Class l2:IngrPkts1w (CONCRETE)

Class ID:3469
Class Label: current ingress packets stats in 1 week
Encrypted: false - Exportable: false - Persistent: false - Configurable: false - Subject to Quota: Disabled
Write Access: [NON CONFIGURABLE]
Read Access: [admin]
Creatable/Deletable: no (see Container Mos for details)
Semantic Scope: None
Semantic Scope Evaluation Rule: Parent
Monitoring Policy Source: Parent
Monitoring Flags : [ IsObservable: false, HasStats: false, HasFaults: false, HasHealth: false, HasEventRules: false ]

RN FORMAT: CDl2IngrPkts1w

    [1] PREFIX=CDl2IngrPkts1w


DN FORMAT: 

[0] topology/pod-{id}/node-{id}/sys/ctxsubstitute-{[encap]}/encrtd-{[id]}/CDl2IngrPkts1w

[1] sys/ctxsubstitute-{[encap]}/encrtd-{[id]}/CDl2IngrPkts1w

[2] topology/pod-{id}/node-{id}/sys/inst-{name}/encrtd-{[id]}/CDl2IngrPkts1w

[3] sys/inst-{name}/encrtd-{[id]}/CDl2IngrPkts1w

[4] topology/pod-{id}/node-{id}/sys/ctx-{[encap]}/encrtd-{[id]}/CDl2IngrPkts1w

[5] sys/ctx-{[encap]}/encrtd-{[id]}/CDl2IngrPkts1w

[6] topology/pod-{id}/node-{id}/sys/ctxsubstitute-{[encap]}/rtd-{[id]}/CDl2IngrPkts1w

[7] sys/ctxsubstitute-{[encap]}/rtd-{[id]}/CDl2IngrPkts1w

[8] topology/pod-{id}/node-{id}/sys/inst-{name}/rtd-{[id]}/CDl2IngrPkts1w

[9] sys/inst-{name}/rtd-{[id]}/CDl2IngrPkts1w

[10] topology/pod-{id}/node-{id}/sys/ctx-{[encap]}/rtd-{[id]}/CDl2IngrPkts1w

[11] sys/ctx-{[encap]}/rtd-{[id]}/CDl2IngrPkts1w

[12] topology/pod-{id}/node-{id}/sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[13] sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[14] topology/pod-{id}/node-{id}/sys/inst-{name}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[15] sys/inst-{name}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[16] topology/pod-{id}/node-{id}/sys/ctx-{[encap]}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[17] sys/ctx-{[encap]}/bd-{[fabEncap]}/svi-{[id]}/CDl2IngrPkts1w

[18] topology/pod-{id}/node-{id}/sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[19] sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[20] topology/pod-{id}/node-{id}/sys/inst-{name}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[21] sys/inst-{name}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[22] topology/pod-{id}/node-{id}/sys/ctx-{[encap]}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[23] sys/ctx-{[encap]}/bd-{[fabEncap]}/vxlan-{[encap]}/CDl2IngrPkts1w

[24] topology/pod-{id}/node-{id}/sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

[25] sys/ctxsubstitute-{[encap]}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

[26] topology/pod-{id}/node-{id}/sys/inst-{name}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

[27] sys/inst-{name}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

[28] topology/pod-{id}/node-{id}/sys/ctx-{[encap]}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

[29] sys/ctx-{[encap]}/bd-{[fabEncap]}/vlan-{[encap]}/CDl2IngrPkts1w

                

Diagram

Super Mo: l2:IngrPkts, Container Mos: l2:CktEp (deletable:no), l3:EncRtdIf (deletable:no), l3:RtdIf (deletable:no), svi:If (deletable:no),

Containers Hierarchies

top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.            ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.      ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.            ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.      ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.            ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.      ├ l3:EncRtdIf The routed interface corresponds to a sub-interface in Cisco’s routing terminology. A sub-interface is a logical L3 interface created on an underlying physical L3 port (the parent interface). Each sub-interface is associated with an 802.1Q VLAN tag. The traffic that comes on the parent interface with that tag is considered for that sub-interface. The existence of a routed interface under a VRF or infra VRF also implies that the interface belo...        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.            ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.      ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.            ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.      ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.            ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.              ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.      ├ l3:RtdIf A target relation to the routed concrete interface. This corresponds to a physical L3 interface. The existence of a routed concrete interface under a VRF or infra VRF also implies that interface belongs to that VRF. An L3 interface can belong to only one VRF at a time.        ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ svi:If A routed VLAN interface.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ svi:If A routed VLAN interface.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ svi:If A routed VLAN interface.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ svi:If A routed VLAN interface.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ svi:If A routed VLAN interface.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ svi:If A routed VLAN interface.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vxlan:CktEp A VXLAN circuit.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vxlan:CktEp A VXLAN circuit.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vxlan:CktEp A VXLAN circuit.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vxlan:CktEp A VXLAN circuit.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vxlan:CktEp A VXLAN circuit.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vxlan:CktEp A VXLAN circuit.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:CtxSubstitute  Tenant context object substitute. Its needed for internal PE purposes but it doesnt instantiate any VRF in the node.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Inst The infra VRF is created for the iNXOS fabric infrastructure. All communications between fabric elements, such as spine, leaf and vleaf, take place in this VRF.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ fabric:Topology The root for IFC topology.    ├ fabric:Pod A pod.      ├ fabric:Node The root node for the APIC.        ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...          ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.            ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.              ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.                ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day. top:Root  This class represents the root element in the object hierarchy. All managed objects in the system are descendants of the Root element.  ├ top:System The APIC uses a policy model to combine data into a health score. Health scores can be aggregated for a variety of areas such as for the infrastructure, applications, or services. The category health score is calculated using a Lp -Norm formula. The health score penalty equals 100 minus the health score. The health score penalty represents the overall health score penalties of a set of MOs that belong to a given category and are children or direc...    ├ l3:Ctx The tenant context information is equivalent to a virtual routing and forwarding (VRF) instance created for the tenant's L3 network. Similar to a VRF in traditional Cisco routers, the tenant context isolates the IP addresses of the tenant, allowing different tenants to have overlapping IP addresses.      ├ l2:BD The Layer 2 Bridge-domain identifies the boundary of a tenant’s bridged/layer 2 traffic. This is similar to a VLAN in a traditional layer 2 switched network.        ├ vlan:CktEp A VLAN object created for an endpoint group with an 802.1q encap.          ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day.

Contained Hierarchy

l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day.

Inheritance

stats:Item The superclass for current and historical data of the statistics.  ├ stats:Curr The superclass for the current data objects of the statistics.    ├ l2:IngrPkts A super class that represents the most current statistics for ingress packets.      ├ l2:IngrPkts1w A class that represents the most current statistics for ingress packets in a 1 week sampling interval. This class updates every day.

childAction

Type: mo:ModificationChildAction
Primitive Type: scalar:Bitmask32

Units: null
Encrypted: false
Access: implicit
Category: TopLevelChildAction

Delete or ignore. For internal use only.

cnt

Type: scalar:Uint16

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRegular

The number of readings made within the current sample.

dn

Type: reference:BinRef

Units: null
Encrypted: false
Access: implicit
Category: TopLevelDn

A tag or metadata is a non-hierarchical keyword or term assigned to the fabric module.

dropAvg

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitAvg

Ingress drop packets. This is the average value read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

dropBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitBaseline

Ingress drop packets. This is the cumulative value of the counter after the last reset of the hardware counter. Note that this value continues through each interval without resetting to zero. Used for internal purposes.

dropCum

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitCumulative

Ingress drop packets. The total sum of the values read. Note that this value continues through each interval without resetting to zero.

dropLast

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitLastReading

Ingress drop packets. This is the most current value read by the counter.

dropMax

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMax

Ingress drop packets. This is the largest value read by the counter during the collection interval. This value is only overwritten if the most current value is larger than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 4, the previous value is overwritten with 4. If the third reading is smaller than 4, the value remains at 4. Note that this value resets to 0 at the beginning of each interval.

dropMin

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMin

Ingress drop packets. This is the smallest value read by the counter during the collection interval. This value is only overwritten if the most current value is smaller than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 2, the previous value is overwritten with 2. If the third reading is larger than 2, the value remains at 2. Note that this value resets to 0 at the beginning of each interval.

dropPer

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitPeriodic

Ingress drop packets. The total sum of the values read during the collection interval. Note that this value resets to 0 at the beginning of each interval.

dropRate

Type: scalar:Double

Units: packets
Encrypted: false
Access: oper
Category: ImplicitRate

Ingress drop packets. This is the rate of the counter during the collection interval. The rate is calculated by dividing the periodic value by the length of the collection interval. Note that this value resets to 0 at the beginning of each interval.

dropSpct

Type: scalar:Uint16

Units: packets
Encrypted: false
Access: oper
Category: ImplicitSuspect

Ingress drop packets. This is the number of missed and/or incorrect values read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

dropThr

Type: stats:ThresholdedMask
Primitive Type: scalar:Bitmask64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitThresholded

Ingress drop packets. This indicates the properties of the counter that crossed the threshold during the collection interval. Note that this value resets at the beginning of each interval.

dropTr

Type: scalar:Sint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrend

Ingress drop packets. This is the trending value of the counter. Note that this value resets to 0 at the beginning of each interval.

dropTrBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrendBase

Ingress drop packets. This is the cumulative value of the counter from the previous collection interval. Used for internal purposes.

floodAvg

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitAvg

Ingress flood packets. This is the average value read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

floodBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitBaseline

Ingress flood packets. This is the cumulative value of the counter after the last reset of the hardware counter. Note that this value continues through each interval without resetting to zero. Used for internal purposes.

floodCum

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitCumulative

Ingress flood packets. The total sum of the values read. Note that this value continues through each interval without resetting to zero.

floodLast

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitLastReading

Ingress flood packets. This is the most current value read by the counter.

floodMax

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMax

Ingress flood packets. This is the largest value read by the counter during the collection interval. This value is only overwritten if the most current value is larger than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 4, the previous value is overwritten with 4. If the third reading is smaller than 4, the value remains at 4. Note that this value resets to 0 at the beginning of each interval.

floodMin

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMin

Ingress flood packets. This is the smallest value read by the counter during the collection interval. This value is only overwritten if the most current value is smaller than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 2, the previous value is overwritten with 2. If the third reading is larger than 2, the value remains at 2. Note that this value resets to 0 at the beginning of each interval.

floodPer

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitPeriodic

Ingress flood packets. The total sum of the values read during the collection interval. Note that this value resets to 0 at the beginning of each interval.

floodRate

Type: scalar:Double

Units: packets
Encrypted: false
Access: oper
Category: ImplicitRate

Ingress flood packets. This is the rate of the counter during the collection interval. The rate is calculated by dividing the periodic value by the length of the collection interval. Note that this value resets to 0 at the beginning of each interval.

floodSpct

Type: scalar:Uint16

Units: packets
Encrypted: false
Access: oper
Category: ImplicitSuspect

Ingress flood packets. This is the number of missed and/or incorrect values read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

floodThr

Type: stats:ThresholdedMask
Primitive Type: scalar:Bitmask64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitThresholded

Ingress flood packets. This indicates the properties of the counter that crossed the threshold during the collection interval. Note that this value resets at the beginning of each interval.

floodTr

Type: scalar:Sint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrend

Ingress flood packets. This is the trending value of the counter. Note that this value resets to 0 at the beginning of each interval.

floodTrBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrendBase

Ingress flood packets. This is the cumulative value of the counter from the previous collection interval. Used for internal purposes.

lastCollOffset

Type: scalar:Uint32

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRegular

modTs

Type: mo:TStamp
Primitive Type: scalar:Date

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRegular

The time when this object was last modified.

multicastAvg

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitAvg

Ingress multicast packets. This is the average value read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

multicastBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitBaseline

Ingress multicast packets. This is the cumulative value of the counter after the last reset of the hardware counter. Note that this value continues through each interval without resetting to zero. Used for internal purposes.

multicastCum

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitCumulative

Ingress multicast packets. The total sum of the values read. Note that this value continues through each interval without resetting to zero.

multicastLast

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitLastReading

Ingress multicast packets. This is the most current value read by the counter.

multicastMax

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMax

Ingress multicast packets. This is the largest value read by the counter during the collection interval. This value is only overwritten if the most current value is larger than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 4, the previous value is overwritten with 4. If the third reading is smaller than 4, the value remains at 4. Note that this value resets to 0 at the beginning of each interval.

multicastMin

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMin

Ingress multicast packets. This is the smallest value read by the counter during the collection interval. This value is only overwritten if the most current value is smaller than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 2, the previous value is overwritten with 2. If the third reading is larger than 2, the value remains at 2. Note that this value resets to 0 at the beginning of each interval.

multicastPer

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitPeriodic

Ingress multicast packets. The total sum of the values read during the collection interval. Note that this value resets to 0 at the beginning of each interval.

multicastRate

Type: scalar:Double

Units: packets
Encrypted: false
Access: oper
Category: ImplicitRate

Ingress multicast packets. This is the rate of the counter during the collection interval. The rate is calculated by dividing the periodic value by the length of the collection interval. Note that this value resets to 0 at the beginning of each interval.

multicastSpct

Type: scalar:Uint16

Units: packets
Encrypted: false
Access: oper
Category: ImplicitSuspect

Ingress multicast packets. This is the number of missed and/or incorrect values read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

multicastThr

Type: stats:ThresholdedMask
Primitive Type: scalar:Bitmask64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitThresholded

Ingress multicast packets. This indicates the properties of the counter that crossed the threshold during the collection interval. Note that this value resets at the beginning of each interval.

multicastTr

Type: scalar:Sint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrend

Ingress multicast packets. This is the trending value of the counter. Note that this value resets to 0 at the beginning of each interval.

multicastTrBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrendBase

Ingress multicast packets. This is the cumulative value of the counter from the previous collection interval. Used for internal purposes.

repIntvEnd

Type: scalar:Date

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRegular

repIntvStart

Type: scalar:Date

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRegular

rn

Type: reference:BinRN

Units: null
Encrypted: false
Access: implicit
Category: TopLevelRn

Identifies an object from its siblings within the context of its parent object. The distinguished name contains a sequence of relative names.

status

Type: mo:ModificationStatus
Primitive Type: scalar:Bitmask32

Units: null
Encrypted: false
Access: implicit
Category: TopLevelStatus

The upgrade status. This property is for internal use only.

unicastAvg

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitAvg

Ingress unicast packets. This is the average value read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

unicastBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitBaseline

Ingress unicast packets. This is the cumulative value of the counter after the last reset of the hardware counter. Note that this value continues through each interval without resetting to zero. Used for internal purposes.

unicastCum

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitCumulative

Ingress unicast packets. The total sum of the values read. Note that this value continues through each interval without resetting to zero.

unicastLast

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitLastReading

Ingress unicast packets. This is the most current value read by the counter.

unicastMax

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMax

Ingress unicast packets. This is the largest value read by the counter during the collection interval. This value is only overwritten if the most current value is larger than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 4, the previous value is overwritten with 4. If the third reading is smaller than 4, the value remains at 4. Note that this value resets to 0 at the beginning of each interval.

unicastMin

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitMin

Ingress unicast packets. This is the smallest value read by the counter during the collection interval. This value is only overwritten if the most current value is smaller than the previous value. For example, if the value of the first reading is 3 and the value of the second reading is 2, the previous value is overwritten with 2. If the third reading is larger than 2, the value remains at 2. Note that this value resets to 0 at the beginning of each interval.

unicastPer

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitPeriodic

Ingress unicast packets. The total sum of the values read during the collection interval. Note that this value resets to 0 at the beginning of each interval.

unicastRate

Type: scalar:Double

Units: packets
Encrypted: false
Access: oper
Category: ImplicitRate

Ingress unicast packets. This is the rate of the counter during the collection interval. The rate is calculated by dividing the periodic value by the length of the collection interval. Note that this value resets to 0 at the beginning of each interval.

unicastSpct

Type: scalar:Uint16

Units: packets
Encrypted: false
Access: oper
Category: ImplicitSuspect

Ingress unicast packets. This is the number of missed and/or incorrect values read by the counter during the collection interval. Note that this value resets to 0 at the beginning of each interval.

unicastThr

Type: stats:ThresholdedMask
Primitive Type: scalar:Bitmask64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitThresholded

Ingress unicast packets. This indicates the properties of the counter that crossed the threshold during the collection interval. Note that this value resets at the beginning of each interval.

unicastTr

Type: scalar:Sint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrend

Ingress unicast packets. This is the trending value of the counter. Note that this value resets to 0 at the beginning of each interval.

unicastTrBase

Type: scalar:Uint64

Units: packets
Encrypted: false
Access: oper
Category: ImplicitTrendBase

Ingress unicast packets. This is the cumulative value of the counter from the previous collection interval. Used for internal purposes.