OID reference

vpwsBindCfgTable

1.3.6.1.4.1.629.10.19.1.3

Description

VPWS Binding Config Table. This table configures bindings of Attachment Circuits (ACs) to VPWS instances, pseudowires (PWs), and layer 2 local switching rules (hairpins). Multiple ACs can be associated with a single VPWS. If the binding corresponds to two VPWS sites that are hosted by a single PE router, a hairpin can…

Full description and source information

Identification

Identifier and names

Parent
1.3.6.1.4.1.629.10.19.1 (vpwsObjects)
Node code
3
Node name
vpwsBindCfgTable
Category
SNMP management object
Numeric OID
1.3.6.1.4.1.629.10.19.1.3
URN notation
urn:oid:1.3.6.1.4.1.629.10.19.1.3
ASN.1, OID-IRI and named path variants
ASN.1 notation

{1 3 6 1 4 1 629 10 19 1 3}

  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprise(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprise(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprises(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprises(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) ldap-enterprise(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) ldap-enterprise(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) vendor-objects(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) vendor-objects(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprise(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprise(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprises(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprises(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) ldap-enterprise(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) ldap-enterprise(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) vendor-objects(1) nbase(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • {iso(1) org(3) dod(6) internet(1) private(4) vendor-objects(1) nbs(629) opx(10) vpwsMib(19) vpwsObjects(1) vpwsBindCfgTable(3)}
  • Additional combinations skipped.
OID-IRI notation
  • /1/3/6/1/4/1/629/10/19/1/3
  • /ISO/Identified-Organization/6/1/4/1/629/10/19/1/3
  • /ISO/3/6/1/4/1/629/10/19/1/3
Named path variants
  • /iso/identified-organization/dod/internet/private/enterprise/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/enterprise/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/enterprises/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/enterprises/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/ldap-enterprise/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/ldap-enterprise/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/vendor-objects/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/identified-organization/dod/internet/private/vendor-objects/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/enterprise/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/enterprise/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/enterprises/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/enterprises/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/ldap-enterprise/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/ldap-enterprise/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/vendor-objects/nbase/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • /iso/org/dod/internet/private/vendor-objects/nbs/opx/vpwsMib/vpwsObjects/vpwsBindCfgTable
  • Additional combinations skipped.

SNMP properties

Value type
SEQUENCE OF VpwsBindCfgEntry
Maximum access defined by MIB
not-accessible
Status in MIB
current

Properties come from available MIB definitions. Actual device support and access can differ. See source records below for original files and qualifications.

The displayed source records contain one distinct definition. Compare its source records.

vpwsBindCfgTable OBJECT-TYPE
    SYNTAX      SEQUENCE OF VpwsBindCfgEntry
    MAX-ACCESS  not-accessible
    STATUS      current
    DESCRIPTION "VPWS Binding Config Table.

                 This table configures bindings of Attachment Circuits (ACs)
                 to VPWS instances, pseudowires (PWs), and layer 2 local
                 switching rules (hairpins).

                 Multiple ACs can be associated with a single VPWS.

                 If the binding corresponds to two VPWS sites that are hosted
                 by a single PE router, a hairpin can be created between the
                 two sites' ACs.  Otherwise, a PW set is used to establish
                 connectivity.

                 The method for associating ACs with PWs depends on whether
                 auto-discovery is enabled.

                 -  If auto-discovery is disabled (vpwsConfigADType = none)
                    then PWs are provisioned in the pwTable.  In this case,
                    each AC is bound to a set of provisioned PWs, that are
                    identified by a PW Set Index.  PW redundancy
                    configuration is not yet supported by L2VM provisioned
                    PWs, therefore the PW Set will have a single member, and
                    this set index can be set to the pwIndex in the pwTable
                    of that PW.  This form of binding is known as a
                    double-sided binding since the PW(s) must be provisioned
                    in the pwTable at each end of the virtual circuit.

                 -  If auto-discovery is enabled (vpwsConfigADType = bgp)
                    then the VPWS service establishes a PW between each pair
                    of VPWS sites within the VPWS, using BGP auto-discovery
                    to determine which PE router hosts each VPWS site.  In
                    this case, each AC is bound to a PW that is identified by
                    the local and remote site IDs.  The PE router creates
                    these PWs automatically as a result of the BGP
                    auto-discovery process.  This form of configuration is
                    sometimes known as 'colored pools'.  In this approach the
                    operator configures a pool of ACs for each local site,
                    and each pool is identified by a site ID or 'color'.  The
                    VPWS service establishes a PW between each pair of
                    'colored pools' (VPWS sites), and each AC is bound to a
                    PW associated with the same 'colored pool' (local site
                    ID).

                 -  If auto-discovery is enabled (vpwsConfigADType = bgp)
                    then an AC can still be bound to a PW that is provisioned
                    in the pwTable MIB, for example to incorporate a legacy
                    PE router that does not support auto-discovery into the
                    VPWS.

                 The method for associating ACs with other ACs in a hairpin
                 also depends on whether auto-discovery is enabled.

                 -  If auto-discovery is disabled, the AC is bound to another
                    AC directly, by configuring its interface index in this
                    table.  In this case the PW set index can also optionally
                    be specified to provide redundant connectivity to the
                    other site.

                 -  If auto-discovery is enabled, the BGP auto-discovery
                    process ascertains that this PE router also hosts the
                    remote site, and automatically binds the two ACs.

                 In either case a row in this table only establishes
                 unidirectional connectivity for a hairpin.  For full
                 connectivity, the opposite direction will need to be
                 configured in the same manner (though this need not be in
                 the same VPWS instance).

                 Each VPWS Binding is configured with a PW binding type,
                 given by vpwsBindCfgPwBindType, which specifies whether the
                 PW Set to which the AC is bound is identified by a PW Set
                 index and/or hairpin interface index (and so is provisioned)
                 or by a local and remote site ID (and so is auto-created as
                 a result of BGP auto-discovery).

                 This table is indexed on AC interface index to ensure that
                 each AC is only ever bound to a single VPWS.  The read-only
                 vpwsBindTable can be used to show the ACs bound to each
                 VPWS.

                 Note that changes to this table may cause the corresponding
                 AC to go operationally down as it may involve re-programming
                 the AC in the data plane."
    ::= { vpwsObjects 3 }

Meaning

Descriptions

1 unique

Identical descriptions are grouped. Different wording and device-specific notes are retained.

VPWS Binding Config Table. This table configures bindings of Attachment Circuits (ACs) to VPWS instances, pseudowires (PWs), and layer 2 local switching rules (hairpins). Multiple ACs can be associated with a single VPWS. If the binding corresponds to two VPWS sites that are hosted by a single PE router, a hairpin can be created between the two sites' ACs. Otherwise, a PW set is used to establish connectivity. The method for associating ACs with PWs depends on whether auto-discovery is enabled. - If auto-discovery is disabled (vpwsConfigADType = none) then PWs are provisioned in the pwTable. In this case, each AC is bound to a set of provisioned PWs, that are identified by a PW Set Index. PW redundancy configuration is not yet supported by L2VM provisioned PWs, therefore the PW Set will have a single member, and this set index can be set to the pwIndex in the pwTable of that PW. This form of binding is known as a double-sided binding since the PW(s) must be provisioned in the pwTable at each end of the virtual circuit. - If auto-discovery is enabled (vpwsConfigADType = bgp) then the VPWS service establishes a PW between each pair of VPWS sites within the VPWS, using BGP auto-discovery to determine which PE router hosts each VPWS site. In this case, each AC is bound to a PW that is identified by the local and remote site IDs. The PE router creates these PWs automatically as a result of the BGP auto-discovery process. This form of configuration is sometimes known as 'colored pools'. In this approach the operator configures a pool of ACs for each local site, and each pool is identified by a site ID or 'color'. The VPWS service establishes a PW between each pair of 'colored pools' (VPWS sites), and each AC is bound to a PW associated with the same 'colored pool' (local site ID). - If auto-discovery is enabled (vpwsConfigADType = bgp) then an AC can still be bound to a PW that is provisioned in the pwTable MIB, for example to incorporate a legacy PE router that does not support auto-discovery into the VPWS. The method for associating ACs with other ACs in a hairpin also depends on whether auto-discovery is enabled. - If auto-discovery is disabled, the AC is bound to another AC directly, by configuring its interface index in this table. In this case the PW set index can also optionally be specified to provide redundant connectivity to the other site. - If auto-discovery is enabled, the BGP auto-discovery process ascertains that this PE router also hosts the remote site, and automatically binds the two ACs. In either case a row in this table only establishes unidirectional connectivity for a hairpin. For full connectivity, the opposite direction will need to be configured in the same manner (though this need not be in the same VPWS instance). Each VPWS Binding is configured with a PW binding type, given by vpwsBindCfgPwBindType, which specifies whether the PW Set to which the AC is bound is identified by a PW Set index and/or hairpin interface index (and so is provisioned) or by a local and remote site ID (and so is auto-created as a result of BGP auto-discovery). This table is indexed on AC interface index to ensure that each AC is only ever bound to a single VPWS. The read-only vpwsBindTable can be used to show the ACs bound to each VPWS. Note that changes to this table may cause the corresponding AC to go operationally down as it may involve re-programming the AC in the data plane.

Sources for this description

Multiple manufacturers; see the original MIB MIB copies (LibreNMS/Observium Community)

See 1 matching source record

Evidence

Source records

1 records

Matching descriptions are grouped; open a group to compare definitions and supporting files.

Records for description 1Multiple manufacturers; see the original MIB MIB copies (LibreNMS/Observium Community)1 record · 1 source

Description 1

vpwsBindCfgTable · currentMultiple manufacturers; see the original MIB MIB copies (LibreNMS/Observium Community)1 source

Status in source: current.

Names: vpwsBindCfgTable

Technical details
{
  "smi_kind": "OBJECT-TYPE",
  "definition": [
    "vpwsBindCfgTable",
    "OBJECT-TYPE",
    "SYNTAX",
    "SEQUENCE",
    "OF",
    "VpwsBindCfgEntry",
    "MAX-ACCESS",
    "not-accessible",
    "STATUS",
    "current",
    "DESCRIPTION",
    "\"VPWS Binding Config Table. This table configures bindings of Attachment Circuits (ACs) to VPWS instances, pseudowires (PWs), and layer 2 local switching rules (hairpins). Multiple ACs can be associated with a single VPWS. If the binding corresponds to two VPWS sites that are hosted by a single PE router, a hairpin can be created between the two sites' ACs. Otherwise, a PW set is used to establish connectivity. The method for associating ACs with PWs depends on whether auto-discovery is enabled. - If auto-discovery is disabled (vpwsConfigADType = none) then PWs are provisioned in the pwTable. In this case, each AC is bound to a set of provisioned PWs, that are identified by a PW Set Index. PW redundancy configuration is not yet supported by L2VM provisioned PWs, therefore the PW Set will have a single member, and this set index can be set to the pwIndex in the pwTable of that PW. This form of binding is known as a double-sided binding since the PW(s) must be provisioned in the pwTable at each end of the virtual circuit. - If auto-discovery is enabled (vpwsConfigADType = bgp) then the VPWS service establishes a PW between each pair of VPWS sites within the VPWS, using BGP auto-discovery to determine which PE router hosts each VPWS site. In this case, each AC is bound to a PW that is identified by the local and remote site IDs. The PE router creates these PWs automatically as a result of the BGP auto-discovery process. This form of configuration is sometimes known as 'colored pools'. In this approach the operator configures a pool of ACs for each local site, and each pool is identified by a site ID or 'color'. The VPWS service establishes a PW between each pair of 'colored pools' (VPWS sites), and each AC is bound to a PW associated with the same 'colored pool' (local site ID). - If auto-discovery is enabled (vpwsConfigADType = bgp) then an AC can still be bound to a PW that is provisioned in the pwTable MIB, for example to incorporate a legacy PE router that does not support auto-discovery into the VPWS. The method for associating ACs with other ACs in a hairpin also depends on whether auto-discovery is enabled. - If auto-discovery is disabled, the AC is bound to another AC directly, by configuring its interface index in this table. In this case the PW set index can also optionally be specified to provide redundant connectivity to the other site. - If auto-discovery is enabled, the BGP auto-discovery process ascertains that this PE router also hosts the remote site, and automatically binds the two ACs. In either case a row in this table only establishes unidirectional connectivity for a hairpin. For full connectivity, the opposite direction will need to be configured in the same manner (though this need not be in the same VPWS instance). Each VPWS Binding is configured with a PW binding type, given by vpwsBindCfgPwBindType, which specifies whether the PW Set to which the AC is bound is identified by a PW Set index and/or hairpin interface index (and so is provisioned) or by a local and remote site ID (and so is auto-created as a result of BGP auto-discovery). This table is indexed on AC interface index to ensure that each AC is only ever bound to a single VPWS. The read-only vpwsBindTable can be used to show the ACs bound to each VPWS. Note that changes to this table may cause the corresponding AC to go operationally down as it may involve re-programming the AC in the data plane.\"",
    "::=",
    "{",
    "vpwsObjects",
    "3",
    "}"
  ],
  "syntax_tree": [
    [
      "conceptualTable",
      [
        "row",
        "VpwsBindCfgEntry"
      ]
    ],
    null,
    [
      "MaxAccessPart",
      "not-accessible"
    ],
    [
      "Status",
      "current"
    ],
    [
      "DESCRIPTION",
      "VPWS Binding Config Table. This table configures bindings of Attachment Circuits (ACs) to VPWS instances, pseudowires (PWs), and layer 2 local switching rules (hairpins). Multiple ACs can be associated with a single VPWS. If the binding corresponds to two VPWS sites that are hosted by a single PE router, a hairpin can be created between the two sites' ACs. Otherwise, a PW set is used to establish connectivity. The method for associating ACs with PWs depends on whether auto-discovery is enabled. - If auto-discovery is disabled (vpwsConfigADType = none) then PWs are provisioned in the pwTable. In this case, each AC is bound to a set of provisioned PWs, that are identified by a PW Set Index. PW redundancy configuration is not yet supported by L2VM provisioned PWs, therefore the PW Set will have a single member, and this set index can be set to the pwIndex in the pwTable of that PW. This form of binding is known as a double-sided binding since the PW(s) must be provisioned in the pwTable at each end of the virtual circuit. - If auto-discovery is enabled (vpwsConfigADType = bgp) then the VPWS service establishes a PW between each pair of VPWS sites within the VPWS, using BGP auto-discovery to determine which PE router hosts each VPWS site. In this case, each AC is bound to a PW that is identified by the local and remote site IDs. The PE router creates these PWs automatically as a result of the BGP auto-discovery process. This form of configuration is sometimes known as 'colored pools'. In this approach the operator configures a pool of ACs for each local site, and each pool is identified by a site ID or 'color'. The VPWS service establishes a PW between each pair of 'colored pools' (VPWS sites), and each AC is bound to a PW associated with the same 'colored pool' (local site ID). - If auto-discovery is enabled (vpwsConfigADType = bgp) then an AC can still be bound to a PW that is provisioned in the pwTable MIB, for example to incorporate a legacy PE router that does not support auto-discovery into the VPWS. The method for associating ACs with other ACs in a hairpin also depends on whether auto-discovery is enabled. - If auto-discovery is disabled, the AC is bound to another AC directly, by configuring its interface index in this table. In this case the PW set index can also optionally be specified to provide redundant connectivity to the other site. - If auto-discovery is enabled, the BGP auto-discovery process ascertains that this PE router also hosts the remote site, and automatically binds the two ACs. In either case a row in this table only establishes unidirectional connectivity for a hairpin. For full connectivity, the opposite direction will need to be configured in the same manner (though this need not be in the same VPWS instance). Each VPWS Binding is configured with a PW binding type, given by vpwsBindCfgPwBindType, which specifies whether the PW Set to which the AC is bound is identified by a PW Set index and/or hairpin interface index (and so is provisioned) or by a local and remote site ID (and so is auto-created as a result of BGP auto-discovery). This table is indexed on AC interface index to ensure that each AC is only ever bound to a single VPWS. The read-only vpwsBindTable can be used to show the ACs bound to each VPWS. Note that changes to this table may cause the corresponding AC to go operationally down as it may involve re-programming the AC in the data plane."
    ],
    null,
    null,
    null,
    null
  ]
}

Registration

Registration authorities

First Registration Authority (inferred from ancestor 1.3.6.1.4.1.629)

Rotenstein Sergiu

Direct children (1)

OIDNameDirect childrenDescendantsDescription
1.3.6.1.4.1.629.10.19.1.3.1 vpwsBindCfgEntry88

Siblings (3)

OIDNameDirect childrenDescendantsDescription
1.3.6.1.4.1.629.10.19.1.1 vpwsConfigTable121
1.3.6.1.4.1.629.10.19.1.2 vpwsStatusTable14
1.3.6.1.4.1.629.10.19.1.4 vpwsBindTable111