0,"The KEK, coded as hex digits representing the KEK (256-bit)."
,((void*)0)},
      UAT_END_FIELDS{((void*)0),((void*)0),PT_TXTMOD_NONE,{0,0,0},{0,0,0},0,0,((void
*)0)}
  };

  /* Security keys. */
  static uat_field_t seckey_uat_fields[] = {
      UAT_FLD_CSTRING(seckey_list, key, "Session Key", "The session key to try to use, coded as hex digits representing the key (256-bit)."){"key", "Session Key", PT_TXTMOD_STRING,{uat_fld_chk_str,seckey_list_key_set_cb
,seckey_list_key_tostr_cb},{0,0,0},0,"The session key to try to use, coded as hex digits representing the key (256-bit)."
,((void*)0)},
      UAT_END_FIELDS{((void*)0),((void*)0),PT_TXTMOD_NONE,{0,0,0},{0,0,0},0,0,((void
*)0)}
  };

  /* Identity secrets. */
  static uat_field_t identsecret_uat_fields[] = {
      UAT_FLD_CSTRING(identsecret_list, domain, "Domain", "The domain, coded as hex digits of PDU Security.7."){"domain", "Domain", PT_TXTMOD_STRING,{uat_fld_chk_str,identsecret_list_domain_set_cb
,identsecret_list_domain_tostr_cb},{0,0,0},0,"The domain, coded as hex digits of PDU Security.7."
,((void*)0)},
      UAT_FLD_CSTRING(identsecret_list, identity, "Identity", "The group identifier, coded as hex digits of PDU Security.8."){"identity", "Identity", PT_TXTMOD_STRING,{uat_fld_chk_str,identsecret_list_identity_set_cb
,identsecret_list_identity_tostr_cb},{0,0,0},0,"The group identifier, coded as hex digits of PDU Security.8."
,((void*)0)},
      UAT_FLD_CSTRING_OTHER(identsecret_list, secret, "Secret", identsecret_chk_cb, "The resolved secret for a given identity, coded as hex digits representing the secret (256-bit)."){"secret", "Secret", PT_TXTMOD_STRING,{ identsecret_chk_cb ,identsecret_list_secret_set_cb
,identsecret_list_secret_tostr_cb},{0,0,0},0,"The resolved secret for a given identity, coded as hex digits representing the secret (256-bit)."
,((void*)0)},
      UAT_END_FIELDS{((void*)0),((void*)0),PT_TXTMOD_NONE,{0,0,0},{0,0,0},0,0,((void
*)0)}
  };

  module_t *dof_module;
  uat_t *secmode_uat;
  uat_t *seckey_uat;
  uat_t *identsecret_uat;
  expert_module_t *expert_security;

  dsp_option_dissectors = register_dissector_table("dof.dsp.options", "DSP Protocol Options", proto_2008_1_dsp, FT_UINT32, BASE_DEC);
  dof_sec_dissectors = register_dissector_table("dof.secmode", "DOF Security Mode of Operation", proto_2008_1_dof, FT_UINT16, BASE_DEC);
  register_dissector_table("dof.2008.1", "DOF Common PDU", proto_2008_1_dof, FT_STRING, BASE_DEC);

  proto_2008_1_dof = proto_register_protocol(DOF_PROTOCOL_STACK"DOF Protocol Stack", "DOF", "dof");

  proto_2008_1_dof_tcp = proto_register_protocol(DOF_PROTOCOL_STACK"DOF Protocol Stack"" TCP", "DOF-TCP", "dof-tcp");
  proto_2008_1_dof_udp = proto_register_protocol(DOF_PROTOCOL_STACK"DOF Protocol Stack"" UDP", "DOF-UDP", "dof-udp");

  proto_register_field_array(proto_2008_1_dof, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

  expert_security = expert_register_protocol(proto_2008_1_dof);
  expert_register_field_array(expert_security, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));

  dof_module = prefs_register_protocol(proto_2008_1_dof, dof_reset);
  secmode_uat = uat_new("DPS Security Mode Templates",
                        sizeof(secmode_field_t),
                        "custom_dof_secmode_list",
                        true1,
                        &secmode_list,
                        &num_secmode_list,
                        (UAT_AFFECTS_DISSECTION0x00000001 | UAT_AFFECTS_FIELDS0x00000002),
                        NULL((void*)0),
                        secmode_list_copy_cb,
                        secmode_list_update_cb,
                        secmode_list_free_cb,
                        secmode_list_post_update_cb,
                        NULL((void*)0),
                        secmode_uat_fields
                        );

  seckey_uat = uat_new("DPS Session Keys",
                       sizeof(seckey_field_t),
                       "custom_dof_seckey_list",
                       true1,
                       &seckey_list,
                       &num_seckey_list,
                       (UAT_AFFECTS_DISSECTION0x00000001 | UAT_AFFECTS_FIELDS0x00000002),
                       NULL((void*)0),
                       seckey_list_copy_cb,
                       seckey_list_update_cb,
                       seckey_list_free_cb,
                       seckey_list_post_update_cb,
                       NULL((void*)0),
                       seckey_uat_fields
                       );

  identsecret_uat = uat_new("DPS Identity Secrets",
                            sizeof(identsecret_field_t),
                            "custom_dof_identsecret_list",
                            true1,
                            &identsecret_list,
                            &num_identsecret_list,
                            (UAT_AFFECTS_DISSECTION0x00000001 | UAT_AFFECTS_FIELDS0x00000002),
                            NULL((void*)0),
                            identsecret_list_copy_cb,
                            identsecret_list_update_cb,
                            identsecret_list_free_cb,
                            identsecret_list_post_update_cb,
                            NULL((void*)0),
                            identsecret_uat_fields
                            );

  prefs_register_bool_preference(dof_module, "custom_dof_decrypt_all",
                                 "Attempt to decrypt all packets",
                                 "Specifies that decryption should be attempted on all packets, even if the session initialization wasn't captured.",
                                 &decrypt_all_packets);

  prefs_register_bool_preference(dof_module, "custom_dof_track_operations",
                                 "Track DPS operations",
                                 "Specifies that operations should be tracked across multiple packets, providing summary lists. This takes time and memory.",
                                 &track_operations);

  prefs_register_uint_preference(dof_module, "custom_dof_track_operations_window",
                                 "Track DPS window",
                                 "Limits the number of operations shown before and after the current operations",
                                 10, &track_operations_window);

  prefs_register_static_text_preference(dof_module, "name4567", "The following are tables not preferences.", "These tables are not controlled by OK, Apply, and Cancel of this dialog.");

  prefs_register_uat_preference(dof_module, "custom_dof_secmode_list", "DPS Security Mode Templates",
                                "A table of security modes and initialization data that will be tried if no security mode is found.",
                                secmode_uat);

  prefs_register_uat_preference(dof_module, "custom_dof_seckey_list", "DPS Session Keys",
                                "A table of session keys to attempt if none is known.",
                                seckey_uat);

  prefs_register_uat_preference(dof_module, "custom_dof_identsecret_list", "DPS Identity Secrets",
                                "A table of secrets for different identities.",
                                identsecret_uat);
11091}

11093static void dof_handoff(void)
11094{
  static dissector_handle_t tcp_handle;

  dof_oid_handle = register_dissector_with_description("dof.oid", DOF_OBJECT_IDENTIFIER"DOF Object Identifier", dissect_2009_11_type_4, oid_proto);

  tcp_handle = create_dissector_handle(dissect_dof_tcp, proto_2008_1_dof);
  dof_udp_handle = create_dissector_handle(dissect_dof_udp, proto_2008_1_dof);

  dissector_add_uint_with_preference("tcp.port", DOF_P2P_NEG_SEC_TCP_PORT3567, tcp_handle);
  dissector_add_uint_range_with_preference("udp.port", DOF_NEG_SEC_UDP_PORT_RANGE"3567,5567", dof_udp_handle);
11104}

11106/* OID Registration Support */

11108static void oid_reset(void)
11109{
11110}

11112static void oid_cleanup(void)
11113{
11114}

11116/* Initialize OID */
11117static void oid_register(void)
11118{
  static hf_register_info hf[] = {
      { &hf_oid_class,
          { "Class", "dof.oid.class", FT_UINT32, BASE_DEC, NULL((void*)0), 0, "DPS Object Identifier Class", HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_header,
          { "Header", "dof.oid.header", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute,
          { "Attribute", "dof.oid.attribute", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_length,
          { "Length", "dof.oid.length", FT_UINT8, BASE_DEC, NULL((void*)0), 0x3F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_data,
          { "Data", "dof.oid.data", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_all_attribute_data,
          { "Attribute Data", "dof.oid.attribute-data", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_header,
          { "Header", "dof.attribute.header", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_attribute,
          { "Attribute", "dof.attribute.attribute", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_id,
          { "ID", "dof.attribute.id", FT_UINT8, BASE_DEC, NULL((void*)0), 0x7F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_length,
          { "Length", "dof.attribute.length", FT_UINT8, BASE_DEC, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_data,
          { "Data", "dof.attribute.data", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_oid_attribute_oid,
          { "OID", "dof.attribute.oid", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  static int *ett[] = {
      &ett_oid,
      &ett_oid_header,
      &ett_oid_attribute,
      &ett_oid_attribute_header,
      &ett_oid_attribute_oid,
  };

  static ei_register_info ei[] =
  {
      { &ei_type_4_header_zero, { "dof.oid.header_zero", PI_MALFORMED0x07000000, PI_ERROR0x00800000, "DOF Violation: Type.4: Header bit mandated 0.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  if (oid_proto == -1)
  {
      expert_module_t *expert_oid;

      oid_proto = proto_register_protocol(DOF_OBJECT_IDENTIFIER"DOF Object Identifier", "DPS.OID", "dof.oid");
      proto_register_field_array(oid_proto, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
      proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
      expert_oid = expert_register_protocol(oid_proto);
      expert_register_field_array(expert_oid, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
  }
11181}

11183static void oid_handoff(void)
11184{
11185}

11187/* DNP Registration Support */

11189static unsigned dof_ns_session_key_hash_fn(const void *key)
11190{
  const dof_ns_session_key *session_key = (const dof_ns_session_key *)key;
  unsigned result = 0;

  result += g_int_hash(&session_key->transport_session_id);
  result += g_int_hash(&session_key->client);
  result += g_int_hash(&session_key->server);

  return result;
11199}

11201static gboolean dof_ns_session_key_equal_fn(const void *key1, const void *key2)
11202{
  const dof_ns_session_key *session_key_ptr1 = (const dof_ns_session_key *)key1;
  const dof_ns_session_key *session_key_ptr2 = (const dof_ns_session_key *)key2;

  if (session_key_ptr1->transport_session_id != session_key_ptr2->transport_session_id)
      return FALSE(0);

  if (session_key_ptr1->client != session_key_ptr2->client)
      return FALSE(0);

  if (session_key_ptr1->server != session_key_ptr2->server)
      return FALSE(0);

  return TRUE(!(0));
11216}

11218static void dof_dnp_reset(void)
11219{
  dof_ns_session_lookup = g_hash_table_new_full(dof_ns_session_key_hash_fn, dof_ns_session_key_equal_fn, g_free, NULL((void*)0));
11221}

11223static void dof_dnp_cleanup(void)
11224{
  g_hash_table_destroy(dof_ns_session_lookup);
  dof_ns_session_lookup = NULL((void*)0);
11227}

11229static void dof_register_dnp_0(void)
11230{
  static hf_register_info hf[] =
  {
      { &hf_2008_1_dnp_0_1_1_padding,
          { "Padding", "dof.dnp.v0.padding", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dnp_0_1_1_version,
          { "Version", "dof.dnp.v0.version", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  if (proto_2008_1_dnp_0 <= 0)
  {
      proto_2008_1_dnp_0 = proto_register_protocol(DOF_NETWORK_PROTOCOL"DOF Network Protocol" " V0", "DPS.DNP.V0", "dof.dnp.v0");

      proto_register_field_array(proto_2008_1_dnp_0, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  }
11247}

11249/**
* The registration hand-off routine
*/
11252static void dof_reg_handoff_dnp_0(void)
11253{
  dissector_handle_t dnp_handle;
  dnp_handle = create_dissector_handle(dissect_dnp_0, proto_2008_1_dnp_0);

  dissector_add_uint("dof.dnp", 0, dnp_handle);
11258}

11260static void dof_register_dnp_1(void)
11261{
  expert_module_t *expert_dnp;

  static hf_register_info hf[] =
  {
      { &hf_2009_9_dnp_1_flags,
          { "Flags", "dof.2009_9.dnp_1.flags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_9_dnp_1_flag_length,
          { "Length Size", "dof.2009_9.dnp_1.flags.lengthsize", FT_UINT8, BASE_DEC, NULL((void*)0), 0x03, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_9_dnp_1_flag_srcport,
          { "Source Port", "dof.2009_9.dnp_1.flags.srcport", FT_UINT8, BASE_DEC, NULL((void*)0), 0x04, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_9_dnp_1_flag_dstport,
          { "Destination Port", "dof.2009_9.dnp_1.flags.dstport", FT_UINT8, BASE_DEC, NULL((void*)0), 0x08, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },

      { &hf_2009_9_dnp_1_length,
          { "Length", "dof.2009_9.dnp_1.length", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_9_dnp_1_srcport,
          { "Source Port", "dof.2009_9.dnp_1.srcport", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_9_dnp_1_dstport,
          { "Destination Port", "dof.2009_9.dnp_1.dstport", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  static int *ett[] =
  {
      &ett_2009_9_dnp_1_flags,
  };

  static ei_register_info ei[] =
  {
      { &ei_dof_10_flags_zero, { "dof.dnp.v1.flags_zero", PI_UNDECODED0x05000000, PI_ERROR0x00800000, "DPS-10: Reserved flag bits must be zero.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_dof_dnp_length_short, { "dof.dnp.v1.length_short", PI_MALFORMED0x07000000, PI_ERROR0x00800000, "DNP length is shorter than the address fields", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
11299#if 0
      { &ei_dof_13_length_specified, { "dof.dnp.v1.length_specified", PI_UNDECODED0x05000000, PI_ERROR0x00800000, "DPS-13: Length must be specified on a connection.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
11301#endif
  };

  if (proto_2009_9_dnp_1 <= 0)
  {
      proto_2009_9_dnp_1 = proto_register_protocol(DOF_NETWORK_PROTOCOL"DOF Network Protocol" " V1", "DOF.DNP.V1", "dof.dnp.v1");

      proto_register_field_array(proto_2009_9_dnp_1, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
      proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

      expert_dnp = expert_register_protocol(proto_2009_9_dnp_1);
      expert_register_field_array(expert_dnp, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
  }
11314}

11316/**
* The registration hand-off routine
*/
11319static void dof_reg_handoff_dnp_1(void)
11320{
  dissector_handle_t dnp_handle, dnp_frame_handle;
  dnp_handle = create_dissector_handle(dissect_dnp_1, proto_2009_9_dnp_1);
  dnp_frame_handle = create_dissector_handle(determine_packet_length_1, proto_2009_9_dnp_1);

  dissector_add_uint("dof.dnp", 1, dnp_handle);
  dissector_add_uint("dof.dnp.frame", 1, dnp_frame_handle);
11327}

11329static void dof_dnp_handoff(void)
11330{
  dof_reg_handoff_dnp_0();
  dof_reg_handoff_dnp_1();
11333}

11335/**
* Initialize Core DNP Functionality
*/
11338static void dof_dnp_register(void)
11339{
  static hf_register_info hf[] =
  {
      { &hf_2008_1_dnp_1_flag,
          { "Flag", "dof.2008_1.dnp_1.flag", FT_BOOLEAN, 8, TFS(&tfs_present_not_present)((0 ? (const struct true_false_string*)0 : ((&tfs_present_not_present
)))), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dnp_1_version,
          { "Version", "dof.2008_1.dnp_1.version", FT_UINT8, BASE_DEC, NULL((void*)0), 0x7F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  static int *ett[] =
  {
      &ett_2008_1_dnp,
      &ett_2008_1_dnp_header,
  };

  proto_2008_1_dnp = proto_register_protocol(DOF_NETWORK_PROTOCOL"DOF Network Protocol", "DPS.DNP", "dof.dnp");

  proto_register_field_array(proto_2008_1_dnp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
  dnp_dissectors = register_dissector_table("dof.dnp", "DOF DNP Version", proto_2008_1_dnp, FT_UINT8, BASE_DEC);
  dnp_framing_dissectors = register_dissector_table("dof.dnp.frame", "DOF DNP Framing", proto_2008_1_dnp, FT_UINT8, BASE_DEC);

  dof_register_dnp_0();
  dof_register_dnp_1();
11365}

11367/* DPP Registration Support */

11369/**
* This routine is called each time the system is reset (file load, capture)
* and so it should take care of freeing any of our persistent stuff.
*/
11373static void dof_dpp_reset(void)
11374{
  dpp_reset_opid_support();
  dpp_reset_sid_support();
11377}

11379static void dof_dpp_cleanup(void)
11380{
11381}

11383static void dof_register_dpp_0(void)
11384{
  static hf_register_info hf[] =
  {
      { &hf_2008_1_dpp_0_1_1_version,
          { "Version", "dof.dpp.v0.version", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  if (proto_2008_1_dpp_0 <= 0)
  {
      proto_2008_1_dpp_0 = proto_register_protocol(DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol" " V0", "DPS.DPP.V0", "dof.dpp.v0");

      proto_register_field_array(proto_2008_1_dpp_0, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  }
11398}

11400/**
* The registration hand-off routine
*/
11403static void dof_reg_handoff_dpp_0(void)
11404{
  dissector_handle_t dpp_handle;
  dpp_handle = create_dissector_handle(dissect_dpp_0, proto_2008_1_dpp_0);

  dissector_add_uint("dof.dpp", 0, dpp_handle);
11409}

11411static void dof_register_dpp_2(void)
11412{
  expert_module_t *expert_dpp;

  static hf_register_info hf[] =
  {
      { &hf_2009_12_dpp_2_1_flags,
          { "Flags", "dof.dpp.v2.flags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_12_dpp_2_1_flag_security,
          { "Secure", "dof.dpp.v2.flags.security", FT_BOOLEAN, 8, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2009_12_dpp_2_1_flag_opid,
          { "Operation ID Type", "dof.dpp.v2.flags.opidtype", FT_UINT8, BASE_DEC, VALS(strings_2009_12_dpp_opid_types)((0 ? (const struct _value_string*)0 : ((strings_2009_12_dpp_opid_types
)))), 0x60, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_flag_cmdrsp,
          { "Command/Response", "dof.dpp.v2.flags.cmdrsp", FT_BOOLEAN, 8, TFS(&tfs_response_command)((0 ? (const struct true_false_string*)0 : ((&tfs_response_command
)))), 0x10, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_flag_seq,
          { "Sequence", "dof.dpp.v2.flags.sequence", FT_BOOLEAN, 8, TFS(&tfs_present_not_present)((0 ? (const struct true_false_string*)0 : ((&tfs_present_not_present
)))), 0x04, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_flag_retry,
          { "Retry", "dof.dpp.v2.flags.retry", FT_BOOLEAN, 8, TFS(&tfs_present_not_present)((0 ? (const struct true_false_string*)0 : ((&tfs_present_not_present
)))), 0x02, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2009_12_dpp_2_3_sec_flags,
          { "Flags", "dof.dpp.v2.security.flags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_flag_secure,
          { "Security Mode Header", "dof.dpp.v2.security.flags.securitymodeheader", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_flag_rdid,
          { "Remote Domain ID", "dof.dpp.v2.security.flags.rdid", FT_UINT8, BASE_DEC, NULL((void*)0), 0x08, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_flag_partition,
          { "Partition Present", "dof.dpp.v2.security.flags.partition", FT_UINT8, BASE_DEC, NULL((void*)0), 0x04, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_flag_ssid,
          { "SSID Present", "dof.dpp.v2.security.flags.ssid", FT_UINT8, BASE_DEC, NULL((void*)0), 0x01, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_flag_as,
          { "AS Present", "dof.dpp.v2.security.flags.as", FT_UINT8, BASE_DEC, NULL((void*)0), 0x02, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_ssid,
          { "Security State Identifier", "dof.dpp.v2.security.ssid", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_rdid,
          { "Remote Domain Identifier", "dof.dpp.v2.security.rdid", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_remote_partition,
          { "Remote Security Scope", "dof.dpp.v2.security.remote-scope", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_3_sec_partition,
          { "Security Scope", "dof.dpp.v2.security.scope", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2009_12_dpp_2_1_opcnt,
          { "Operation Count", "dof.dpp.v2.opcnt", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_seq,
          { "Sequence", "dof.dpp.v2.sequence", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_retry,
          { "Retry", "dof.dpp.v2.retry", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2009_12_dpp_2_1_delay,
          { "Delay", "dof.dpp.v2.delay", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static hf_register_info shf[] =
  {
      { &hf_2009_12_dpp_2_14_opcode,
          { "Opcode", "dof.dpp.v2s.opcode", FT_UINT8, BASE_DEC, VALS(strings_2009_12_dpp_common_opcodes)((0 ? (const struct _value_string*)0 : ((strings_2009_12_dpp_common_opcodes
)))), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_2009_12_dpp_2_1_flags,
      &ett_2009_12_dpp_2_opid,
      &ett_2009_12_dpp_2_opid_history,
      &ett_2009_12_dpp_2_3_security,
      &ett_2009_12_dpp_2_3_sec_flags,
      &ett_2009_12_dpp_2_3_sec_remote_partition,
      &ett_2009_12_dpp_2_3_sec_partition,
  };

  static ei_register_info ei[] =
  {
      { &ei_dpp2_dof_10_flags_zero, { "dof.dpp.v2.flags_zero", PI_UNDECODED0x05000000, PI_ERROR0x00800000, "DPPv2: Reserved flag bits must be zero.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_dpp_default_flags, { "dof.dpp.v2.flags_included", PI_COMMENTS_GROUP0x0b000000, PI_NOTE0x00400000, "Default flag value is included explicitly.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_dpp_explicit_sender_sid_included, { "dof.dpp.v2.sender_sid_included", PI_PROTOCOL0x09000000, PI_NOTE0x00400000, "Explicit SID could be optimized, same as sender.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_dpp_explicit_receiver_sid_included, { "dof.dpp.v2.receiver_sid_included", PI_PROTOCOL0x09000000, PI_NOTE0x00400000, "Explicit SID could be optimized, same as receiver.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_dpp_no_security_context, { "dof.dpp.v2.no_context", PI_UNDECODED0x05000000, PI_WARN0x00600000, "No security context to enable packet decryption.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  static int *sett[] =
  {
      &ett_2009_12_dpp_common,
  };

  if (proto_2009_12_dpp <= 0)
  {
      proto_2009_12_dpp = proto_register_protocol(DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol" " V2", "DPS.DPP.V2", "dof.dpp.v2");
      proto_register_field_array(proto_2009_12_dpp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
      proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
  }

  if (proto_2009_12_dpp_common <= 0)
  {
      proto_2009_12_dpp_common = proto_register_protocol(DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol" " V2 Support", "DPS.DPP.V2S", "dof.dpp.v2s");

      proto_register_field_array(proto_2009_12_dpp, shf, array_length(shf)(sizeof (shf) / sizeof (shf)[0]));
      proto_register_subtree_array(sett, array_length(sett)(sizeof (sett) / sizeof (sett)[0]));

      expert_dpp = expert_register_protocol(proto_2009_12_dpp);
      expert_register_field_array(expert_dpp, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
  }
11511}

11513/**
* The registration hand-off routine
*/
11516static void dof_reg_handoff_dpp_2(void)
11517{
  dissector_handle_t dpp_handle;
  dpp_handle = create_dissector_handle(dissect_dpp_2, proto_2009_12_dpp);
  dissector_add_uint("dof.dpp", 2, dpp_handle);
11521}

11523/**
* Initialize Core DPP Functionality
*/
11526static void dof_dpp_register(void)
11527{
  static hf_register_info hf[] =
  {
      { &hf_2008_1_dpp_sid_num,
          { "SID ID", "dof.dpp.v2.sid-id", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dpp_sid_str,
          { "SID", "dof.dpp.v2.sid", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dpp_rid_num,
          { "RID ID", "dof.dpp.v2.rid-id", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dpp_rid_str,
          { "RID", "dof.dpp.v2.rid", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dpp_first_command,
          { "First Operation", "dof.dpp.v2.first-operation", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2008_1_dpp_last_command,
          { "Last Operation", "dof.dpp.v2.last-operation", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2008_1_dpp_first_response,
          { "First Response", "dof.dpp.v2.first-response", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2008_1_dpp_last_response,
          { "Last Response", "dof.dpp.v2.last-response", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2008_1_dpp_related_frame,
          { "Related Frame", "dof.dpp.v2.related-frame", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_2008_1_dpp_1_flag,
          { "Flags", "dof.dpp.flag", FT_BOOLEAN, 8, TFS(&tfs_present_not_present)((0 ? (const struct true_false_string*)0 : ((&tfs_present_not_present
)))), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
      { &hf_2008_1_dpp_1_version,
          { "Version", "dof.dpp.version", FT_UINT8, BASE_DEC, NULL((void*)0), 0x7F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },
  };

  static int *ett[] =
  {
      &ett_2008_1_dpp,
      &ett_2008_1_dpp_1_header,
  };

  static ei_register_info ei[] =
  {
      { &ei_dof_6_timeout, { "dof.dpp.timeout", PI_PROTOCOL0x09000000, PI_ERROR0x00800000, "DOF Violation: DPS.6: Negotiation not complete within 10 seconds.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  if (proto_2008_1_dpp <= 0)
  {
      expert_module_t *expert_dpp;

      proto_2008_1_dpp = proto_register_protocol(DOF_PRESENTATION_PROTOCOL"DOF Presentation Protocol", "DPS.DPP", "dof.dpp");

      proto_register_field_array(proto_2008_1_dpp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
      proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
      dof_dpp_dissectors = register_dissector_table("dof.dpp", "DOF DPP Version", proto_2008_1_dpp, FT_UINT8, BASE_DEC);

      expert_dpp = expert_register_protocol(proto_2008_1_dpp);
      expert_register_field_array(expert_dpp, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
  }

  dof_register_dpp_0();
  dof_register_dpp_2();
11587}

11589static void dof_dpp_handoff(void)
11590{
  dof_reg_handoff_dpp_0();
  dof_reg_handoff_dpp_2();
11593}

11595/* General Application Registration Support */

11597static void app_reset(void)
11598{
11599}

11601static void app_cleanup(void)
11602{
11603}

11605/**
* Initialize Core DPP Functionality
*/
11608static void app_register(void)
11609{
  if (proto_2008_1_app <= 0)
  {
      proto_2008_1_app = proto_register_protocol(DOF_APPLICATION_PROTOCOL"DOF Application Protocol", "DPS.APP", "dof.app");
      app_dissectors = register_dissector_table("dof.app", "DOF APP Version", proto_2008_1_app, FT_UINT16, BASE_DEC);
  }
11615}

11617static void app_handoff(void)
11618{
11619}

11621/* DSP Registration Support */

11623static void dof_dsp_reset(void)
11624{
11625}

11627static void dof_dsp_cleanup(void)
11628{
11629}

11631static void dof_register_dsp_0(void)
11632{
  static hf_register_info hf[] =
  {
      { &hf_2008_1_app_version,
          { "APPID", "dof.app.v0.appid", FT_UINT16, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) }
      },

      { &hf_2008_1_dsp_12_opcode,
          { "Opcode", "dof.dsp.opcode", FT_UINT8, BASE_DEC, VALS(strings_2008_1_dsp_opcodes)((0 ? (const struct _value_string*)0 : ((strings_2008_1_dsp_opcodes
)))), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2008_1_dsp_attribute_code,
          { "Attribute Code", "dof.dsp.avp.attribute-code", FT_UINT8, BASE_DEC, VALS(strings_2008_1_dsp_attribute_codes)((0 ? (const struct _value_string*)0 : ((strings_2008_1_dsp_attribute_codes
)))), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2008_1_dsp_attribute_data,
          { "Attribute Data", "dof.dsp.avp.attribute-data", FT_UINT16, BASE_HEX, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2008_1_dsp_value_length,
          { "Value Length", "dof.dsp.avp.value-length", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_2008_1_dsp_value_data,
          { "Value Data", "dof.dsp.avp.value-data", FT_BYTES, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_2008_1_dsp_12,
      &ett_2008_1_dsp_12_options,
      &ett_2008_1_dsp_12_option,
  };

  proto_2008_1_dsp = proto_register_protocol("DOF Session Protocol", "DOF.ESP", "dof.esp");

  proto_register_field_array(proto_2008_1_dsp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
11666}

11668/**
* The registration hand-off routine
*/
11671static void dof_reg_handoff_dsp_0(void)
11672{
  dissector_handle_t dsp_handle = create_dissector_handle(dissect_dsp, proto_2008_1_dsp);
  dissector_add_uint("dof.app", 0, dsp_handle);
11675}

11677static void dof_dsp_register(void)
11678{
  dof_register_dsp_0();
11680}

11682static void dof_dsp_handoff(void)
11683{
  dof_reg_handoff_dsp_0();
11685}

11687/* CCM Registration Support */

11689static void dof_ccm_reset(void)
11690{
11691}

11693static void dof_ccm_cleanup(void)
11694{
11695}

11697static void dof_register_ccm_24577(void)
11698{
  expert_module_t *expert_ccm;

  static hf_register_info hfdsp[] =
  {
      { &hf_ccm_dsp_option,
          { "CCM Security Mode", "dof.ccm.dsp_opt", FT_NONE, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_strength_count,
          { "CCM Strength Count", "dof.ccm.strength-count", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_strength,
          { "CCM Strength", "dof.ccm.strength", FT_UINT8, BASE_DEC, VALS(ccm_strengths)((0 ? (const struct _value_string*)0 : ((ccm_strengths)))), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_e_flag,
          { "CCM Minimum Encrypt", "dof.ccm.encrypt.min", FT_BOOLEAN, 8, TFS(&tfs_encrypt_do_not_encrypt)((0 ? (const struct true_false_string*)0 : ((&tfs_encrypt_do_not_encrypt
)))), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_m_flag,
          { "CCM Maximum Encrypt", "dof.ccm.encrypt.max", FT_BOOLEAN, 8, TFS(&tfs_encrypt_do_not_encrypt)((0 ? (const struct true_false_string*)0 : ((&tfs_encrypt_do_not_encrypt
)))), 0x40, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_tmax,
          { "CCM Maximum MAC", "dof.ccm.mac.max", FT_UINT8, BASE_DEC, NULL((void*)0), 0x38, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_ccm_dsp_tmin,
          { "CCM Minimum MAC", "dof.ccm.mac.min", FT_UINT8, BASE_DEC, NULL((void*)0), 0x07, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static hf_register_info hf[] =
  {
      { &hf_ccm_opcode,
          { "Opcode", "dof.ccm.opcode", FT_UINT8, BASE_DEC, VALS(ccm_opcode_strings)((0 ? (const struct _value_string*)0 : ((ccm_opcode_strings))
)), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_ccm_dsp_option,
      &ett_ccm_dsp,
      &ett_ccm,
  };

  static hf_register_info hfheader[] =
  {
      { &hf_epp_v1_ccm_flags,
          { "Flags", "dof.epp.v1.ccm.flags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_flags_manager,
          { "Manager", "dof.epp.v1.ccm.flags.manager", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_flags_period,
          { "Period", "dof.epp.v1.ccm.flags.period", FT_UINT8, BASE_DEC, NULL((void*)0), 0x70, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_flags_target,
          { "Target", "dof.epp.v1.ccm.flags.target", FT_UINT8, BASE_DEC, NULL((void*)0), 0x08, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_flags_next_nid,
          { "Next Node Identifier", "dof.epp.v1.ccm.flags.next-nid", FT_UINT8, BASE_DEC, NULL((void*)0), 0x02, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_flags_packet,
          { "Packet", "dof.epp.v1.ccm.flags.packet", FT_UINT8, BASE_DEC, NULL((void*)0), 0x01, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_nid,
          { "Node ID", "dof.epp.v1.ccm.nodeid", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_slot,
          { "Slot", "dof.epp.v1.ccm.slot", FT_UINT16, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_pn,
          { "Packet", "dof.epp.v1.ccm.packet", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_tnid,
          { "Target Node ID", "dof.epp.v1.ccm.target", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
      { &hf_epp_v1_ccm_nnid,
          { "Next Node ID", "dof.epp.v1.ccm.nnid", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ettheader[] =
  {
      &ett_epp_v1_ccm_flags,
      &ett_header,
  };

  static ei_register_info ei[] =
  {
      { &ei_decode_failure, { "dof.ccm.decode_failure", PI_UNDECODED0x05000000, PI_WARN0x00600000, "Failure to decrypt packet.", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  /* No Configuration options to register? */

  proto_ccm_app = proto_register_protocol("DOF CCM Security Mode App", "DOF.CCM.APP", "dof.ccm.app");
  proto_ccm = proto_register_protocol("DOF CCM Security Mode of Operation", "DOF.CCM", "dof.ccm");
  proto_ccm_dsp = proto_register_protocol("DOF CCM Security Mode DSP Options", "DOF.CCM.DSP", "dof.ccm.dsp");

  proto_register_field_array(proto_ccm_app, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_field_array(proto_ccm_dsp, hfdsp, array_length(hfdsp)(sizeof (hfdsp) / sizeof (hfdsp)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

  proto_register_field_array(proto_ccm, hfheader, array_length(hfheader)(sizeof (hfheader) / sizeof (hfheader)[0]));
  proto_register_subtree_array(ettheader, array_length(ettheader)(sizeof (ettheader) / sizeof (ettheader)[0]));

  expert_ccm = expert_register_protocol(proto_ccm);
  expert_register_field_array(expert_ccm, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
11784}

11786/**
* The registration hand-off routine
*/
11789static void dof_reg_handoff_ccm_24577(void)
11790{
  static dissector_handle_t ccm_app_handle;
  static dissector_handle_t dsp_handle;
  static dissector_handle_t ccm_handle;

  ccm_app_handle = create_dissector_handle(dissect_ccm_app, proto_ccm_app);
  dsp_handle = create_dissector_handle(dissect_ccm_dsp, proto_ccm_dsp);
  ccm_handle = create_dissector_handle(dissect_ccm, proto_ccm);

  dissector_add_uint("dof.app", DOF_PROTOCOL_CCM24577, ccm_app_handle);
  dissector_add_uint("dof.dsp.options", DSP_CCM_FAMILY0x020000 | DOF_PROTOCOL_CCM24577, dsp_handle);
  dissector_add_uint("dof.secmode", DOF_PROTOCOL_CCM24577, ccm_handle);
11802}

11804static void dof_ccm_register(void)
11805{
  dof_register_ccm_24577();
11807}

11809static void dof_ccm_handoff(void)
11810{
  dof_reg_handoff_ccm_24577();
11812}

11814/* OAP Registration Support */

11816static void dof_oap_reset(void)
11817{
  /* Keys and values are not owned by the table. Drop the previous table on each file load. */
  if (oap_1_alias_to_binding)
      g_hash_table_destroy(oap_1_alias_to_binding);
  oap_1_alias_to_binding = g_hash_table_new_full(oap_1_alias_hash_func, oap_1_alias_equal_func, NULL((void*)0), NULL((void*)0));
11822}

11824static void dof_oap_cleanup(void)
11825{
  g_hash_table_destroy(oap_1_alias_to_binding);
  oap_1_alias_to_binding = NULL((void*)0);
11828}

11830static void dof_register_oap_1(void)
11831{
  expert_module_t *expert_oap;

  static hf_register_info hfdsp[] =
  {
      { &hf_oap_1_dsp_option,
          { "Object Access Protocol", "dof.oap.dsp_opt", FT_NONE, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static hf_register_info hf[] =
  {
      { &hf_oap_1_opcode,
          { "Opcode", "dof.oap.opcode", FT_UINT8, BASE_DEC, VALS(oap_opcode_strings)((0 ? (const struct _value_string*)0 : ((oap_opcode_strings))
)), 0x1F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_alias_size,
          { "Alias Length", "dof.oap.aliaslen", FT_UINT8, BASE_DEC, NULL((void*)0), 0xC0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_flags,
          { "Flags", "dof.oap.flags", FT_UINT8, BASE_DEC, NULL((void*)0), 0x20, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_exception_internal_flag,
          { "Internal Exception", "dof.oap.exception.internal", FT_UINT8, BASE_DEC, NULL((void*)0), 0x80, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_exception_final_flag,
          { "Final Exception", "dof.oap.exception.final", FT_UINT8, BASE_DEC, NULL((void*)0), 0x40, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_exception_provider_flag,
          { "Exception Provider", "dof.oap.exception.provider", FT_UINT8, BASE_DEC, NULL((void*)0), 0x20, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol,
          { "Command Control", "dof.oap.cmdcontrol", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_cache_flag,
          { "Cache Delay Flag", "dof.oap.cmdcontrol.flag.cache", FT_UINT8, BASE_HEX, NULL((void*)0), 0x40, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_cache,
          { "Cache Delay", "dof.oap.cmdcontrol.cache", FT_UINT8, BASE_HEX, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_verbosity_flag,
          { "Verbosity Flag", "dof.oap.cmdcontrol.flag.verbosity", FT_UINT8, BASE_HEX, NULL((void*)0), 0x30, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_noexecute_flag,
          { "No Execute Flag", "dof.oap.cmdcontrol.flag.noexecute", FT_UINT8, BASE_HEX, NULL((void*)0), 0x08, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_ack_flag,
          { "Ack List Flag", "dof.oap.cmdcontrol.flag.ack", FT_UINT8, BASE_HEX, NULL((void*)0), 0x04, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_ackcnt,
          { "Ack List Count", "dof.oap.cmdcontrol.ackcnt", FT_UINT8, BASE_HEX, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_ack,
          { "Ack", "dof.oap.cmdcontrol.ack", FT_BYTES, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_delay_flag,
          { "Execution Delay Flag", "dof.oap.cmdcontrol.flag.delay", FT_UINT8, BASE_HEX, NULL((void*)0), 0x02, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_heuristic_flag,
          { "Heuristic Flag", "dof.oap.cmdcontrol.flag.heuristic", FT_UINT8, BASE_HEX, NULL((void*)0), 0x01, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_cmdcontrol_heuristic,
          { "Heuristic", "dof.oap.cmdcontrol.heuristic", FT_UINT8, BASE_HEX, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_providerid,
          { "Provider ID", "dof.oap.provider-id", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_objectid,
          { "Object ID", "dof.oap.object-id", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_interfaceid,
          { "Interface ID", "dof.oap.interface-id", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_itemid,
          { "Item ID", "dof.oap.item-id", FT_UINT16, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

11905#if 0 /* not used yet */
      { &hf_oap_1_distance,
          { "Distance", "dof.oap.distance", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
11908#endif

      { &hf_oap_1_alias,
          { "Alias", "dof.oap.alias", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_alias_frame,
          { "Alias Frame", "dof.oap.alias-frame", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

11916#if 0 /* not used yet */
      { &hf_oap_1_opinfo_start_frame,
          { "Command Frame", "dof.oap.command-frame", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_opinfo_end_frame,
          { "Response Frame", "dof.oap.response-frame", FT_FRAMENUM, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_opinfo_timeout,
          { "Operation Timeout", "dof.oap.opid.timeout", FT_RELATIVE_TIME, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
11925#endif

      { &hf_oap_1_subscription_delta,
          { "Minimum Delta", "dof.oap.subscription.min-delta", FT_UINT16, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_update_sequence,
          { "Sequence", "dof.oap.sequence", FT_UINT16, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_oap_1_value_list,
          { "OAP Value List", "dof.oap.value_list", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_oap_1_dsp,
      &ett_oap_1_dsp_options,
      &ett_oap_1,
      &ett_oap_1_opinfo,
      &ett_oap_1_cmdcontrol,
      &ett_oap_1_cmdcontrol_flags,
      &ett_oap_1_cmdcontrol_ack,
      &ett_oap_1_alias,
      &ett_oap_1_objectid,
      &ett_oap_1_1_providerid,
  };

  static ei_register_info ei[] =
  {
      { &ei_oap_no_session, { "dof.oap.no_session", PI_PROTOCOL0x09000000, PI_ERROR0x00800000, "Session not found", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  proto_oap_1 = proto_register_protocol("DOF Object Access Protocol", "DOF.OAP", "dof.oap");
  proto_oap_1_dsp = proto_register_protocol("DOF Object Access Protocol DSP Options", "DOF.OAP.DSP", "dof.oap.dsp");

  proto_register_field_array(proto_oap_1, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_field_array(proto_oap_1_dsp, hfdsp, array_length(hfdsp)(sizeof (hfdsp) / sizeof (hfdsp)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

  expert_oap = expert_register_protocol(proto_oap_1);
  expert_register_field_array(expert_oap, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
11965}

11967/**
* The registration hand-off routine
*/
11970static void dof_reg_handoff_oap_1(void)
11971{
  dissector_handle_t oap_handle = create_dissector_handle(dissect_oap, proto_oap_1);
  dissector_handle_t dsp_handle = create_dissector_handle(dissect_oap_dsp, proto_oap_1_dsp);

  dissector_add_uint("dof.app", DOF_PROTOCOL_OAP_11, oap_handle);
  dissector_add_uint("dof.dsp.options", DSP_OAP_FAMILY0x010000 | DOF_PROTOCOL_OAP_11, dsp_handle);
11977}

11979static void dof_oap_register(void)
11980{
  dof_register_oap_1();
11982}

11984static void dof_oap_handoff(void)
11985{
  dof_reg_handoff_oap_1();
11987}

11989/* SGMP Registration Support */

11991static void dof_register_sgmp_130(void);
11992static void dof_reg_handoff_sgmp_130(void);

11994static void dof_sgmp_reset(void)
11995{
11996}

11998static void dof_sgmp_cleanup(void)
11999{
12000}

12002static void dof_register_sgmp_130(void)
12003{
  static hf_register_info hf[] =
  {
      { &hf_opcode,
          { "Opcode", "dof.sgmp.v1.opcode", FT_UINT8, BASE_DEC, VALS(sgmp_opcode_strings)((0 ? (const struct _value_string*)0 : ((sgmp_opcode_strings)
))), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_sgmp_domain,
          { "Domain", "dof.sgmp.v1.domain", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_sgmp_epoch,
          { "Epoch", "dof.sgmp.v1.epoch", FT_UINT16, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_initiator_block,
          { "Initiator Block", "dof.sgmp.v1.initiator-block", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_sgmp_security_scope,
          { "Security Scope", "dof.sgmp.v1.security-scope", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_initial_state,
          { "Initial State", "dof.sgmp.v1.initial-state", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_latest_version,
          { "Latest SGMP Version", "dof.sgmp.v1.latest-sgmp-version", FT_UINT16, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_desire,
          { "Desire", "dof.sgmp.v1.desire", FT_UINT8, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_ticket,
          { "Ticket", "dof.sgmp.v1.ticket", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_sgmp_tmin,
          { "TMIN", "dof.sgmp.v1.tmin", FT_UINT16, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tie_breaker,
          { "Tie Breaker", "dof.sgmp.v1.tie-breaker", FT_UINT32, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_delay,
          { "Delay", "dof.sgmp.v1.delay", FT_UINT8, BASE_HEX, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_key,
          { "Key", "dof.sgmp.v1.key", FT_BYTES, BASE_NONE, NULL((void*)0), 0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_sgmp,
      &ett_sgmp_domain,
      &ett_initiator_block,
      &ett_sgmp_security_scope,
      &ett_initial_state,
      &ett_ticket,
  };

  proto_sgmp = proto_register_protocol("DOF Secure Group Management Protocol", "DOF.SGMP", "dof.sgmp");

  proto_register_field_array(proto_sgmp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
12060}

12062/**
* The registration hand-off routine
*/
12065static void dof_reg_handoff_sgmp_130(void)
12066{
  dissector_handle_t sgmp_handle = create_dissector_handle(dissect_sgmp, proto_sgmp);

  dissector_add_uint("dof.app", DOF_PROTOCOL_SGMP130, sgmp_handle);
12070}

12072static void dof_sgmp_register(void)
12073{
  dof_register_sgmp_130();
12075}

12077static void dof_sgmp_handoff(void)
12078{
  dof_reg_handoff_sgmp_130();
12080}

12082/* TEP Registration Support */

12084static void dof_tep_reset(void)
12085{
12086}

12088static void dof_tep_cleanup(void)
12089{
12090}

12092static void dof_register_tep_128(void)
12093{
  static hf_register_info hfdsp[] =
  {
      { &hf_dsp_option,
          { "Ticket Exchange Protocol Version 1", "dof.tep1.dsp_opt", FT_NONE, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static hf_register_info hf[] =
  {
      { &hf_tep_operation,
          { "Operation", "dof.tep1.operation", FT_UINT8, BASE_DEC, VALS(tep_opcode_strings)((0 ? (const struct _value_string*)0 : ((tep_opcode_strings))
)), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_operation_type,
          { "Operation Type", "dof.tep1.operation_type", FT_BOOLEAN, 8, TFS(&tep_optype_vals)((0 ? (const struct true_false_string*)0 : ((&tep_optype_vals
)))), TEP_OPCODE_RSP(0x80), NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_opcode,
          { "Opcode", "dof.tep1.opcode", FT_UINT8, BASE_DEC, VALS(tep_opcode_strings)((0 ? (const struct _value_string*)0 : ((tep_opcode_strings))
)), 0x0F, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_k,
          { "K", "dof.tep1.k", FT_UINT8, BASE_DEC, NULL((void*)0), 0x10, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_c,
          { "C", "dof.tep1.c", FT_UINT8, BASE_DEC, NULL((void*)0), 0x20, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_reject_code,
          { "Code", "dof.tep1.reject.code", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_reject_data,
          { "Data", "dof.tep1.reject.data", FT_BYTES, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* TEP.2.1 */
      { &hf_tep_2_1_domain,
          { "Domain", "dof.2008.4.tep1.2.1.domain", FT_NONE, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_1_initiator_block,
          { "Initiator Block", "dof.2008.4.tep1.2.1.initiator_block", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_1_ticket_confirmation,
          { "Ticket Confirmation", "dof.2008.4.tep1.2.1.ticket_confirmation", FT_BYTES, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* TEP.2.2 */
      { &hf_tep_2_2_initiator_ticket,
          { "Initiator Ticket", "dof.2008.4.tep1.2.2.initiator_ticket", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_2_ticket_confirmation,
          { "Ticket Confirmation", "dof.2008.4.tep1.2.2.ticket_confirmation", FT_BYTES, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_2_responder_initialization,
          { "Responder Initialization", "dof.2008.4.tep1.2.2.responder_initialization", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_2_responder_block,
          { "Responder Block", "dof.2008.4.tep1.2.2.responder_block", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_2_authenticator_initialization,
          { "Authenticator Initialization", "dof.2008.4.tep1.2.2.authenticator_initialization", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      /* TEP.2.2.1 */
      { &hf_tep_2_2_1_state_identifier,
          { "State Identifier", "dof.2008.4.tep1.2.2.1.state_identifier", FT_UINT32, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_2_2_1_initial_state,
          { "Initial State", "dof.2008.4.tep1.2.2.1.initial_state", FT_NONE, BASE_NONE, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tep_session_key,
          { "Session Key", "dof.session_key", FT_BYTES, SEP_COLON, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static int *ett[] =
  {
      &ett_tep_dsp,
      &ett_tep_dsp_options,
      &ett_tep,
      &ett_tep_operation,

      &ett_tep_2_1_domain,
      &ett_tep_2_1_initiator_block,

      &ett_tep_2_2_initiator_ticket,
      &ett_tep_2_2_responder_initialization,
      &ett_tep_2_2_responder_block,
      &ett_tep_2_2_authenticator_initialization,

      &ett_tep_2_2_1_initial_state,
  };

  /* module_t *tep_module;*/

  /* No Configuration options to register? */

  proto_tep = proto_register_protocol("DOF Ticket Exchange Protocol Version 1", "DOF.TEP1", "dof.tep1");

  proto_tep_dsp = proto_register_protocol("DOF Ticket Exchange Protocol DSP Options", "DOF.TEP1.DSP", "dof.tep1.dsp");

  proto_register_field_array(proto_tep, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_field_array(proto_tep_dsp, hfdsp, array_length(hfdsp)(sizeof (hfdsp) / sizeof (hfdsp)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));

  /* tep_module = prefs_register_protocol( proto_tep, NULL );*/
12191}

12193/**
* The registration hand-off routine
*/
12196static void dof_reg_handoff_tep_128(void)
12197{
  dissector_handle_t tep_handle = create_dissector_handle(dissect_tep, proto_tep);
  dissector_handle_t dsp_handle = create_dissector_handle(dissect_tep_dsp, proto_tep_dsp);

  dissector_add_uint("dof.app", DOF_PROTOCOL_TEP128, tep_handle);
  dissector_add_uint("dof.dsp.options", DSP_TEP_FAMILY0x000000 | DOF_PROTOCOL_TEP128, dsp_handle);
12203}

12205static void dof_tep_register(void)
12206{
  dof_register_tep_128();
12208}

12210static void dof_tep_handoff(void)
12211{
  dof_reg_handoff_tep_128();
12213}

12215/* TRP Registration Support */

12217static void dof_trp_reset(void)
12218{
12219}

12221static void dof_trp_cleanup(void)
12222{
12223}

12225static void dof_register_trp_129(void)
12226{
  expert_module_t *expert_trp;

  static hf_register_info hfdsp[] =
  {
      { &hf_trp_dsp_option,
          { "Ticket Request Protocol", "dof.trp.dsp_opt", FT_NONE, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
  };

  static hf_register_info hf[] =
  {
      { &hf_trp_opcode,
          { "Opcode", "dof.trp.opcode", FT_UINT8, BASE_DEC, VALS(trp_opcode_strings)((0 ? (const struct _value_string*)0 : ((trp_opcode_strings))
)), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_domain,
          { "Domain", "dof.trp.domain", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_identity_resolution,
          { "Identity Resolution", "dof.trp.identity_resolution", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_initiator_request,
          { "Initiator Request", "dof.trp.initiator_request", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_responder_request,
          { "Responder Request", "dof.trp.responder_request", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_initiator_ticket,
          { "Initiator Ticket", "dof.trp.initiator_ticket", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_responder_ticket,
          { "Responder Ticket", "dof.trp.responder_ticket", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_authentication_block,
          { "Authentication Block", "dof.trp.authentication_block", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_group_identifier,
          { "Group Identifier", "dof.trp.group_identifier", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_node_identifier,
          { "Node Identifier", "dof.trp.node_identifier", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_thb,
          { "Thb", "dof.trp.thb", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tmin,
          { "Tmin", "dof.trp.tmin", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_tmax,
          { "Tmax", "dof.trp.tmax", FT_UINT8, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_epoch,
          { "Epoch", "dof.trp.epoch", FT_UINT16, BASE_DEC, NULL((void*)0), 0x00, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_sidg,
          { "SIDg", "dof.trp.sid_g", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_scope,
          { "Security Scope", "dof.trp.security_scope", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_security_mode,
          { "Security Mode", "dof.trp.security_mode", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_ssid,
          { "SSID", "dof.trp.ssid", FT_UINT32, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

12291#if 0 /* not used yet */
      { &hf_initiator_pg,
          { "Initiator Permissions", "dof.trp.initiator_pg", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
12294#endif

      { &hf_initiator_validation,
          { "Initiator Validation", "dof.trp.initiator_validation", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_responder_pg,
          { "Responder Permissions", "dof.trp.responder_pg", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_responder_validation,
          { "Responder Validation", "dof.trp.responder_validation", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_errorcode,
          { "Error Code", "dof.trp.errorcode", FT_UINT8, BASE_DEC, VALS(trp_error_strings)((0 ? (const struct _value_string*)0 : ((trp_error_strings)))
), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_duration,
          { "Duration", "dof.trp.duration", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

12311#if 0 /* not used yet */
      { &hf_trp_rnonce,
          { "Requestor Nonce", "dof.trp.rnonce", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_pnonce,
          { "Provider Nonce", "dof.trp.pnonce", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_reqid,
          { "Requestor ID", "dof.trp.reqid", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_provid,
          { "Provider ID", "dof.trp.provid", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_count,
          { "Permission Count", "dof.trp.perm.count", FT_UINT8, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_type,
          { "Permission Type", "dof.trp.perm.type", FT_UINT16, BASE_DEC, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_rflags,
          { "Requestor SRP Flags", "dof.trp.rflags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_rcache,
          { "Requestor SRP Cache", "dof.trp.rcache", FT_BOOLEAN, 8, NULL((void*)0), 0x2, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_rsrp,
          { "Requestor SRP", "dof.trp.rsrp", FT_BOOLEAN, 8, NULL((void*)0), 0x1, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_rsrp_a,
          { "Requestor SRP A", "dof.trp.rsrp.a", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_rsrp_u,
          { "Requestor SRP u", "dof.trp.rsrp.u", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_pflags,
          { "Provider SRP Flags", "dof.trp.pflags", FT_UINT8, BASE_HEX, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_pcache,
          { "Provider SRP Cache", "dof.trp.pcache", FT_BOOLEAN, 8, NULL((void*)0), 0x2, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_psrp,
          { "Provider SRP", "dof.trp.psrp", FT_BOOLEAN, 8, NULL((void*)0), 0x1, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_psrp_a,
          { "Provider SRP A", "dof.trp.psrp.a", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_psrp_u,
          { "Provider SRP u", "dof.trp.psrp.u", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_psrp_b,
          { "Provider SRP B", "dof.trp.psrp.b", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_psrp_s,
          { "Provider SRP S", "dof.trp.psrp.s", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_confirmation,
          { "Confirmation", "dof.trp.confirmation", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_pke,
          { "Provider Key Expression", "dof.trp.pke", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },

      { &hf_trp_perm_pka,
          { "Provider Key Authenticator", "dof.trp.pka", FT_BYTES, BASE_NONE, NULL((void*)0), 0x0, NULL((void*)0), HFILL-1, 0, HF_REF_TYPE_NONE, -1, ((void*)0) } },
12374#endif
  };

  static int *ett[] =
  {
      &ett_trp_dsp,
      &ett_trp,
      &ett_domain,
      &ett_identity_resolution,
      &ett_initiator_request,
      &ett_initiator_ticket,
      &ett_responder_request,
      &ett_responder_ticket,
      &ett_authentication_block,
      &ett_group_identifier,
      &ett_node_identifier,
      &ett_sidg,
      &ett_security_scope,
      &ett_security_mode,
      &ett_initiator_pg,
      &ett_initiator_validation,
      &ett_responder_pg,
      &ett_responder_validation,
      &ett_trp_permset,
      &ett_srp_flags,
      &ett_trp_ticket,
  };

  static ei_register_info ei[] =
  {
      { &ei_trp_initiator_id_known, { "dof.trp.initiator_id_known", PI_PROTOCOL0x09000000, PI_COMMENT0x00100000, "Initiator identity known", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
      { &ei_trp_kek_discovered, { "dof.trp.kek_discovered", PI_PROTOCOL0x09000000, PI_COMMENT0x00100000, "KEK discovered", EXPFILL0, ((void*)0), 0, ((void*)0), {0, {((void*)0), ((void*)0), FT_NONE
, BASE_NONE, ((void*)0), 0, ((void*)0), -1, 0, HF_REF_TYPE_NONE
, -1, ((void*)0)}} } },
  };

  /* No Configuration options to register? */

  proto_trp = proto_register_protocol("DOF Ticket Request Protocol", "DOF.TRP", "dof.trp");

  proto_trp_dsp = proto_register_protocol("DOF Ticket Request Protocol DSP Options", "DOF.TRP.DSP", "dof.trp.dsp");

  proto_register_field_array(proto_trp, hf, array_length(hf)(sizeof (hf) / sizeof (hf)[0]));
  proto_register_field_array(proto_trp_dsp, hfdsp, array_length(hfdsp)(sizeof (hfdsp) / sizeof (hfdsp)[0]));
  proto_register_subtree_array(ett, array_length(ett)(sizeof (ett) / sizeof (ett)[0]));
  expert_trp = expert_register_protocol(proto_trp);
  expert_register_field_array(expert_trp, ei, array_length(ei)(sizeof (ei) / sizeof (ei)[0]));
12419}

12421/**
* The registration hand-off routine
*/
12424static void dof_reg_handoff_trp_129(void)
12425{
  dissector_handle_t trp_handle = create_dissector_handle(dissect_trp, proto_trp);
  dissector_handle_t dsp_handle = create_dissector_handle(dissect_trp_dsp, proto_trp_dsp);

  dissector_add_uint("dof.app", DOF_PROTOCOL_TRP129, trp_handle);
  dissector_add_uint("dof.dsp.options", DSP_TRP_FAMILY0x030000 | DOF_PROTOCOL_TRP129, dsp_handle);
12431}

12433static void dof_trp_register(void)
12434{
  dof_register_trp_129();
12436}

12438static void dof_trp_handoff(void)
12439{
  dof_reg_handoff_trp_129();
12441}

12443/* Wireshark Dissector Registration Proper */

12445/**
* This is called only during reset (file load, reload, etc.).
*/
12448static void dof_reset_routine(void)
12449{
  dof_tun_reset();
  dof_reset();
  oid_reset();
  dof_dnp_reset();
  dof_dpp_reset();
  app_reset();
  dof_dsp_reset();
  dof_ccm_reset();
  dof_oap_reset();
  dof_sgmp_reset();
  dof_tep_reset();
  dof_trp_reset();
12462}

12464static void dof_cleanup_routine(void)
12465{
  dof_tun_cleanup();
  dof_cleanup();
  oid_cleanup();
  dof_dnp_cleanup();
  dof_dpp_cleanup();
  app_cleanup();
  dof_dsp_cleanup();
  dof_ccm_cleanup();
  dof_oap_cleanup();
  dof_sgmp_cleanup();
  dof_tep_cleanup();
  dof_trp_cleanup();
12478}

12480static void
12481dof_shutdown_routine(void)
12482{
  unsigned i;

  for (i = 0; i < global_security.identity_data_count; i++) {
      g_free(global_security.identity_data[i].identity)(__builtin_object_size ((global_security.identity_data[i].identity
), 0) != ((size_t) - 1)) ? g_free_sized (global_security.identity_data
[i].identity, __builtin_object_size ((global_security.identity_data
[i].identity), 0)) : (g_free) (global_security.identity_data[
i].identity);
      g_free(global_security.identity_data[i].domain)(__builtin_object_size ((global_security.identity_data[i].domain
), 0) != ((size_t) - 1)) ? g_free_sized (global_security.identity_data
[i].domain, __builtin_object_size ((global_security.identity_data
[i].domain), 0)) : (g_free) (global_security.identity_data[i]
.domain);
      g_free(global_security.identity_data[i].secret)(__builtin_object_size ((global_security.identity_data[i].secret
), 0) != ((size_t) - 1)) ? g_free_sized (global_security.identity_data
[i].secret, __builtin_object_size ((global_security.identity_data
[i].secret), 0)) : (g_free) (global_security.identity_data[i]
.secret);
  }
  g_free(global_security.identity_data)(__builtin_object_size ((global_security.identity_data), 0) !=
 ((size_t) - 1)) ? g_free_sized (global_security.identity_data
, __builtin_object_size ((global_security.identity_data), 0))
 : (g_free) (global_security.identity_data);

  for (i = 0; i < global_security.group_data_count; i++) {
      g_free(global_security.group_data[i].domain)(__builtin_object_size ((global_security.group_data[i].domain
), 0) != ((size_t) - 1)) ? g_free_sized (global_security.group_data
[i].domain, __builtin_object_size ((global_security.group_data
[i].domain), 0)) : (g_free) (global_security.group_data[i].domain
);
      g_free(global_security.group_data[i].identity)(__builtin_object_size ((global_security.group_data[i].identity
), 0) != ((size_t) - 1)) ? g_free_sized (global_security.group_data
[i].identity, __builtin_object_size ((global_security.group_data
[i].identity), 0)) : (g_free) (global_security.group_data[i].
identity);
      g_free(global_security.group_data[i].kek)(__builtin_object_size ((global_security.group_data[i].kek), 0
) != ((size_t) - 1)) ? g_free_sized (global_security.group_data
[i].kek, __builtin_object_size ((global_security.group_data[i
].kek), 0)) : (g_free) (global_security.group_data[i].kek);
  }

  if (addr_port_to_id)
      g_hash_table_destroy(addr_port_to_id);
  if (dpp_opid_to_packet_data)
      g_hash_table_destroy(dpp_opid_to_packet_data);
  if (node_key_to_sid_id)
      g_hash_table_destroy(node_key_to_sid_id);
  if (sid_buffer_to_sid_id)
      g_hash_table_destroy(sid_buffer_to_sid_id);
  if (sid_id_to_sid_buffer)
      g_hash_table_destroy(sid_id_to_sid_buffer);
  if (sid_id_to_packets)
  {
      g_hash_table_destroy(sid_id_to_packets);
      sid_id_to_packets = NULL((void*)0);
  }
12513}

12515/**
* This is the first entry point into the dissector, called on program launch.
*/
12518void proto_register_dof(void)
12519{
  dof_tun_register();
  dof_register();
  oid_register();
  dof_dnp_register();
  dof_dpp_register();
  app_register();
  dof_dsp_register();
  dof_ccm_register();
  dof_oap_register();
  dof_sgmp_register();
  dof_tep_register();
  dof_trp_register();

  register_init_routine(&dof_reset_routine);
  register_cleanup_routine(&dof_cleanup_routine);
  register_shutdown_routine(&dof_shutdown_routine);
12536}

12538/**
* This routine is called after initialization and whenever the preferences are changed.
*/
12541void proto_reg_handoff_dof(void)
12542{
  dof_tun_handoff();
  dof_handoff();
  oid_handoff();
  dof_dnp_handoff();
  dof_dpp_handoff();
  app_handoff();
  dof_dsp_handoff();
  dof_ccm_handoff();
  dof_oap_handoff();
  dof_sgmp_handoff();
  dof_tep_handoff();
  dof_trp_handoff();
12555}

12557/**
* Protocol-specific data attached to a conversation_t structure - protocol
* index and opaque pointer.
*/
12561typedef struct _dof_proto_data {
  int     proto;
  void    *proto_data;
12564} dof_proto_data;

12566static int p_compare(const void *a, const void *b)
12567{
  const dof_proto_data *ap = (const dof_proto_data *)a;
  const dof_proto_data *bp = (const dof_proto_data *)b;

  if (ap->proto > bp->proto)
      return 1;
  else if (ap->proto == bp->proto)
      return 0;
  else
      return -1;
12577}

12579#if 0 /* TODO not used yet */
12580static void dof_session_add_proto_data(wmem_allocator_t* allocator, dof_session_data *session, int proto, void *proto_data)
12581{
  dof_proto_data *p1 = wmem_new0(allocator, dof_proto_data)((dof_proto_data*)wmem_alloc0((allocator), sizeof(dof_proto_data
)));

  p1->proto = proto;
  p1->proto_data = proto_data;

  /* Add it to the list of items for this conversation. */

  session->data_list = g_slist_insert_sorted(session->data_list, (void * *)p1, p_compare);
12590}

12592static void *dof_session_get_proto_data(dof_session_data *session, int proto)
12593{
  dof_proto_data temp, *p1;
  GSList *item;

  temp.proto = proto;
  temp.proto_data = NULL((void*)0);

  item = g_slist_find_custom(session->data_list, (void * *)&temp,
                             p_compare);

  if (item != NULL((void*)0))
  {
      p1 = (dof_proto_data *)item->data;
      return p1->proto_data;
  }

  return NULL((void*)0);
12610}

12612static void dof_session_delete_proto_data(dof_session_data *session, int proto)
12613{
  dof_proto_data temp;
  GSList *item;

  temp.proto = proto;
  temp.proto_data = NULL((void*)0);

  item = g_slist_find_custom(session->data_list, (void * *)&temp,
                             p_compare);

  while (item)
  {
      session->data_list = g_slist_remove(session->data_list, item->data);
      item = item->next;
  }
12628}
12629#endif

12631static void dof_packet_add_proto_data(dof_packet_data *packet, int proto, void *proto_data)
12632{
  dof_proto_data *p1 = wmem_new0(wmem_file_scope(), dof_proto_data)((dof_proto_data*)wmem_alloc0((wmem_file_scope()), sizeof(dof_proto_data
)));

  p1->proto = proto;
  p1->proto_data = proto_data;

  /* Add it to the list of items for this conversation. */

  wmem_list_insert_sorted(packet->data_list, (void * *)p1, p_compare);
12641}

12643static void *dof_packet_get_proto_data(dof_packet_data *packet, int proto)
12644{
  dof_proto_data temp, *p1;
  wmem_list_frame_t *item;

  temp.proto = proto;
  temp.proto_data = NULL((void*)0);

  item = wmem_list_find_custom(packet->data_list, (void * *)&temp,
                             p_compare);

  if (item != NULL((void*)0))
  {
      p1 = (dof_proto_data *)wmem_list_frame_data(item);
      return p1->proto_data;
  }

  return NULL((void*)0);
12661}

12663static int dof_dissect_pdu_as_field(dissector_t dissector, tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, int offset, int item, int ett, void *result)
12664{
  int block_length;
  tvbuff_t *start = tvb_new_subset_remaining(tvb, offset);
  proto_tree *my_tree;
  proto_item *ti = proto_tree_add_item(tree, item, tvb, offset, -1, ENC_NA0x00000000);
  my_tree = proto_item_add_subtree(ti, ett);
  block_length = dof_dissect_pdu(dissector, start, pinfo, my_tree, result);
  return offset + block_length;
12672}

12674static int dof_dissect_pdu(dissector_t dissector, tvbuff_t *tvb, packet_info *pinfo, proto_tree *tree, void *result)
12675{
  int len = dissector(tvb, pinfo, tree, result);
  proto_item_set_len(proto_tree_get_parent(tree), len);

  return len;
12680}

12682static int dof_dissect_dnp_length(tvbuff_t *tvb, packet_info *pinfo, uint8_t version, unsigned *offset)
12683{
  dissector_handle_t dp;

  dp = dissector_get_uint_handle(dnp_framing_dissectors, version);
  if (!dp)
      return -1;

  return call_dissector_only(dp, tvb, pinfo, NULL((void*)0), offset);
12691}

12693/*
* Editor modelines  -  https://www.wireshark.org/tools/modelines.html
*
* Local variables:
* c-basic-offset: 4
* tab-width: 8
* indent-tabs-mode: nil
* End:
*
* vi: set shiftwidth=4 tabstop=8 expandtab:
* :indentSize=4:tabSize=8:noTabs=true:
*/