Reference record for OID 1.3.6.1.4.1.193.72.600.10.20.20.15

Parent
1.3.6.1.4.1.193.72.600.10.20.20 (uplinkEthernetRxScheduling)
Node code
15
Node name
vlanPrioToRxPriorityMappingTable
Numeric OID
1.3.6.1.4.1.193.72.600.10.20.20.15
URN notation
urn:oid:1.3.6.1.4.1.193.72.600.10.20.20.15
ASN.1 notation

{1 3 6 1 4 1 193 72 600 10 20 20 15}

  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) enterprises(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) ldap-enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) identified-organization(3) dod(6) internet(1) private(4) vendor-objects(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) org(3) dod(6) internet(1) private(4) enterprises(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) org(3) dod(6) internet(1) private(4) ldap-enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) org(3) dod(6) internet(1) private(4) vendor-objects(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-identified-organization(3) dod(6) internet(1) private(4) enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-identified-organization(3) dod(6) internet(1) private(4) enterprises(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-identified-organization(3) dod(6) internet(1) private(4) ldap-enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-identified-organization(3) dod(6) internet(1) private(4) vendor-objects(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-organization(3) dod(6) internet(1) private(4) enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-organization(3) dod(6) internet(1) private(4) enterprises(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-organization(3) dod(6) internet(1) private(4) ldap-enterprise(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
  • {iso(1) iso-organization(3) dod(6) internet(1) private(4) vendor-objects(1) ericsson(193) diaxMIB(72) pea(600) peaInterfaces(10) ethernetConfiguration(20) uplinkEthernetRxScheduling(20) vlanPrioToRxPriorityMappingTable(15)}
OID-IRI notation
  • /1/3/6/1/4/1/193/72/600/10/20/20/15
  • /ISO/Identified-Organization/6/1/4/1/193/72/600/10/20/20/15
  • /ISO/3/6/1/4/1/193/72/600/10/20/20/15
Named path variants
  • /iso/identified-organization/dod/internet/private/enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/identified-organization/dod/internet/private/enterprises/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/identified-organization/dod/internet/private/ldap-enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/identified-organization/dod/internet/private/vendor-objects/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/org/dod/internet/private/enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/org/dod/internet/private/enterprises/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/org/dod/internet/private/ldap-enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/org/dod/internet/private/vendor-objects/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-identified-organization/dod/internet/private/enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-identified-organization/dod/internet/private/enterprises/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-identified-organization/dod/internet/private/ldap-enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-identified-organization/dod/internet/private/vendor-objects/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-organization/dod/internet/private/enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-organization/dod/internet/private/enterprises/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-organization/dod/internet/private/ldap-enterprise/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable
  • /iso/iso-organization/dod/internet/private/vendor-objects/ericsson/diaxMIB/pea/peaInterfaces/ethernetConfiguration/uplinkEthernetRxScheduling/vlanPrioToRxPriorityMappingTable

Descriptions

vlanPrioToRxPriorityMappingTable — Ericsson MIB copies (MibBrowser.online)

Different operators uses different VLAN p-bit classification of services. In addition to voice, video and best effort data services, it may also be required to distinguish between various data services, and to classify traffic based on other criteria's than just service. As a consequence, utilization of the entire range of VLAN p-bit values from 0 to 7 is needed. More incoming traffic may arrive from the uplink Ethernet interface, than it is possible to forward on the downlink interface. In this case it is important to forward traffic with highest priority first and drop low priority traffic if necessary. With this table it is possible to configure which receive priority (rxPriority) is used for incoming downstream traffic carrying specific VLAN p-bit values. It is possible to specify, per VLAN p-bit value, which receive priority incoming downstream traffic is allocated to. If more than one VLAN tag is included in the received packets, only the first VLAN tags priority is taken into account when mapping to receive priority. Any packets received without VLAN tag are mapped to the highest receive priority (rxPriority=1). Below is an illustration of how the VLAN priority could be mapped to the receive priorities. The illustration is just and example, any combinations of mappings are valid. Note that the number of receive priorities may vary from one product to another. ___________________________________ | | | | | -- p-bit 7 ----> rxPriority 1 | | / | Incoming traffic from | / | the aggregation network | /---- p-bit 6 ----> rxPriority 2 | (VLAN p-bit 0-7) |/ | ----------------------->|\ | | \---- p-bit 5 ----> rxPriority 3 | | \ | | \ | | -- p-bit 0-4 --> rxPriority 4 | | | |___________________________________|

Source records

vlanPrioToRxPriorityMappingTable

Status in source: current.

Names: vlanPrioToRxPriorityMappingTable

Technical details
{
  "smi_kind": "OBJECT-TYPE",
  "definition": [
    "vlanPrioToRxPriorityMappingTable",
    "OBJECT-TYPE",
    "SYNTAX",
    "SEQUENCE",
    "OF",
    "VlanPrioToRxPriorityMappingEntry",
    "MAX-ACCESS",
    "not-accessible",
    "STATUS",
    "current",
    "DESCRIPTION",
    "\" Different operators uses different VLAN p-bit classification of services. In addition to voice, video and best effort data services, it may also be required to distinguish between various data services, and to classify traffic based on other criteria's than just service. As a consequence, utilization of the entire range of VLAN p-bit values from 0 to 7 is needed. More incoming traffic may arrive from the uplink Ethernet interface, than it is possible to forward on the downlink interface. In this case it is important to forward traffic with highest priority first and drop low priority traffic if necessary. With this table it is possible to configure which receive priority (rxPriority) is used for incoming downstream traffic carrying specific VLAN p-bit values. It is possible to specify, per VLAN p-bit value, which receive priority incoming downstream traffic is allocated to. If more than one VLAN tag is included in the received packets, only the first VLAN tags priority is taken into account when mapping to receive priority. Any packets received without VLAN tag are mapped to the highest receive priority (rxPriority=1). Below is an illustration of how the VLAN priority could be mapped to the receive priorities. The illustration is just and example, any combinations of mappings are valid. Note that the number of receive priorities may vary from one product to another. ___________________________________ | | | | | -- p-bit 7 ----> rxPriority 1 | | / | Incoming traffic from | / | the aggregation network | /---- p-bit 6 ----> rxPriority 2 | (VLAN p-bit 0-7) |/ | ----------------------->|\\ | | \\---- p-bit 5 ----> rxPriority 3 | | \\ | | \\ | | -- p-bit 0-4 --> rxPriority 4 | | | |___________________________________| \"",
    "::=",
    "{",
    "uplinkEthernetRxScheduling",
    "15",
    "}"
  ],
  "syntax_tree": [
    [
      "conceptualTable",
      [
        "row",
        "VlanPrioToRxPriorityMappingEntry"
      ]
    ],
    null,
    [
      "MaxAccessPart",
      "not-accessible"
    ],
    [
      "Status",
      "current"
    ],
    [
      "DESCRIPTION",
      "Different operators uses different VLAN p-bit classification of services. In addition to voice, video and best effort data services, it may also be required to distinguish between various data services, and to classify traffic based on other criteria's than just service. As a consequence, utilization of the entire range of VLAN p-bit values from 0 to 7 is needed. More incoming traffic may arrive from the uplink Ethernet interface, than it is possible to forward on the downlink interface. In this case it is important to forward traffic with highest priority first and drop low priority traffic if necessary. With this table it is possible to configure which receive priority (rxPriority) is used for incoming downstream traffic carrying specific VLAN p-bit values. It is possible to specify, per VLAN p-bit value, which receive priority incoming downstream traffic is allocated to. If more than one VLAN tag is included in the received packets, only the first VLAN tags priority is taken into account when mapping to receive priority. Any packets received without VLAN tag are mapped to the highest receive priority (rxPriority=1). Below is an illustration of how the VLAN priority could be mapped to the receive priorities. The illustration is just and example, any combinations of mappings are valid. Note that the number of receive priorities may vary from one product to another. ___________________________________ | | | | | -- p-bit 7 ----> rxPriority 1 | | / | Incoming traffic from | / | the aggregation network | /---- p-bit 6 ----> rxPriority 2 | (VLAN p-bit 0-7) |/ | ----------------------->|\\ | | \\---- p-bit 5 ----> rxPriority 3 | | \\ | | \\ | | -- p-bit 0-4 --> rxPriority 4 | | | |___________________________________|"
    ],
    null,
    null,
    null,
    null
  ]
}
  • Ericsson MIB copies (MibBrowser.online) · Publisher's source file: ETHERNET-CONFIGURATION — archive MIB indexed for Ericsson

    Vendor MIB copy from the MibBrowser.online archive. Ericsson support.

    Module: ETHERNET-CONFIGURATION

    Published definition
    vlanPrioToRxPriorityMappingTable OBJECT-TYPE
        SYNTAX      SEQUENCE OF VlanPrioToRxPriorityMappingEntry
        MAX-ACCESS  not-accessible
        STATUS      current
        DESCRIPTION
        "
         Different operators uses different VLAN p-bit classification of services.
         In addition to voice, video and best effort data services, it may also be
         required to distinguish between various data services, and to classify
         traffic based on other criteria's than just service. As a consequence,
         utilization of the entire range of VLAN p-bit values from 0 to 7 is needed.
         
         More incoming traffic may arrive from the uplink Ethernet interface, than 
         it is possible to forward on the downlink interface. In this case it is 
         important to forward traffic with highest priority first and drop low 
         priority traffic if necessary.
         
         With this table it is possible to configure which receive priority
         (rxPriority) is used for incoming downstream traffic carrying specific
         VLAN p-bit values. It is possible to specify, per VLAN p-bit value, which
         receive priority incoming downstream traffic is allocated to.
         If more than one VLAN tag is included in the received packets, only the first
         VLAN tags priority is taken into account when mapping to receive priority.
         Any packets received without VLAN tag are mapped to the highest receive
         priority (rxPriority=1).
    
         Below is an illustration of how the VLAN priority could be mapped to the
         receive priorities. The illustration is just and example, any combinations
         of mappings are valid. Note that the number of receive priorities may vary
         from one product to another.
         
                                  ___________________________________
                                 |                                   |
                                 |                                   |
                                 |    -- p-bit 7 ----> rxPriority 1  |
                                 |   /                               |
         Incoming traffic from   |  /                                |
         the aggregation network | /---- p-bit 6 ----> rxPriority 2  |
             (VLAN p-bit 0-7)    |/                                  |
         ----------------------->|\                                  |
                                 | \---- p-bit 5 ----> rxPriority 3  |
                                 |  \                                |
                                 |   \                               |
                                 |    -- p-bit 0-4 --> rxPriority 4  |
                                 |                                   |
                                 |___________________________________|
        "
        ::= { uplinkEthernetRxScheduling 15 }
    Module imports
    {'SNMPv2-SMI': ['MODULE-IDENTITY', 'OBJECT-TYPE', 'Unsigned32'], 'PEA-INTERFACES-SMI': ['peaInterfaces']}
    · Download ETHERNET-CONFIGURATION — archive MIB indexed for Ericsson

    Related source files and packages:

    • PEA-INTERFACES-SMI — archive MIB indexed for EricssonNative third-party archive copy; vendor association comes from the archive catalog and does not establish a current manufacturer release; Native LAST-UPDATED: 200601061200Z; Copy from MibBrowser.online; Publisher Last-Modified: Sun, 01 Oct 2023 19:21:12 GMT; 718 bytes
    • SNMPv2-SMI — dependency MIB (MibBrowser.online)Native third-party archive dependency for Ericsson MIB imports; authorship is not attributed to that manufacturer; Copy from MibBrowser.online; Publisher Last-Modified: Sun, 01 Oct 2023 19:21:04 GMT; 10,283 bytes

    Source location: ETHERNET-CONFIGURATION::vlanPrioToRxPriorityMappingTable.
    Source version and references

    Published package: Ericsson archived MIB 200601201233Z; file: ETHERNET-CONFIGURATION.mib.

    Native third-party archive copy; vendor association comes from the archive catalog and does not establish a current manufacturer release; Native LAST-UPDATED: 200601201233Z; Copy from MibBrowser.online; Publisher Last-Modified: Sun, 01 Oct 2023 19:20:57 GMT; 9,820 bytes

    Downloaded: 2026-10-27T05:19:14.313010+00:00.

First Registration Authority (inferred from ancestor 1.3.6.1.4.1.193)

David Partain

Current Registration Authority (inferred from ancestor 1.3.6.1.4.1.193)

Daniel Farias

Direct children (1)

OIDNameDirect childrenDescendantsDescription
1.3.6.1.4.1.193.72.600.10.20.20.15.5 vlanPrioToRxPriorityMappingEntry33

Siblings (2)

OIDNameDirect childrenDescendantsDescription
1.3.6.1.4.1.193.72.600.10.20.20.10 numberOfRxPriorities00
1.3.6.1.4.1.193.72.600.10.20.20.20 rxPriorityStatisticsTable14