Protocol Type Registry Constant Enumerations

This module contains all constant enumerations of protocol type registry implementations. Available enumerations include:

LINKTYPE

Link-Layer Header Type Values *

ETHERTYPE

Ethertype IEEE 802 Numbers †

TRANSTYPE

Transport Layer Protocol Numbers ‡
class pcapkit.const.reg.linktype.LinkType(value=<no_arg>, names=None, module=None, qualname=None, type=None, start=1, boundary=None)[source]

Bases: IntEnum

[LinkType] Link-Layer Header Type Values

NULL = 0

[DLT_NULL] BSD loopback encapsulation; the link layer header is a 4-byte field, in host byte order, containing a value of 2 for IPv4 packets, a value of either 24, 28, or 30 for IPv6 packets, a value of 7 for OSI packets, or a value of 23 for IPX packets. All of the IPv6 values correspond to IPv6 packets; code reading files should check for all of them. Note that ``host byte order’’ is the byte order of the machine on that the packets are captured; if a live capture is being done, ``host byte order’’ is the byte order of the machine capturing the packets, but if a ``savefile’’ is being read, the byte order is not necessarily that of the machine reading the capture file.

ETHERNET = 1

[DLT_EN10MB] IEEE 802.3 Ethernet (10Mb, 100Mb, 1000Mb, and up); the 10MB in the DLT_ name is historical.

AX25 = 3

[DLT_AX25] AX.25 packet, with nothing preceding it.

IEEE802_5 = 6

[DLT_IEEE802] IEEE 802.5 Token Ring; the IEEE802, without _5, in the DLT_ name is historical.

ARCNET_BSD = 7

[DLT_ARCNET] ARCNET Data Packets, as described by the ARCNET Trade Association standard ATA 878.1-1999, but without the Starting Delimiter, Information Length, or Frame Check Sequence fields, and with only the first ISU of the Destination Identifier. For most packet types, ARCNET Trade Association draft standard ATA 878.2 is also used. See also RFC 1051 and RFC 1201; for RFC 1051 frames, ATA 878.2 is not used.

SLIP = 8

[DLT_SLIP] SLIP, encapsulated with a LINKTYPE_SLIP header.

PPP = 9

[DLT_PPP] PPP, as per RFC 1661 and RFC 1662; if the first 2 bytes are 0xff and 0x03, it’s PPP in HDLC-like framing, with the PPP header following those two bytes, otherwise it’s PPP without framing, and the packet begins with the PPP header. The data in the frame is not octet-stuffed or bit- stuffed.

FDDI = 10

[DLT_FDDI] FDDI, as specified by ANSI INCITS 239-1994.

PPP_HDLC = 50

[DLT_PPP_SERIAL] PPP in HDLC-like framing, as per RFC 1662, or Cisco PPP with HDLC framing, as per section 4.3.1 of RFC 1547; the first byte will be 0xFF for PPP in HDLC-like framing, and will be 0x0F or 0x8F for Cisco PPP with HDLC framing. The data in the frame is not octet-stuffed or bit- stuffed.

PPP_ETHER = 51

[DLT_PPP_ETHER] PPPoE; the packet begins with a PPPoE header, as per RFC 2516.

ATM_RFC1483 = 100

[DLT_ATM_RFC1483] RFC 1483 LLC/SNAP-encapsulated ATM; the packet begins with an ISO 8802-2 (formerly known as IEEE 802.2) LLC header.

RAW = 101

[DLT_RAW] Raw IP; the packet begins with an IPv4 or IPv6 header, with the version field of the header indicating whether it’s an IPv4 or IPv6 header.

C_HDLC = 104

[DLT_C_HDLC] Cisco PPP with HDLC framing, as per section 4.3.1 of RFC 1547.

IEEE802_11 = 105

[DLT_IEEE802_11] IEEE 802.11 wireless LAN.

FRELAY = 107

[DLT_FRELAY] Frame Relay LAPF frames, beginning with a ITU-T Recommendation Q.922 LAPF header starting with the address field, and without an FCS at the end of the frame.

LOOP = 108

[DLT_LOOP] OpenBSD loopback encapsulation; the link-layer header is a 4-byte field, in network byte order, containing a value of 2 for IPv4 packets, a value of either 24, 28, or 30 for IPv6 packets, a value of 7 for OSI packets, or a value of 23 for IPX packets. All of the IPv6 values correspond to IPv6 packets; code reading files should check for all of them.

LINUX_SLL = 113

[DLT_LINUX_SLL] Linux “cooked” capture encapsulation.

LTALK = 114

[DLT_LTALK] Apple LocalTalk; the packet begins with an AppleTalk LocalTalk Link Access Protocol header, as described in chapter 1 of Inside AppleTalk, Second Edition.

PFLOG = 117

[DLT_PFLOG] OpenBSD pflog; the link-layer header contains a struct pfloghdr structure, as defined by the host on that the file was saved. (This differs from operating system to operating system and release to release; there is nothing in the file to indicate what the layout of that structure is.)

IEEE802_11_PRISM = 119

[DLT_PRISM_HEADER] Prism monitor mode information followed by an 802.11 header.

IP_OVER_FC = 122

[DLT_IP_OVER_FC] RFC 2625 IP-over-Fibre Channel, with the link-layer header being the Network_Header as described in that RFC.

SUNATM = 123

[DLT_SUNATM] ATM traffic, encapsulated as per the scheme used by SunATM devices.

IEEE802_11_RADIOTAP = 127

[DLT_IEEE802_11_RADIO] Radiotap link-layer information followed by an 802.11 header.

ARCNET_LINUX = 129

[DLT_ARCNET_LINUX] ARCNET Data Packets, as described by the ARCNET Trade Association standard ATA 878.1-1999, but without the Starting Delimiter, Information Length, or Frame Check Sequence fields, with only the first ISU of the Destination Identifier, and with an extra two-ISU offset field following the Destination Identifier. For most packet types, ARCNET Trade Association draft standard ATA 878.2 is also used; however, no exception frames are supplied, and reassembled frames, rather than fragments, are supplied. See also RFC 1051 and RFC 1201; for RFC 1051 frames, ATA 878.2 is not used.

APPLE_IP_OVER_IEEE1394 = 138

[DLT_APPLE_IP_OVER_IEEE1394] Apple IP-over-IEEE 1394 cooked header.

MTP2_WITH_PHDR = 139

[DLT_MTP2_WITH_PHDR] Signaling System 7 Message Transfer Part Level 2, as specified by ITU-T Recommendation Q.703, preceded by a pseudo-header.

MTP2 = 140

[DLT_MTP2] Signaling System 7 Message Transfer Part Level 2, as specified by ITU-T Recommendation Q.703.

MTP3 = 141

[DLT_MTP3] Signaling System 7 Message Transfer Part Level 3, as specified by ITU-T Recommendation Q.704, with no MTP2 header preceding the MTP3 packet.

SCCP = 142

[DLT_SCCP] Signaling System 7 Signalling Connection Control Part, as specified by ITU-T Recommendation Q.711, ITU-T Recommendation Q.712, ITU-T Recommendation Q.713, and ITU-T Recommendation Q.714, with no MTP3 or MTP2 headers preceding the SCCP packet.

DOCSIS = 143

[DLT_DOCSIS] DOCSIS MAC frames, as described by the DOCSIS 3.1 MAC and Upper Layer Protocols Interface Specification or earlier specifications for MAC frames.

LINUX_IRDA = 144

[DLT_LINUX_IRDA] Linux-IrDA packets, with a LINKTYPE_LINUX_IRDA header, with the payload for IrDA frames beginning with by the IrLAP header as defined by IrDA Data Specifications, including the IrDA Link Access Protocol specification.

USER0 = 147

[DLT_USER0] Reserved for private use; see above.

USER1 = 148

[DLT_USER1] Reserved for private use; see above.

USER2 = 149

[DLT_USER2] Reserved for private use; see above.

USER3 = 150

[DLT_USER3] Reserved for private use; see above.

USER4 = 151

[DLT_USER4] Reserved for private use; see above.

USER5 = 152

[DLT_USER5] Reserved for private use; see above.

USER6 = 153

[DLT_USER6] Reserved for private use; see above.

USER7 = 154

[DLT_USER7] Reserved for private use; see above.

USER8 = 155

[DLT_USER8] Reserved for private use; see above.

USER9 = 156

[DLT_USER9] Reserved for private use; see above.

USER10 = 157

[DLT_USER10] Reserved for private use; see above.

USER11 = 158

[DLT_USER11] Reserved for private use; see above.

USER12 = 159

[DLT_USER12] Reserved for private use; see above.

USER13 = 160

[DLT_USER13] Reserved for private use; see above.

USER14 = 161

[DLT_USER14] Reserved for private use; see above.

USER15 = 162

[DLT_USER15] Reserved for private use; see above.

IEEE802_11_AVS = 163

[DLT_IEEE802_11_RADIO_AVS] AVS monitor mode information followed by an 802.11 header.

BACNET_MS_TP = 165

[DLT_BACNET_MS_TP] BACnet MS/TP frames, as specified by section 9.3 MS/TP Frame Format of ANSI/ASHRAE Standard 135, BACnet® - A Data Communication Protocol for Building Automation and Control Networks, including the preamble and, if present, the Data CRC.

PPP_PPPD = 166

[DLT_PPP_PPPD] PPP in HDLC-like encapsulation, like LINKTYPE_PPP_HDLC, but with the 0xff address byte replaced by a direction indication—0x00 for incoming and 0x01 for outgoing.

GPRS_LLC = 169

[DLT_GPRS_LLC] General Packet Radio Service Logical Link Control, as defined by 3GPP TS 04.64.

GPF_T = 170

[DLT_GPF_T] Transparent-mapped generic framing procedure, as specified by ITU-T Recommendation G.7041/Y.1303.

GPF_F = 171

[DLT_GPF_F] Frame-mapped generic framing procedure, as specified by ITU-T Recommendation G.7041/Y.1303.

LINUX_LAPD = 177

[DLT_LINUX_LAPD] Link Access Procedures on the D Channel (LAPD) frames, as specified by ITU-T Recommendation Q.920 and ITU-T Recommendation Q.921, captured via vISDN, with a LINKTYPE_LINUX_LAPD header, followed by the Q.921 frame, starting with the address field.

MFR = 182

[DLT_MFR] FRF.16.1 Multi-Link Frame Relay frames, beginning with an FRF.12 Interface fragmentation format fragmentation header.

BLUETOOTH_HCI_H4 = 187

[DLT_BLUETOOTH_HCI_H4] Bluetooth HCI UART transport layer; the frame contains an HCI packet indicator byte, as specified by the UART Transport Layer portion of the most recent Bluetooth Core specification, followed by an HCI packet of the specified packet type, as specified by the Host Controller Interface Functional Specification portion of the most recent Bluetooth Core Specification.

USB_LINUX = 189

[DLT_USB_LINUX] USB packets, beginning with a Linux USB header, as specified by the struct usbmon_packet in the Documentation/usb/usbmon.txt file in the Linux source tree. Only the first 48 bytes of that header are present. All fields in the header are in host byte order. When performing a live capture, the host byte order is the byte order of the machine on that the packets are captured. When reading a pcap file, the byte order is the byte order for the file, as specified by the file’s magic number; when reading a pcapng file, the byte order is the byte order for the section of the pcapng file, as specified by the Section Header Block.

PPI = 192

[DLT_PPI] Per-Packet Information information, as specified by the Per- Packet Information Header Specification, followed by a packet with the LINKTYPE_ value specified by the pph_dlt field of that header.

IEEE802_15_4_WITHFCS = 195

[DLT_IEEE802_15_4_WITHFCS] IEEE 802.15.4 Low-Rate Wireless Networks, with each packet having the FCS at the end of the frame.

SITA = 196

[DLT_SITA] Various link-layer types, with a pseudo-header, for SITA.

ERF = 197

[DLT_ERF] Various link-layer types, with a pseudo-header, for Endace DAG cards; encapsulates Endace ERF records.

BLUETOOTH_HCI_H4_WITH_PHDR = 201

[DLT_BLUETOOTH_HCI_H4_WITH_PHDR] Bluetooth HCI UART transport layer; the frame contains a 4-byte direction field, in network byte order (big-endian), the low-order bit of which is set if the frame was sent from the host to the controller and clear if the frame was received by the host from the controller, followed by an HCI packet indicator byte, as specified by the UART Transport Layer portion of the most recent Bluetooth Core specification, followed by an HCI packet of the specified packet type, as specified by the Host Controller Interface Functional Specification portion of the most recent Bluetooth Core Specification.

AX25_KISS = 202

[DLT_AX25_KISS] AX.25 packet, with a 1-byte KISS header containing a type indicator.

LAPD = 203

[DLT_LAPD] Link Access Procedures on the D Channel (LAPD) frames, as specified by ITU-T Recommendation Q.920 and ITU-T Recommendation Q.921, starting with the address field, with no pseudo-header.

PPP_WITH_DIR = 204

[DLT_PPP_WITH_DIR] PPP, as per RFC 1661 and RFC 1662, preceded with a one-byte pseudo-header with a zero value meaning “received by this host” and a non-zero value meaning “sent by this host”; if the first 2 bytes are 0xff and 0x03, it’s PPP in HDLC-like framing, with the PPP header following those two bytes, otherwise it’s PPP without framing, and the packet begins with the PPP header. The data in the frame is not octet-stuffed or bit-stuffed.

C_HDLC_WITH_DIR = 205

[DLT_C_HDLC_WITH_DIR] Cisco PPP with HDLC framing, as per section 4.3.1 of RFC 1547, preceded with a one-byte pseudo-header with a zero value meaning “received by this host” and a non-zero value meaning “sent by this host”.

FRELAY_WITH_DIR = 206

[DLT_FRELAY_WITH_DIR] Frame Relay LAPF frames, beginning with a one-byte pseudo-header with a zero value meaning “received by this host” (DCE->DTE) and a non-zero value meaning “sent by this host” (DTE->DCE), followed by an ITU-T Recommendation Q.922 LAPF header starting with the address field, and without an FCS at the end of the frame.

LAPB_WITH_DIR = 207

[DLT_LAPB_WITH_DIR] Link Access Procedure, Balanced (LAPB), as specified by ITU-T Recommendation X.25, preceded with a one-byte pseudo-header with a zero value meaning “received by this host” (DCE->DTE) and a non-zero value meaning “sent by this host” (DTE->DCE).

IPMB_LINUX = 209

[DLT_IPMB_LINUX] IPMB over an I2C circuit, with a Linux-specific pseudo- header.

FLEXRAY = 210

[DLT_FLEXRAY] FlexRay automotive bus frames or symbols, preceded by a pseudo-header.

LIN = 212

[DLT_LIN] Local Interconnect Network (LIN) automotive bus, preceded by a pseudo-header.

IEEE802_15_4_NONASK_PHY = 215

[DLT_IEEE802_15_4_NONASK_PHY] IEEE 802.15.4 Low-Rate Wireless Networks, with each packet having the FCS at the end of the frame, and with the PHY- level data for the O-QPSK, BPSK, GFSK, MSK, and RCC DSS BPSK PHYs (4 octets of 0 as preamble, one octet of SFD, one octet of frame length + reserved bit) preceding the MAC-layer data (starting with the frame control field).

USB_LINUX_MMAPPED = 220

[DLT_USB_LINUX_MMAPPED] USB packets, beginning with a Linux USB header, as specified by the struct usbmon_packet in the Documentation/usb/usbmon.txt file in the Linux source tree. All 64 bytes of the header are present. All fields in the header are in host byte order. When performing a live capture, the host byte order is the byte order of the machine on that the packets are captured. When reading a pcap file, the byte order is the byte order for the file, as specified by the file’s magic number; when reading a pcapng file, the byte order is the byte order for the section of the pcapng file, as specified by the Section Header Block. For isochronous transfers, the ndesc field specifies the number of isochronous descriptors that follow.

FC_2 = 224

[DLT_FC_2] Fibre Channel FC-2 frames, beginning with a Frame_Header.

FC_2_WITH_FRAME_DELIMS = 225

[DLT_FC_2_WITH_FRAME_DELIMS] Fibre Channel FC-2 frames, beginning an encoding of the SOF, followed by a Frame_Header, and ending with an encoding of the SOF. The encodings represent the frame delimiters as 4-byte sequences representing the corresponding ordered sets, with K28.5 represented as 0xBC, and the D symbols as the corresponding byte values; for example, SOFi2, which is K28.5 - D21.5 - D1.2 - D21.2, is represented as 0xBC 0xB5 0x55 0x55.

IPNET = 226

[DLT_IPNET] Solaris ipnet pseudo-header, followed by an IPv4 or IPv6 datagram.

CAN_SOCKETCAN = 227

[DLT_CAN_SOCKETCAN] CAN (Controller Area Network) frames, with a pseudo- header followed by the frame payload.

IPV4 = 228

[DLT_IPV4] Raw IPv4; the packet begins with an IPv4 header.

IPV6 = 229

[DLT_IPV6] Raw IPv6; the packet begins with an IPv6 header.

IEEE802_15_4_NOFCS = 230

[DLT_IEEE802_15_4_NOFCS] IEEE 802.15.4 Low-Rate Wireless Network, without the FCS at the end of the frame.

DBUS = 231

[DLT_DBUS] Raw D-Bus messages, starting with the endianness flag, followed by the message type, etc., but without the authentication handshake before the message sequence.

DVB_CI = 235

[DLT_DVB_CI] DVB-CI (DVB Common Interface for communication between a PC Card module and a DVB receiver), with the message format specified by the PCAP format for DVB-CI specification.

MUX27010 = 236

[DLT_MUX27010] Variant of 3GPP TS 27.010 multiplexing protocol (similar to, but not the same as, 27.010).

STANAG_5066_D_PDU = 237

[DLT_STANAG_5066_D_PDU] D_PDUs as described by NATO standard STANAG 5066, starting with the synchronization sequence, and including both header and data CRCs. The current version of STANAG 5066 is backwards-compatible with the 1.0.2 version, although newer versions are classified.

NFLOG = 239

[DLT_NFLOG] Linux netlink NETLINK NFLOG socket log messages.

NETANALYZER = 240

[DLT_NETANALYZER] Pseudo-header for Hilscher Gesellschaft für Systemautomation mbH netANALYZER devices, followed by an Ethernet frame, beginning with the MAC header and ending with the FCS.

NETANALYZER_TRANSPARENT = 241

[DLT_NETANALYZER_TRANSPARENT] Pseudo-header for Hilscher Gesellschaft für Systemautomation mbH netANALYZER devices, followed by an Ethernet frame, beginning with the preamble, SFD, and MAC header, and ending with the FCS.

IPOIB = 242

[DLT_IPOIB] IP-over-InfiniBand, as specified by RFC 4391 section 6.

MPEG_2_TS = 243

[DLT_MPEG_2_TS] MPEG-2 Transport Stream transport packets, as specified by ISO 13818-1/ITU-T Recommendation H.222.0 (see table 2-2 of section 2.4.3.2 “Transport Stream packet layer”).

NG40 = 244

[DLT_NG40] Pseudo-header for ng4T GmbH’s UMTS Iub/Iur-over-ATM and Iub/Iur-over-IP format as used by their ng40 protocol tester, followed by frames for the Frame Protocol as specified by 3GPP TS 25.427 for dedicated channels and 3GPP TS 25.435 for common/shared channels in the case of ATM AAL2 or UDP traffic, by SSCOP packets as specified by ITU-T Recommendation Q.2110 for ATM AAL5 traffic, and by NBAP packets for SCTP traffic.

NFC_LLCP = 245

[DLT_NFC_LLCP] Pseudo-header for NFC LLCP packet captures, followed by frame data for the LLCP Protocol as specified by NFCForum-TS-LLCP_1.1.

INFINIBAND = 247

[DLT_INFINIBAND] Raw InfiniBand frames, starting with the Local Routing Header, as specified in Chapter 5 “Data packet format” of InfiniBand™ Architectural Specification Release 1.2.1 Volume 1 - General Specifications.

SCTP = 248

[DLT_SCTP] SCTP packets, as defined by RFC 4960, with no lower-level protocols such as IPv4 or IPv6.

USBPCAP = 249

[DLT_USBPCAP] USB packets, beginning with a USBPcap header.

RTAC_SERIAL = 250

[DLT_RTAC_SERIAL] Serial-line packet header for the Schweitzer Engineering Laboratories “RTAC” product, followed by a payload for one of a number of industrial control protocols.

BLUETOOTH_LE_LL = 251

[DLT_BLUETOOTH_LE_LL] Bluetooth Low Energy air interface Link Layer packets, in the format described in section 2.1 “PACKET FORMAT” of volume 6 of the Bluetooth Specification Version 4.0 (see PDF page 2200), but without the Preamble.

[DLT_NETLINK] Linux Netlink capture encapsulation.

BLUETOOTH_LINUX_MONITOR = 254

[DLT_BLUETOOTH_LINUX_MONITOR] Bluetooth Linux Monitor encapsulation of traffic for the BlueZ stack.

BLUETOOTH_BREDR_BB = 255

[DLT_BLUETOOTH_BREDR_BB] Bluetooth Basic Rate and Enhanced Data Rate baseband packets.

BLUETOOTH_LE_LL_WITH_PHDR = 256

[DLT_BLUETOOTH_LE_LL_WITH_PHDR] Bluetooth Low Energy link-layer packets.

PROFIBUS_DL = 257

[DLT_PROFIBUS_DL] PROFIBUS data link layer packets, as specified by IEC standard 61158-4-3, beginning with the start delimiter, ending with the end delimiter, and including all octets between them.

PKTAP = 258

[DLT_PKTAP] Apple PKTAP capture encapsulation.

EPON = 259

[DLT_EPON] Ethernet-over-passive-optical-network packets, starting with the last 6 octets of the modified preamble as specified by 65.1.3.2 “Transmit” in Clause 65 of Section 5 of IEEE 802.3, followed immediately by an Ethernet frame.

IPMI_HPM_2 = 260

[DLT_IPMI_HPM_2] IPMI trace packets, as specified by Table 3-20 “Trace Data Block Format” in the PICMG HPM.2 specification. The time stamps for packets in this format must match the time stamps in the Trace Data Blocks.

ZWAVE_R1_R2 = 261

[DLT_ZWAVE_R1_R2] Z-Wave RF profile R1 and R2 packets, as specified by ITU-T Recommendation G.9959, with some MAC layer fields moved.

ZWAVE_R3 = 262

[DLT_ZWAVE_R3] Z-Wave RF profile R3 packets, as specified by ITU-T Recommendation G.9959, with some MAC layer fields moved.

WATTSTOPPER_DLM = 263

[DLT_WATTSTOPPER_DLM] Formats for WattStopper Digital Lighting Management (DLM) and Legrand Nitoo Open protocol common packet structure captures.

ISO_14443 = 264

[DLT_ISO_14443] Messages between ISO 14443 contactless smartcards (Proximity Integrated Circuit Card, PICC) and card readers (Proximity Coupling Device, PCD), with the message format specified by the PCAP format for ISO14443 specification.

RDS = 265

[DLT_RDS] Radio data system (RDS) groups, as per IEC 62106, encapsulated in this form.

USB_DARWIN = 266

[DLT_USB_DARWIN] USB packets, beginning with a Darwin (macOS, etc.) USB header.

SDLC = 268

[DLT_SDLC] SDLC packets, as specified by Chapter 1, “DLC Links”, section “Synchronous Data Link Control (SDLC)” of Systems Network Architecture Formats, GA27-3136-20, without the flag fields, zero-bit insertion, or Frame Check Sequence field, containing SNA path information units (PIUs) as the payload.

LORATAP = 270

[DLT_LORATAP] LoRaTap pseudo-header, followed by the payload, which is typically the PHYPayload from the LoRaWan specification.

VSOCK = 271

[DLT_VSOCK] Protocol for communication between host and guest machines in VMware and KVM hypervisors.

NORDIC_BLE = 272

[DLT_NORDIC_BLE] Messages to and from a Nordic Semiconductor nRF Sniffer for Bluetooth LE packets, beginning with a pseudo-header.

DOCSIS31_XRA31 = 273

[DLT_DOCSIS31_XRA31] DOCSIS packets and bursts, preceded by a pseudo- header giving metadata about the packet.

ETHERNET_MPACKET = 274

[DLT_ETHERNET_MPACKET] mPackets, as specified by IEEE 802.3br Figure 99-4, starting with the preamble and always ending with a CRC field.

DISPLAYPORT_AUX = 275

[DLT_DISPLAYPORT_AUX] DisplayPort AUX channel monitoring data as specified by VESA DisplayPort (DP) Standard preceded by a pseudo-header.

LINUX_SLL2 = 276

[DLT_LINUX_SLL2] Linux “cooked” capture encapsulation v2.

OPENVIZSLA = 278

[DLT_OPENVIZSLA] Openvizsla FPGA-based USB sniffer.

EBHSCR = 279

[DLT_EBHSCR] Elektrobit High Speed Capture and Replay (EBHSCR) format.

VPP_DISPATCH = 280

//fd.io VPP graph dispatch tracer, in the the graph dispatcher trace format.

Type

[DLT_VPP_DISPATCH] Records in traces from the http

DSA_TAG_BRCM = 281

[DLT_DSA_TAG_BRCM] Ethernet frames, with a switch tag inserted between the source address field and the type/length field in the Ethernet header.

DSA_TAG_BRCM_PREPEND = 282

[DLT_DSA_TAG_BRCM_PREPEND] Ethernet frames, with a switch tag inserted before the destination address in the Ethernet header.

IEEE802_15_4_TAP = 283

[DLT_IEEE802_15_4_TAP] IEEE 802.15.4 Low-Rate Wireless Networks, with a pseudo-header containing TLVs with metadata preceding the 802.15.4 header.

DSA_TAG_DSA = 284

[DLT_DSA_TAG_DSA] Ethernet frames, with a switch tag inserted between the source address field and the type/length field in the Ethernet header.

DSA_TAG_EDSA = 285

[DLT_DSA_TAG_EDSA] Ethernet frames, with a programmable Ethernet type switch tag inserted between the source address field and the type/length field in the Ethernet header.

ELEE = 286

[DLT_ELEE] Payload of lawful intercept packets using the ELEE protocol. The packet begins with the ELEE header; it does not include any transport- layer or lower-layer headers for protcols used to transport ELEE packets.

Z_WAVE_SERIAL = 287

[DLT_Z_WAVE_SERIAL] Serial frames transmitted between a host and a Z-Wave chip over an RS-232 or USB serial connection, as described in section 5 of the Z-Wave Serial API Host Application Programming Guide.

USB_2_0 = 288

[DLT_USB_2_0] USB 2.0, 1.1, or 1.0 packet, beginning with a PID, as described by Chapter 8 “Protocol Layer” of the the Universal Serial Bus Specification Revision 2.0.

ATSC_ALP = 289

[DLT_ATSC_ALP] ATSC Link-Layer Protocol frames, as described in section 5 of the A/330 Link-Layer Protocol specification, found at the ATSC 3.0 standards page, beginning with a Base Header.

ETW = 290

[DLT_ETW] Event Tracing for Windows messages, beginning with a pseudo- header.

ZBOSS_NCP = 292

[DLT_ZBOSS_NCP] Serial NCP (Network Co-Processor) protocol for Zigbee stack ZBOSS by DSR. ZBOSS NCP protocol, beginning with a header.

classmethod _missing_(value)[source]

Lookup function used when value is not found.

Parameters

value (int) – Value to get enum item.

Return type

LinkType

Ethertype IEEE 802 Numbers

This module contains the constant enumeration for Ethertype IEEE 802 Numbers, which is automatically generated from pcapkit.vendor.reg.ethertype.EtherType.

class pcapkit.const.reg.ethertype.EtherType(value=<no_arg>, names=None, module=None, qualname=None, type=None, start=1, boundary=None)[source]

Bases: IntEnum

[EtherType] Ethertype IEEE 802 Numbers

XEROX_PUP = 512

XEROX PUP (see 0A00) [Boggs, D., J. Shoch, E. Taft, and R. Metcalfe, “PUP: An Internetwork Architecture”, XEROX Palo Alto Research Center, CSL-79-10, July 1979; also in IEEE Transactions on Communication, Volume COM-28, Number 4, April 1980.][Neil Sembower]

PUP_Addr_Trans_0x0201 = 513

PUP Addr Trans (see 0A01) [Neil Sembower]

Nixdorf = 1024

Nixdorf [Neil Sembower]

XEROX_NS_IDP = 1536

Data Link Layer and Physical Layer Specification”, AA-K759B-TK, Digital Equipment Corporation, Maynard, MA. Also as: “The Ethernet - A Local Area Network”, Version 1.0, Digital Equipment Corporation, Intel Corporation, Xerox Corporation, September 1980. And: “The Ethernet, A Local Area Network: Data Link Layer and Physical Layer Specifications”, Digital, Intel and Xerox, November 1982. And: XEROX, “The Ethernet, A Local Area Network: Data Link Layer and Physical Layer Specification”, X3T51/80-50, Xerox Corporation, Stamford, CT., October 1980.][Neil Sembower]

Type

XEROX NS IDP [“The Ethernet, A Local Area Network

DLOG_0x0660 = 1632

DLOG [Neil Sembower]

DLOG_0x0661 = 1633

DLOG [Neil Sembower]

Internet_Protocol_version_4 = 2048

Internet Protocol version 4 (IPv4) [RFC 7042]

X_75_Internet = 2049

X.75 Internet [Neil Sembower]

NBS_Internet = 2050

NBS Internet [Neil Sembower]

ECMA_Internet = 2051

ECMA Internet [Neil Sembower]

Chaosnet = 2052

Chaosnet [Neil Sembower]

X_25_Level_3 = 2053

X.25 Level 3 [Neil Sembower]

Address_Resolution_Protocol = 2054

Address Resolution Protocol (ARP) [RFC 7042]

XNS_Compatability = 2055

XNS Compatability [Neil Sembower]

Frame_Relay_ARP = 2056

Frame Relay ARP [RFC 1701]

Symbolics_Private = 2076

Symbolics Private [David Plummer]

Ungermann_Bass_net_debugr = 2304

Ungermann-Bass net debugr [Neil Sembower]

Xerox_IEEE802_3_PUP = 2560

Xerox IEEE802.3 PUP [Neil Sembower]

PUP_Addr_Trans_0x0A01 = 2561

PUP Addr Trans [Neil Sembower]

Banyan_VINES = 2989

Banyan VINES [Neil Sembower]

VINES_Loopback = 2990

VINES Loopback [RFC 1701]

VINES_Echo = 2991

VINES Echo [RFC 1701]

Berkeley_Trailer_nego = 4096

Berkeley Trailer nego [Neil Sembower]

Valid_Systems = 5632

Valid Systems [Neil Sembower]

TRILL = 8947

TRILL [RFC 6325]

L2_IS_IS = 8948

L2-IS-IS [RFC 6325]

PCS_Basic_Block_Protocol = 16962

PCS Basic Block Protocol [Neil Sembower]

BBN_Simnet = 21000

BBN Simnet [Neil Sembower]

DEC_Unassigned_0x6000 = 24576

DEC Unassigned (Exp.) [Neil Sembower]

DEC_MOP_Dump_Load = 24577

DEC MOP Dump/Load [Neil Sembower]

DEC_MOP_Remote_Console = 24578

DEC MOP Remote Console [Neil Sembower]

DEC_DECNET_Phase_IV_Route = 24579

DEC DECNET Phase IV Route [Neil Sembower]

DEC_LAT = 24580

DEC LAT [Neil Sembower]

DEC_Diagnostic_Protocol = 24581

DEC Diagnostic Protocol [Neil Sembower]

DEC_Customer_Protocol = 24582

DEC Customer Protocol [Neil Sembower]

DEC_LAVC_SCA = 24583

DEC LAVC, SCA [Neil Sembower]

Trans_Ether_Bridging = 25944

Trans Ether Bridging [RFC 1701]

Raw_Frame_Relay = 25945

Raw Frame Relay [RFC 1701]

Ungermann_Bass_download = 28672

Ungermann-Bass download [Neil Sembower]

Ungermann_Bass_dia_loop = 28674

Ungermann-Bass dia/loop [Neil Sembower]

Proteon = 28720

Proteon [Neil Sembower]

Cabletron = 28724

Cabletron [Neil Sembower]

Cronus_VLN = 32771

Cronus VLN [RFC 824][Daniel Tappan]

Cronus_Direct = 32772

Cronus Direct [RFC 824][Daniel Tappan]

HP_Probe = 32773

HP Probe [Neil Sembower]

Nestar = 32774

Nestar [Neil Sembower]

AT_T_0x8008 = 32776

AT&T [Neil Sembower]

Excelan = 32784

Excelan [Neil Sembower]

SGI_diagnostics = 32787

SGI diagnostics [Andrew Cherenson]

SGI_network_games = 32788

SGI network games [Andrew Cherenson]

SGI_reserved = 32789

SGI reserved [Andrew Cherenson]

SGI_bounce_server = 32790

SGI bounce server [Andrew Cherenson]

Apollo_Domain = 32793

Apollo Domain [Neil Sembower]

Tymshare = 32814

Tymshare [Neil Sembower]

Tigan_Inc = 32815

Tigan, Inc. [Neil Sembower]

Reverse_Address_Resolution_Protocol = 32821

Reverse Address Resolution Protocol (RARP) [RFC 903][Joseph Murdock]

Aeonic_Systems = 32822

Aeonic Systems [Neil Sembower]

DEC_LANBridge = 32824

DEC LANBridge [Neil Sembower]

DEC_Ethernet_Encryption = 32829

DEC Ethernet Encryption [Neil Sembower]

DEC_Unassigned_0x803E = 32830

DEC Unassigned [Neil Sembower]

DEC_LAN_Traffic_Monitor = 32831

DEC LAN Traffic Monitor [Neil Sembower]

Planning_Research_Corp = 32836

Planning Research Corp. [Neil Sembower]

AT_T_0x8046 = 32838

AT&T [Neil Sembower]

AT_T_0x8047 = 32839

AT&T [Neil Sembower]

ExperData = 32841

ExperData [Neil Sembower]

Stanford_V_Kernel_exp = 32859

Stanford V Kernel exp. [Neil Sembower]

Stanford_V_Kernel_prod = 32860

Stanford V Kernel prod. [Neil Sembower]

Evans_Sutherland = 32861

Evans & Sutherland [Neil Sembower]

Little_Machines = 32864

Little Machines [Neil Sembower]

Counterpoint_Computers = 32866

Counterpoint Computers [Neil Sembower]

Univ_of_Mass_Amherst_0x8065 = 32869

Univ. of Mass. @ Amherst [Neil Sembower]

Univ_of_Mass_Amherst_0x8066 = 32870

Univ. of Mass. @ Amherst [Neil Sembower]

Veeco_Integrated_Auto = 32871

Veeco Integrated Auto. [Neil Sembower]

General_Dynamics = 32872

General Dynamics [Neil Sembower]

AT_T_0x8069 = 32873

AT&T [Neil Sembower]

Autophon = 32874

Autophon [Neil Sembower]

ComDesign = 32876

ComDesign [Neil Sembower]

Computgraphic_Corp = 32877

Computgraphic Corp. [Neil Sembower]

Matra = 32890

Matra [Neil Sembower]

Dansk_Data_Elektronik = 32891

Dansk Data Elektronik [Neil Sembower]

Merit_Internodal = 32892

Merit Internodal [Hans Werner Braun]

Vitalink TransLAN III [Neil Sembower]

Appletalk = 32923

Appletalk [Neil Sembower]

Spider_Systems_Ltd = 32927

Spider Systems Ltd. [Neil Sembower]

Nixdorf_Computers = 32931

Nixdorf Computers [Neil Sembower]

Banyan_Systems_0x80C4 = 32964

Banyan Systems [Neil Sembower]

Banyan_Systems_0x80C5 = 32965

Banyan Systems [Neil Sembower]

Pacer_Software = 32966

Pacer Software [Neil Sembower]

Applitek_Corporation = 32967

Applitek Corporation [Neil Sembower]

IBM_SNA_Service_on_Ether = 32981

IBM SNA Service on Ether [Neil Sembower]

Varian_Associates = 32989

Varian Associates [Neil Sembower]

Retix = 33010

Retix [Neil Sembower]

AppleTalk_AARP = 33011

AppleTalk AARP (Kinetics) [Neil Sembower]

Apollo_Computer = 33015

Apollo Computer [Neil Sembower]

Wellfleet_Communications = 33023

Wellfleet Communications [Neil Sembower]

Customer_VLAN_Tag_Type = 33024

Customer VLAN Tag Type (C-Tag, formerly called the Q-Tag) (initially Wellfleet) [RFC 7042]

Hayes_Microcomputers = 33072

Hayes Microcomputers [Neil Sembower]

VG_Laboratory_Systems = 33073

VG Laboratory Systems [Neil Sembower]

Logicraft = 33096

Logicraft [Neil Sembower]

Network_Computing_Devices = 33097

Network Computing Devices [Neil Sembower]

Alpha_Micro = 33098

Alpha Micro [Neil Sembower]

SNMP = 33100

SNMP [Joyce K Reynolds]

BIIN_0x814D = 33101

BIIN [Neil Sembower]

BIIN_0x814E = 33102

BIIN [Neil Sembower]

Technically_Elite_Concept = 33103

Technically Elite Concept [Neil Sembower]

Rational_Corp = 33104

Rational Corp [Neil Sembower]

XTP = 33149

XTP [Neil Sembower]

SGI_Time_Warner_prop = 33150

SGI/Time Warner prop. [Neil Sembower]

HIPPI_FP_encapsulation = 33152

HIPPI-FP encapsulation [Neil Sembower]

STP_HIPPI_ST = 33153

STP, HIPPI-ST [Neil Sembower]

Reserved_for_HIPPI_6400_0x8182 = 33154

Reserved for HIPPI-6400 [Neil Sembower]

Reserved_for_HIPPI_6400_0x8183 = 33155

Reserved for HIPPI-6400 [Neil Sembower]

Motorola_Computer = 33165

Motorola Computer [Neil Sembower]

ARAI_Bunkichi = 33188

ARAI Bunkichi [Neil Sembower]

SECTRA = 34523

SECTRA [Neil Sembower]

Delta_Controls = 34526

Delta Controls [Neil Sembower]

Internet_Protocol_version_6 = 34525

Internet Protocol version 6 (IPv6) [RFC 7042]

ATOMIC = 34527

ATOMIC [Joe Touch]

TCP_IP_Compression = 34667

TCP/IP Compression [RFC 1144][RFC 1701]

IP_Autonomous_Systems = 34668

IP Autonomous Systems [RFC 1701]

Secure_Data = 34669

Secure Data [RFC 1701]

IEEE_Std_802_3_Ethernet_Passive_Optical_Network = 34824

IEEE Std 802.3 - Ethernet Passive Optical Network (EPON) [EPON][RFC 7042]

Slow_Protocols = 34825

Slow Protocols (Link Aggregation, OAM, etc.) [IEEE]

Point_to_Point_Protocol = 34827

Point-to-Point Protocol (PPP) [RFC 7042]

General_Switch_Management_Protocol = 34828

General Switch Management Protocol (GSMP) [RFC 7042]

Ethernet_NIC_hardware_and_software_testing = 34850

Ethernet NIC hardware and software testing [Wind River]

MPLS = 34887

MPLS [RFC 5332]

MPLS_with_upstream_assigned_label = 34888

MPLS with upstream-assigned label [RFC 5332]

Multicast_Channel_Allocation_Protocol = 34913

Multicast Channel Allocation Protocol (MCAP) [RFC 7042]

PPP_over_Ethernet_Discovery_Stage = 34915

PPP over Ethernet (PPPoE) Discovery Stage [RFC 2516]

PPP_over_Ethernet_Session_Stage = 34916

PPP over Ethernet (PPPoE) Session Stage [RFC 2516][RFC 8822]

IEEE_Std_802_1X_Port_based_network_access_control = 34958

IEEE Std 802.1X - Port-based network access control [IEEE]

IEEE_Std_802_1Q_Service_VLAN_tag_identifier = 34984

IEEE Std 802.1Q - Service VLAN tag identifier (S-Tag) [IEEE]

IEEE_Std_802_Local_Experimental_Ethertype_0x88B5 = 34997

IEEE Std 802 - Local Experimental Ethertype [IEEE]

IEEE_Std_802_Local_Experimental_Ethertype_0x88B6 = 34998

IEEE Std 802 - Local Experimental Ethertype [IEEE]

IEEE_Std_802_OUI_Extended_Ethertype = 34999

IEEE Std 802 - OUI Extended Ethertype [IEEE]

IEEE_Std_802_11_Pre_Authentication = 35015

IEEE Std 802.11 - Pre-Authentication (802.11i) [IEEE]

IEEE Std 802.1AB - Link Layer Discovery Protocol (LLDP) [IEEE]

IEEE_Std_802_1AE_Media_Access_Control_Security = 35045

IEEE Std 802.1AE - Media Access Control Security [IEEE]

Provider_Backbone_Bridging_Instance_tag = 35047

Provider Backbone Bridging Instance tag [IEEE Std 802.1Q-2014]

IEEE_Std_802_1Q_Multiple_VLAN_Registration_Protocol = 35061

IEEE Std 802.1Q - Multiple VLAN Registration Protocol (MVRP) [IEEE]

IEEE_Std_802_1Q_Multiple_Multicast_Registration_Protocol = 35062

IEEE Std 802.1Q - Multiple Multicast Registration Protocol (MMRP) [IEEE]

IEEE_Std_802_11_Fast_Roaming_Remote_Request = 35085

IEEE Std 802.11 - Fast Roaming Remote Request (802.11r) [IEEE]

IEEE_Std_802_21_Media_Independent_Handover_Protocol = 35095

IEEE Std 802.21 - Media Independent Handover Protocol [IEEE]

IEEE_Std_802_1Qbe_Multiple_I_SID_Registration_Protocol = 35113

IEEE Std 802.1Qbe - Multiple I-SID Registration Protocol [IEEE]

TRILL_Fine_Grained_Labeling = 35131

TRILL Fine Grained Labeling (FGL) [RFC 7172]

IEEE_Std_802_1Qbg_ECP_Protocol = 35136

IEEE Std 802.1Qbg - ECP Protocol (also used in 802.1BR) [IEEE]

TRILL_RBridge_Channel = 35142

TRILL RBridge Channel [RFC 7178]

GeoNetworking_as_defined_in_ETSI_EN_302_636_4_1 = 35143

GeoNetworking as defined in ETSI EN 302 636-4-1 [IEEE]

NSH = 35151

NSH (Network Service Header) [RFC 8300]

Loopback = 36864

Loopback [Neil Sembower]

EtherType_3Com_XNS_Sys_Mgmt = 36865

3Com(Bridge) XNS Sys Mgmt [Neil Sembower]

EtherType_3Com_TCP_IP_Sys = 36866

3Com(Bridge) TCP-IP Sys [Neil Sembower]

EtherType_3Com_loop_detect = 36867

3Com(Bridge) loop detect [Neil Sembower]

Multi_Topology = 39458

Multi-Topology [RFC 8377]

LoWPAN_encapsulation = 41197

LoWPAN encapsulation [RFC 7973]

The_Ethertype_will_be_used_to_identify_a_Channel_in_which_control_messages_are_encapsulated_as_payload_of_GRE_packets_When_a_GRE_packet_tagged_with_the_Ethertype_is_received_the_payload_will_be_handed_to_the_network_processor_for_processing = 47082

The Ethertype will be used to identify a “Channel” in which control messages are encapsulated as payload of GRE packets. When a GRE packet tagged with the Ethertype is received, the payload will be handed to the network processor for processing. [RFC 8157]

BBN_VITAL_LanBridge_cache = 65280

BBN VITAL-LanBridge cache [Neil Sembower]

Reserved = 65535

Reserved [RFC 1701]

classmethod _missing_(value)[source]

Lookup function used when value is not found.

Parameters

value (int) – Value to get enum item.

Return type

EtherType

Transport Layer Protocol Numbers

This module contains the constant enumeration for Transport Layer Protocol Numbers, which is automatically generated from pcapkit.vendor.reg.transtype.TransType.

class pcapkit.const.reg.transtype.TransType(value=<no_arg>, names=None, module=None, qualname=None, type=None, start=1, boundary=None)[source]

Bases: IntEnum

[TransType] Transport Layer Protocol Numbers

HOPOPT = 0

IPv6 Hop-by-Hop Option [RFC 8200]

ICMP = 1

Internet Control Message [RFC 792]

IGMP = 2

Internet Group Management [RFC 1112]

GGP = 3

Gateway-to-Gateway [RFC 823]

IPv4 = 4

IPv4 encapsulation [RFC 2003]

ST = 5

Stream [RFC 1190][RFC 1819]

TCP = 6

Transmission Control [RFC-ietf-tcpm-rfc793bis-28]

CBT = 7

CBT [Tony Ballardie]

EGP = 8

Exterior Gateway Protocol [RFC 888][David Mills]

IGP = 9

any private interior gateway (used by Cisco for their IGRP) [Internet Assigned Numbers Authority]

BBN_RCC_MON = 10

BBN RCC Monitoring [Steve Chipman]

NVP_II = 11

Network Voice Protocol [RFC 741][Steve Casner]

PUP = 12

An Internetwork Architecture”, XEROX Palo Alto Research Center, CSL-79-10, July 1979; also in IEEE Transactions on Communication, Volume COM-28, Number 4, April 1980.][XEROX]

Type

PUP [Boggs, D., J. Shoch, E. Taft, and R. Metcalfe, “PUP

ARGUS = 13

ARGUS (deprecated)) [Robert W Scheifler]

EMCON = 14

EMCON [<mystery contact>]

XNET = 15

Cross Net Debugger [Haverty, J., “XNET Formats for Internet Protocol Version 4”, IEN 158, October 1980.][Jack Haverty]

CHAOS = 16

Chaos [J Noel Chiappa]

UDP = 17

User Datagram [RFC 768][Jon Postel]

MUX = 18

Multiplexing [Cohen, D. and J. Postel, “Multiplexing Protocol”, IEN 90, USC/Information Sciences Institute, May 1979.][Jon Postel]

DCN_MEAS = 19

DCN Measurement Subsystems [David Mills]

HMP = 20

Host Monitoring [RFC 869][Bob Hinden]

PRM = 21

Packet Radio Measurement [Zaw Sing Su]

XNS_IDP = 22

Data Link Layer and Physical Layer Specification”, AA-K759B-TK, Digital Equipment Corporation, Maynard, MA. Also as: “The Ethernet - A Local Area Network”, Version 1.0, Digital Equipment Corporation, Intel Corporation, Xerox Corporation, September 1980. And: “The Ethernet, A Local Area Network: Data Link Layer and Physical Layer Specifications”, Digital, Intel and Xerox, November 1982. And: XEROX, “The Ethernet, A Local Area Network: Data Link Layer and Physical Layer Specification”, X3T51/80-50, Xerox Corporation, Stamford, CT., October 1980.][XEROX]

Type

XEROX NS IDP [“The Ethernet, A Local Area Network

TRUNK_1 = 23

Trunk-1 [Barry Boehm]

TRUNK_2 = 24

Trunk-2 [Barry Boehm]

LEAF_1 = 25

Leaf-1 [Barry Boehm]

LEAF_2 = 26

Leaf-2 [Barry Boehm]

RDP = 27

Reliable Data Protocol [RFC 908][Bob Hinden]

IRTP = 28

Internet Reliable Transaction [RFC 938][Trudy Miller]

ISO_TP4 = 29

ISO Transport Protocol Class 4 [RFC 905][<mystery contact>]

NETBLT = 30

Bulk Data Transfer Protocol [RFC 969][David Clark]

MFE_NSP = 31

MFE Network Services Protocol [Shuttleworth, B., “A Documentary of MFENet, a National Computer Network”, UCRL-52317, Lawrence Livermore Labs, Livermore, California, June 1977.][Barry Howard]

MERIT_INP = 32

MERIT Internodal Protocol [Hans Werner Braun]

DCCP = 33

Datagram Congestion Control Protocol [RFC 4340]

TransType_3PC = 34

Third Party Connect Protocol [Stuart A Friedberg]

IDPR = 35

Inter-Domain Policy Routing Protocol [Martha Steenstrup]

XTP = 36

XTP [Greg Chesson]

DDP = 37

Datagram Delivery Protocol [Wesley Craig]

IDPR_CMTP = 38

IDPR Control Message Transport Proto [Martha Steenstrup]

TP = 39

TP++ Transport Protocol [Dirk Fromhein]

IL = 40

IL Transport Protocol [Dave Presotto]

IPv6 = 41

IPv6 encapsulation [RFC 2473]

SDRP = 42

Source Demand Routing Protocol [Deborah Estrin]

IPv6_Route = 43

Routing Header for IPv6 [Steve Deering]

IPv6_Frag = 44

Fragment Header for IPv6 [Steve Deering]

IDRP = 45

Inter-Domain Routing Protocol [Sue Hares]

RSVP = 46

Reservation Protocol [RFC 2205][RFC 3209][Bob Braden]

GRE = 47

Generic Routing Encapsulation [RFC 2784][Tony Li]

DSR = 48

Dynamic Source Routing Protocol [RFC 4728]

BNA = 49

BNA [Gary Salamon]

ESP = 50

Encap Security Payload [RFC 4303]

AH = 51

Authentication Header [RFC 4302]

I_NLSP = 52

Integrated Net Layer Security TUBA [K Robert Glenn]

SWIPE = 53

IP with Encryption (deprecated)) [John Ioannidis]

NARP = 54

NBMA Address Resolution Protocol [RFC 1735]

MOBILE = 55

IP Mobility [Charlie Perkins]

TLSP = 56

Transport Layer Security Protocol using Kryptonet key management [Christer Oberg]

SKIP = 57

SKIP [Tom Markson]

IPv6_ICMP = 58

ICMP for IPv6 [RFC 8200]

IPv6_NoNxt = 59

No Next Header for IPv6 [RFC 8200]

IPv6_Opts = 60

Destination Options for IPv6 [RFC 8200]

any_host_internal_protocol = 61

any host internal protocol [Internet Assigned Numbers Authority]

CFTP = 62

CFTP [Forsdick, H., “CFTP”, Network Message, Bolt Beranek and Newman, January 1982.][Harry Forsdick]

any_local_network = 63

any local network [Internet Assigned Numbers Authority]

SAT_EXPAK = 64

SATNET and Backroom EXPAK [Steven Blumenthal]

KRYPTOLAN = 65

Kryptolan [Paul Liu]

RVD = 66

MIT Remote Virtual Disk Protocol [Michael Greenwald]

IPPC = 67

Internet Pluribus Packet Core [Steven Blumenthal]

any_distributed_file_system = 68

any distributed file system [Internet Assigned Numbers Authority]

SAT_MON = 69

SATNET Monitoring [Steven Blumenthal]

VISA = 70

VISA Protocol [Gene Tsudik]

IPCV = 71

Internet Packet Core Utility [Steven Blumenthal]

CPNX = 72

Computer Protocol Network Executive [David Mittnacht]

CPHB = 73

Computer Protocol Heart Beat [David Mittnacht]

WSN = 74

Wang Span Network [Victor Dafoulas]

PVP = 75

Packet Video Protocol [Steve Casner]

BR_SAT_MON = 76

Backroom SATNET Monitoring [Steven Blumenthal]

SUN_ND = 77

SUN ND PROTOCOL-Temporary [William Melohn]

WB_MON = 78

WIDEBAND Monitoring [Steven Blumenthal]

WB_EXPAK = 79

WIDEBAND EXPAK [Steven Blumenthal]

ISO_IP = 80

ISO Internet Protocol [Marshall T Rose]

VMTP = 81

VMTP [Dave Cheriton]

SECURE_VMTP = 82

SECURE-VMTP [Dave Cheriton]

VINES = 83

VINES [Brian Horn]

TTP = 84

Transaction Transport Protocol [Jim Stevens]

IPTM = 84

Internet Protocol Traffic Manager [Jim Stevens]

NSFNET_IGP = 85

NSFNET-IGP [Hans Werner Braun]

DGP = 86

Dissimilar Gateway Protocol [M/A-COM Government Systems, “Dissimilar Gateway Protocol Specification, Draft Version”, Contract no. CS901145, November 16, 1987.][Mike Little]

TCF = 87

TCF [Guillermo A Loyola]

EIGRP = 88

EIGRP [RFC 7868]

OSPFIGP = 89

OSPFIGP [RFC 1583][RFC 2328][RFC 5340][John Moy]

Sprite_RPC = 90

Sprite RPC Protocol [Welch, B., “The Sprite Remote Procedure Call System”, Technical Report, UCB/Computer Science Dept., 86/302, University of California at Berkeley, June 1986.][Bruce Willins]

LARP = 91

Locus Address Resolution Protocol [Brian Horn]

MTP = 92

Multicast Transport Protocol [Susie Armstrong]

AX_25 = 93

AX.25 Frames [Brian Kantor]

IPIP = 94

IP-within-IP Encapsulation Protocol [John Ioannidis]

MICP = 95

Mobile Internetworking Control Pro. (deprecated)) [John Ioannidis]

SCC_SP = 96

Semaphore Communications Sec. Pro. [Howard Hart]

ETHERIP = 97

Ethernet-within-IP Encapsulation [RFC 3378]

ENCAP = 98

Encapsulation Header [RFC 1241][Robert Woodburn]

any_private_encryption_scheme = 99

any private encryption scheme [Internet Assigned Numbers Authority]

GMTP = 100

GMTP [RXB5]

IFMP = 101

Ipsilon Flow Management Protocol [Bob Hinden][November 1995, 1997.]

PNNI = 102

PNNI over IP [Ross Callon]

PIM = 103

Protocol Independent Multicast [RFC 7761][Dino Farinacci]

ARIS = 104

ARIS [Nancy Feldman]

SCPS = 105

SCPS [Robert Durst]

QNX = 106

QNX [Michael Hunter]

A_N = 107

Active Networks [Bob Braden]

IPComp = 108

IP Payload Compression Protocol [RFC 2393]

SNP = 109

Sitara Networks Protocol [Manickam R Sridhar]

Compaq_Peer = 110

Compaq Peer Protocol [Victor Volpe]

IPX_in_IP = 111

IPX in IP [CJ Lee]

VRRP = 112

Virtual Router Redundancy Protocol [RFC 5798]

PGM = 113

PGM Reliable Transport Protocol [Tony Speakman]

any_0_hop_protocol = 114

any 0-hop protocol [Internet Assigned Numbers Authority]

L2TP = 115

Layer Two Tunneling Protocol [RFC 3931][Bernard Aboba]

DDX = 116

D-II Data Exchange (DDX) [John Worley]

IATP = 117

Interactive Agent Transfer Protocol [John Murphy]

STP = 118

Schedule Transfer Protocol [Jean Michel Pittet]

SRP = 119

SpectraLink Radio Protocol [Mark Hamilton]

UTI = 120

UTI [Peter Lothberg]

SMP = 121

Simple Message Protocol [Leif Ekblad]

SM = 122

Simple Multicast Protocol (deprecated)) [Jon Crowcroft][draft-perlman- simple-multicast]

PTP = 123

Performance Transparency Protocol [Michael Welzl]

ISIS_over_IPv4 = 124

[Tony Przygienda]

FIRE = 125

[Criag Partridge]

CRTP = 126

Combat Radio Transport Protocol [Robert Sautter]

CRUDP = 127

Combat Radio User Datagram [Robert Sautter]

SSCOPMCE = 128

[Kurt Waber]

IPLT = 129

[Hollbach]

SPS = 130

Secure Packet Shield [Bill McIntosh]

PIPE = 131

Private IP Encapsulation within IP [Bernhard Petri]

SCTP = 132

Stream Control Transmission Protocol [Randall R Stewart]

FC = 133

Fibre Channel [Murali Rajagopal][RFC 6172]

RSVP_E2E_IGNORE = 134

[RFC 3175]

Mobility_Header = 135

[RFC 6275]

UDPLite = 136

[RFC 3828]

MPLS_in_IP = 137

[RFC 4023]

manet = 138

MANET Protocols [RFC 5498]

HIP = 139

Host Identity Protocol [RFC 7401]

Shim6 = 140

Shim6 Protocol [RFC 5533]

WESP = 141

Wrapped Encapsulating Security Payload [RFC 5840]

ROHC = 142

Robust Header Compression [RFC 5858]

Ethernet = 143

Ethernet [RFC 8986]

Use_for_experimentation_and_testing_253 = 253

Use for experimentation and testing [RFC 3692]

Use_for_experimentation_and_testing_254 = 254

Use for experimentation and testing [RFC 3692]

Reserved_255 = 255

[Internet Assigned Numbers Authority]

classmethod _missing_(value)[source]

Lookup function used when value is not found.

Parameters

value (int) – Value to get enum item.

Return type

TransType

*

http://www.tcpdump.org/linktypes.html

†

https://www.iana.org/assignments/ieee-802-numbers/ieee-802-numbers.xhtml#ieee-802-numbers-1

‡

https://www.iana.org/assignments/protocol-numbers/protocol-numbers.xhtml#protocol-numbers-1