CIENA-CES-DATAPLANE-MIB: View SNMP OID List / Download MIB

This MIB module is the Dataplane Management for CN5410.

Table of flood containment configuration profiles.

Flood containment entry in the flood container profile table. Flood traffic is caused when the ingress frame is one of the three types - unknown unicast frame, broadcast frame or unknown multicast frame.Using the flood containment feature the flood causing ingress traffic can be contained to configured rates. Flood causing traffic is traffic that ingresses a virtual switch and egresses multiple logical interfaces attached to the virtual switch (but not the logical interface that the traffic ingresses on).

This object is a unique index into the table.

This object specifies a unique profile name for the meter flood container.

This object specifies a unique index into the table used in the trap definition.

This object specifies the rate limit for 'Containment Rate 1'.

This object specifies the rate limit for 'Containment Rate 2'.

This object specifies the rate limit for 'Containment Rate 3'.

This object specifies the RateId to use for the unknown unicast traffic. Traffic is allowed untouched upto this RateId (Rate1, Rate2 or Rate3) and dropped when exceeded. Enumeration: 'noLimit': 1, 'rateId2': 3, 'rateId3': 4, 'rateId1': 2.

This object specifies the RateId to use for the L2 broadcast traffic.Traffic is allowed untouched upto this RateId (Rate1, Rate2 or Rate3) and dropped when exceeded. Enumeration: 'noLimit': 1, 'rateId2': 3, 'rateId3': 4, 'rateId1': 2.

This object specifies the RateId to use for the unknown L2 multicast traffic. Traffic is allowed untouched upto this RateId (Rate1, Rate2 or Rate3) and dropped when exceeded. Enumeration: 'noLimit': 1, 'rateId2': 3, 'rateId3': 4, 'rateId1': 2.

Table of flood container attachments.

Flood containment entry in the flood container attachment table. This object is populated as soon as the flood container profile is attached to a logical interface.

This object specifies the logical interface type with which this flood container is associated.

This object specifies the index of the logical interface with which this flood container is associated. The type of the interface is identified by the object cienaCesDpTsMeterFloodContainerAttachmentLiType.

This object specifies the name of the logical interface with which this flood container is associated. The type of the interface is identified by the object cienaCesDpTsMeterFloodContainerAttachmentLiType.

This object specifies the logical interface type with which this flood container is associated. This object is used in the trap definitions.

This object specifies the index of the logical interface with which this flood container is associated. The type of the interface is identified by the object cienaCesDpTsMeterFloodContainerNotifAttachmentLiType. This object is used in the trap definitions.

This object specifies the current containment state of the unknown unicast traffic for this flood container instance.

This object specifies the current containment state of the layer 2 broadcast traffic for this flood container instance.

This object specifies the current containment state of the unknown layer 2 multicast traffic for this flood container instance.

This object specifies the total bandwidth allocated for this flood container instance.

This object specifies the total bandwidth in use by the child objects of the logical interface associated with this flood container.

This object specifies the current containment state of all received traffic for this flood container instance.

Table of meter profiles.

Meter Profile entry in the meter profile table. Metering is implemented using a dual leaky bucket mechanism. Conceptually, this can be viewed as a green token bucket which can hold a maximum of CBS tokens and a yellow token bucket which can hold a maximum of EBS tokens. The CIR determines the rate at which the green token bucket is refilled and the EIR determines the rate at which the yellow token bucket is refilled (regardless of CBS and EBS).

This object specifies a unique index into the table.

This object specifies a unique name for the meter profile.

This object specifies the Committed Information Rate (CIR), which is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system allows the traffic without any change.

This object specifies the Committed Burst Size (CBS), which is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain CIR conformant.

This object specifies the Excess Information Rate (EIR), which is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

This object specifies the Excess Burst Size(EBS), which is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain EIR-conformant.

Type of color mode Enumeration: 'color-blind': 1, 'color-mode-none': 0, 'color-aware': 2.

This object specifies whether or not overflow tokens not used for ingressing traffic declared Green can be used as Yellow tokens.

Table of meter profile attachments.

Meter profile entry in the meter profile attachment table. this object gets populated as soon as the metering profile is attached to a logical interface.

This object specifies the local interface type which is a unique index into the table.

This object specifies the logical interface index, which is a unique index into the table.

This object indicates the Committed Information Rate (CIR) available to child objects of the associated logical interface. CIR is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system allows the traffic without any change.

This object indicates the Excess Information Rate (EIR) that can be shared among child objects of the associated logical interface. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

This object indicates the total Committed Information Rate(CIR) in use by the child objects associated with the logical interface. CIR is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system allows the traffic without any change.

This object indicates the maximum amount of Excess Information Rate (EIR) in use by child objects associated with the logical interface. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

Table of Resolved CoS profiles.

Resolved CoS (RCoS) profile entry in the RCoS profile table. The Resolved CoS policy of a logical interface determines how the RCoS and RCOLOR of a frame are derived. The Resolved Cos Policy is set to either map the RCoS and RCOLOR from the frame or to use a fixed RCoS and RCOLOR.

This object specifies a unique index into the table.

This object specifies a unique profile name representing the Resolved CoS profile table entry.

This object specifies the fixed Resolved CoS value.

This object specifies the fixed Resolved CoS color. Enumeration: 'green': 1, 'yellow': 2.

This object specifies the ID of the associated Resolved CoS map table.

This object specifies the name of the associated Resolved CoS map.

Table of Resolved CoS maps.

Resolved CoS Map entry in the Resolved CoS map table.

This object specifies a unique RCoS map index into the table.

This object specifies a unique RCoS map name.

This object specifies the RCoS <0..63> mapping for a given L2-CoS <0..7> and Dei bit value <0..1>. Octet 1: RCoS for L2-COS 0 with DEI of 0 Octet 2: RCoS for L2-COS 0 with DEI of 1 Octet 3: RCoS for L2-COS 1 with DEI of 0 Octet 4: RCoS for L2-COS 1 with DEI of 1 ... Octet 15: RCoS for L2-COS 7 with DEI of 0 Octet 16: RCoS for L2-COS 7 with DEI of 1

This object specifies the RCOLOR mapping for a given L2-CoS <0..7> and DEI bit value <0..1>. Octet 1: RCOLOR for L2-COS 0 with DEI of 0 Octet 2: RCOLOR for L2-COS 0 with DEI of 1 Octet 3: RCOLOR for L2-COS 1 with DEI of 0 Octet 4: RCOLOR for L2-COS 1 with DEI of 1 ... Octet 15: RCoS for L2-COS 7 with DEI of 0 Octet 16: RCoS for L2-COS 7 with DEI of 1

This object specifies the RCoS <0..63> mapping for a given DSCP-CoS <0..63>. Octet 1: RCoS for DSCP-COS 0 Octet 2: RCoS for DSCP-COS 1 ... Octet 63: RCoS for DSCP-COS 63

This object specifies the RCOLOR mapping for a given DSCP-COS <0..63>. Octet 1: RCOLOR for DSCP-COS 0 Octet 2: RCOLOR for DSCP-COS 1 ... Octet 63: RCOLOR for DSCP-COS 63

This object specifies the RCoS <0..63> mapping for a given EXP-COS <0..7>. Octet 1: RCoS for EXP-COS 0 Octet 2: RCoS for EXP-COS 1 ... Octet 8: RCoS for EXP-COS 7

This object specifies the RCOLOR mapping for a given EXP-COS <0..7>. Octet 1: RCOLOR for EXP-COS 0 Octet 2: RCOLOR for EXP-COS 1 ... Octet 8: RCOLOR for EXP-COS 7

Table of Frame CoS Map.

Frame CoS Map entry in the Frame CoS Map Table.

This object specifies a unique index into the table FCoS map table.

This object specifies a unique map name for the FCoS map.

This object specifies the l2Cos <0..7> mapping for a given RCoS and RCOLOR value. Octet 1: l2Cos for RCoS 0 with RCOLOR of Green Octet 2: l2Cos for RCoS 0 with RCOLOR of Yellow Octet 3: l2Cos for RCoS 1 with RCOLOR of Green Octet 4: l2Cos for RCoS 1 with RCOLOR of Yellow ... Octet 126: l2Cos for RCoS 63 with RCOLOR of Green Octet 127: l2Cos for RCoS 63 with RCOLOR of Yellow

This object specifies the L2-Dei <0..1> mapping for a given RCoS and RCOLOR value. Octet 1: l2-dei for RCoS 0 with RCOLOR of Green Octet 2: l2-dei for RCoS 0 with RCOLOR of Yellow Octet 3: l2-dei for RCoS 1 with RCOLOR of Green Octet 4: l2-dei for RCoS 1 with RCOLOR of Yellow ... Octet 126: l2-dei for RCoS 63 with RCOLOR of Green Octet 127: l2-dei for RCoS 63 with RCOLOR of Yellow

This object specifies the L3-DSCP <0..63> mapping for a given RCoS and RCOLOR value. Octet 1: l3-dscp for RCoS 0 with RCOLOR of Green Octet 2: l3-dscp for RCoS 0 with RCOLOR of Yellow Octet 3: l3-dscp for RCoS 1 with RCOLOR of Green Octet 4: l3-dscp for RCoS 1 with RCOLOR of Yellow ... Octet 126: l3-dscp for RCoS 63 with RCOLOR of Green Octet 127: l3-dscp for RCoS 63 with RCOLOR of Yellow

This object specifies the exp <0..7> mapping for a given RCoS and RCOLOR value. Octet 1: exp for RCoS 0 with RCOLOR of Green Octet 2: exp for RCoS 0 with RCOLOR of Yellow Octet 3: exp for RCoS 1 with RCOLOR of Green Octet 4: exp for RCoS 1 with RCOLOR of Yellow ... Octet 126: exp for RCoS 63 with RCOLOR of Green Octet 127: exp for RCoS 63 with RCOLOR of Yellow

Table of Shaper Profiles.

Shaper Profile entry in the Shaper Profile Table.

This object specifies a unique index into the shaper profile table.

This object specifies a unique name for the shaper profile.

This object specifies the Committed Information Rate (CIR) in kbps for which egressing traffic is considered green.

This object specifies the Committed Burst Size (CBS) which is the maximum number of kbytes that can egress at the maximum interface speed in order to remain CIR conformant.

Table of shaper profile attachments.

Meter profile entry in the shaper profile attachment table.

This object specifies a unique index into the table.

This object specifies a unique index into the table.

This object indicates the Committed Information Rate (CIR) available to child objects associated with the logical interface. CIR is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system allows the traffic without any change.

This object indicates the total Excess Information Rate (EIR) that can be shared among child objects associated with the logical interface. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

This object indicates the used Committed Information Rate (CIR) in use by child objects associated with the logical interface.

This object indicates the maximum used Excess Information Rate (EIR) in use by child objects associated with the logical interface. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

Table of congestion avoidance profile for congestion avoidance type WRED.

An entry in the WRED congestion avoidance profile table.

This object specifies a unique index into the table.

This object specifies a unique WRED profile name.

This object specifies the exponential drop-rate exponent of this WRED curve when the average queue size is between the Upper and Lower threshold.

Maximum Size of Queue. Its unit is in KBytes

Minimum Guarantee Size of queue. Its unit is in KBytes

Table of congestion avoidance curve profile for congestion avoidance type WRED.

An entry in the WRED congestion avoidance curve profile table. Congestion avoidance allows frames to be dropped during congestion before they are enqueued (thus avoiding further congestion). The RCOLOR of a frame as it arrives at the egress enqueuing stage determines which WRED curve of the congestion avoidance profile to use (Green or Yellow). A congestion profile has two configurable WRED curves (Curve-1 and Curve-2). By default Green frames map to Curve-1 and Yellow frames map to Curve-2. If no congestion avoidance profile is referenced by a queue within a queue group, this signifies that no congestion avoidance is in effect (Tail Drop) and frames are enqueued only if there is space in the queue; otherwise they are dropped.

This object specifies a unique WRED curve ID.

This object specifies the threshold to begin dropping for this WRED curve. If the average queue size is below this value, frames are enqueued and not dropped due to WRED.

This object specifies the threshold above which all the frames for this WRED curve are dropped. If the average queue size is above this value, frames are dropped and not enqueued due to WRED.

This object specifies the drop probability when average queue size reaches the upper threshold value.

Table representing RCoS to queue map.

An entry in the RCoS to queue map table.

This object specifies an unique ID in the RCoS to queue map table.

This object specifies the name of the RCoS to queue map.

Table representing RCoS to queue map.

An entry in the RCoS to queue map table. Frames ingressing the device will be assigned an RCoS and RCOLOR by the Resolved CoS mapping stage. The RCoS is used at the egress enqueuing stage to determine which queue in the default port queue group the frame should be enqueued to. This is known as RCoS to Queue Mapping.

This object specifies a unique index in the RCoS to queue map table.

This object specifies the queue number to which the queue ID of RCoS maps. Enumeration: 'queue-1': 1, 'queue-0': 0, 'queue-3': 3, 'queue-2': 2, 'queue-5': 5, 'queue-4': 4, 'queue-7': 7, 'queue-6': 6.

Table representing RCoS to queue map green curve map.

An entry in the RCoS to queue green curve map table. The RCOLOR for an RCoS value is mapped to a WRED curve. The WRED-curve is the WRED-curve in the Congestion Avoidance Profile referenced by the Queue that the R-COS maps to. By default, there is an RCoS-To-Queue Map which all Egress Port Queue Groups reference.

This object indicates the unique index in the table.

The WRED green curve number to which the RCoS Queue green curve ID maps. Enumeration: 'wred-curve-1': 1, 'wred-curve-2': 2.

Table representing RCoS to queue map yellow curve map.

An entry in the RCoS to queue yellow curve map table. The RCOLOR for an RCoS value is mapped to a WRED curve. The WRED curve is the WRED curve in the congestion avoidance profile referenced by the queue to which the RCoS maps. By default, there is an RCoS-To-Queue Map which all egress port queue groups reference.

Unique index in the table.

The WRED yellow curve number to which the RCoS Queue yellow curve ID maps. Enumeration: 'wred-curve-1': 1, 'wred-curve-2': 2.

Table of queue group profiles.

Each entry represents a queue group profile.

A unique index in the queue group profile table.

This object indicates the queue group profile name.

This object indicates the number of queues per queue group. Maximum number of queues per queue group is 8.

This object specifies the RCoS to Queue Map ID for this group. A queue group profile will reference a queue map profile to obtain the mapping of frames to a queue within the egress port queuing instance. For the 5410 platform this mapping is based on R-COS to Queue mapping.

This object specifies the Shaper Compensation for all queues of this group. A queue group profile will have shaper compensation set dependent on the expected mix of traffic type being enqueued

Table of queues for every queue group profile.

Each entry represents an individual queue belonging to a queue group. The number of entries per group is decided by the cienaCesDpTsQGroupProfileQueueCount object. An Egress Port Queue Group is instantiated for every port when the port is created. The egress port queue group defines the set of queues that are instanced on a port, and the individual CIR/EIR shaping rates for each queue. There is one egress port queue group per port (identified by cienaCesDpTsQGroupProfileId).

This object indicates a unique index for every queue in the queue group.

This object indicates the Congestion Avoidance Profile (CAP)ID associated with the queue. If a queue does not reference a CAP, no congestion avoidance occurs for the queue and frames will no longer enqueue when the queue is full.

This object indicates the Commmitted Information Rate (CIR) value for the queue. CIR is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system allows the traffic without any change.

This object indicates the Committed Burst Size (CBS)in kbytes for the queue. CBS is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain CIR conformant.

This object indicates the Excess Information Rate (EIR) value for the queue. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

This object indicates the Excess Burst Size (EBS) in kbytes for the queue. EBS is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain EIR conformant.

This object specifies the cir-percent associated with the queue. The cir-percent allows for the CIR value to be determined as a percentage of the parent scheduler CIR.

This object specifies the eir-percent associated with the queue. The eir-percent allows for the EIR value to be determined as a percentage of the parent scheduler EIR.

Table of group instances.

Each entry represents a group instance.

This object specifies the PGID of the port to which the queue group resolves.

This object specifies the queue group profile instance ID.

This object specifies the profile ID of the parent scheduler to which this queue group instance is attached.

This object specifies the instance ID of the parent scheduler to which this queue group instance is attached.

Scheduler profile configuration data.

An entry in the scheduler profile configuration table.

This object specifies the unique index for the scheduler profile.

This object specifies the name for the scheduler profile.

This object specifies the scheduler algorithm associated with the scheduler profile. Enumeration: 'weightedFairQueuing': 2, 'unknown': 0, 'roundRobin': 3, 'strictPriority': 1.

This object indicates the Committed Information Rate (CIR) for the scheduler profile. CIR is the average rate in kbps for which ingressing traffic is considered green. If the traffic flow rate is at or below the CIR, the system will allow the traffic without any change.

This object indicates the Committed Burst Size (CBS) for the scheduler profile. CBS is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain CIR conformant.

This object indicates the Excess Information Rate (EIR) for the scheduler profile. EIR is the average rate in kbps, above CIR, for which ingressing traffic is considered yellow and is allowed.

This object indicates the Excess Burst Size (EBS) for the scheduler profile. EBS is the maximum number of kbytes that can ingress at the maximum interface speed in order to remain EIR conformant.

Scheduled-unicast weight is applicable for the port root scheduler only, and which defines the weight given at the egress port to scheduled-unicast traffic.

Scheduled-multicast weight is applicable for the port root scheduler only, and which defines the weight given at the egress port to scheduled-multicast traffic.

This object specifies the number of tap points for the scheduler.

This object specifies the shaper overspeed in percentage for the (root) scheduler.

This object specifies the cir-policy associated with the scheduler profile. A policy of autoAdjustDisabled means that CIR is configured based on the CIR value in Kbps of this scheduler profile. Additionally, the child schedulers/queues will configure their respective CIRs based on the configured CIR values in the respective child schedulers/queues. A policy of cirAsPercent means that CIR is configured based on the CIR-percent of this scheduler profile/instance, where cir-percent is the percentage of the parent CIR. Additionally, the child schedulers/queues will configure their respective CIRs based on the configured CIR percents in the respective child schedulers/queues relative to the CIR configured in this scheduler profile/instance. A policy of childCirAsPercent means that CIR is configured based on the CIR value in Kbps of this scheduler profile/instance. Additionally, the child schedulers/queues will configure their respective CIRs based on the configured CIR percents in the respective child schedulers/queues relative to the CIR configured in this scheduler profile/instance. A policy of childCirSum means that CIR is configured based on the sum of CIR values in the child schedulers/queues relative to this scheduler/instance. Enumeration: 'childCirSum': 4, 'childCirAsPercent': 3, 'none': 0, 'autoAdjustDisabled': 1, 'cirAsPercent': 2.

This object specifies the eir-policy associated with the scheduler profile. A policy of autoAdjustDisabled means that EIR is configured based on the EIR value in Kbps of this scheduler profile. Additionally, the child schedulers/queues will configure their respective EIRs based on the configured EIR values in the respective child schedulers/queues. A policy of eirAsPercent means that EIR is configured based on the EIR-percent of this scheduler profile/instance, where eir-percent is the percentage of the parent EIR. Additionally, the child schedulers/queues will configure their respective EIRs based on the configured EIR percents in the respective child schedulers/queues relative to the EIR configured in this scheduler profile/instance. A policy of childEirAsPercent means that EIR is configured based on the EIR value in Kbps of this scheduler profile/instance. Additionally, the child schedulers/queues will configure their respective EIRs based on the configured EIR percents in the respective child schedulers/queues relative to the EIR configured in this scheduler profile/instance. Enumeration: 'childEirAsPercent': 3, 'none': 0, 'autoAdjustDisabled': 1, 'eirAsPercent': 2.

This object specifies the cir-percent associated with the scheduler profile. The cir-percent allows for the CIR value on a scheduler instance to be determined as a percentage of the parent scheduler CIR.

This object specifies the eir-percent associated with the scheduler profile. The eir-percent allows for the EIR value on a scheduler instance to be determined as a percentage of the parent scheduler EIR.

Tap point configuration data for a scheduler.

An entry in the tap point configuration table. A scheduler tap point is the connection point on the scheduler between a queue and the parent scheduler.

This object specifies the unique index for the tap point configuration entry.

This object specifies the priority of a tap point relative to other tap points in the scheduler when the scheduler algorithm is 'Strict Priority'.

This object specifies the weight of the tap point in the scheduler when the scheduler algorithm is 'Weighted Fair Queuing'.

Table of scheduler instances.

Each entry represents a scheduler instance.

This object specifies the PGID of the port to which the scheduler resolves.

This object specifies the scheduler profile instance ID.

This object specifies the profile ID of the parent scheduler to which this scheduler is attached.

This object specifies the instance ID of the parent scheduler to which this scheduler is attached.

This object specifies the tap point of the parent scheduler to which this scheduler is attached.

This object specifies the control-plane-used-cir associated with the scheduler instance. It allows validation of dataplane CIR changes relative to control-plane usage

Table of Traffic Classes.

Traffic Class entry in the Traffic Classes table.

This object specifies the Traffic Class Term Type. Enumeration: 'qosFlow': 2, 'named': 8, 'subPort': 1, 'unknown': 0, 'transitPbt': 4, 'servicePbt': 5, 'accessFlow': 3, 'vcMpls': 7, 'tunnelDecapPbt': 6.

This object specifies the traffic class ID to which this Traffic Class Term belongs. A traffic class ID is unique within a traffic class type.

This object specifies the Traffic Class Element ID of the Traffic Class ID to which this Traffic Class Term belongs. A traffic class element ID is unique within a class element ID.

This object specifies the type of term contained in the term value and mask fields. The traffic classification is explained as below with the associated logical interface. unknown trafficClassElement - Traffic class element vid1 - VLAN ID1 - Sub-Port, Qos-Flow, Access-Flow l2Pcp1 - L2 PCP priority - Sub-Port, Qos-Flow, Access-Flow for VLAN Tag1(VID1) vid2 - VLAN ID2 - Sub-Port, Qos-Flow, Access-Flow l2Pcp2 - L2 PCP priority - Sub-Port, Qos-Flow, Access-Flow for VLAN Tag2(VID2) vlanUntaggedData - VLAN untagged data frames - Sub-Port l2Control - VLAN L2 control frames - Sub-Port cMacSa - Customer source MAC address - Sub-Port, Qos-Flow, Access-Flow (with optional mask) cMacDa - Customer destination MAC - Sub-Port, Qos-Flow, Access-Flow (with optional mask) ipSrcIp - IPv4 source address - Sub-Port, Qos-Flow, Access-Flow (with optional mask) ipDstIp - IPv4 destination address - Sub-Port, Qos-Flow, Access-Flow (with optional mask) ipProtoType - IP generic protocol type - Qos-Flow, Access-Flow (like ICMP,IGMP,TCP,UDP) ipDscp - DSCP field of IP frame - Sub-Port, Qos-Flow, Access-Flow (with optional mask) ipL4SrcPort - Layer-4 UDP/TCP source port - Qos-Flow, Access-Flow ipL4DstPort - Layer-4 UDP/TCP destination - Qos-Flow, Access-Flow port mplsVcLabel - MPLS virtual circuit label - vcMPLS mplsVcExp - MPLS virtual circuit exp - vcMPLS mplsTunLabel - MPLS tunnel label - vcMPLS mplsTunExp - MPLS tunnel exp - vcMPLS baseEtype - Base e-type - Sub-Port, Qos-Flow, Access-Flow bvid - B-VID Tag - PBB-TE bPcp - B-VID PCP - PBB-TE isid - ISID - PBB-TE isidPcp - ISID PCP - PBB-TE (with optional mask) any - Any traffic type - QoS Flow ipL4Application - Layer-4 application - Qos-Flow, Access-Flow Enumeration: 'vlanUntaggedData': 6, 'isidPcp': 24, 'l2Control': 7, 'ipDstIp': 11, 'l2Rcos': 26, 'mplsTunLabel': 18, 'any': 25, 'unknown': 0, 'ipProtoType': 12, 'mplsTunExp': 19, 'baseEtype': 20, 'ipL4Application': 27, 'bPcp': 22, 'l2Pcp2': 5, 'cMacSa': 8, 'cMacDa': 9, 'ipDscp': 13, 'trafficClassElement': 1, 'ipSrcIp': 10, 'l2Pcp1': 3, 'ipL4SrcPort': 14, 'ipL4DstPort': 15, 'bvid': 21, 'isid': 23, 'vid2': 4, 'vid1': 2, 'mplsVcLabel': 16, 'mplsVcExp': 17.

This object specifies the Traffic Class Term start value dependent on cienaCesDpTrafficClassTermPresentType.

This object specifies the Traffic Class Term end or mask value dependent on cienaCesDpTrafficClassTermPresentType.

This object specifies the Traffic Class Term MAC address value dependent on cienaCesDpTrafficClassTermPresentType.

This object specifies the Traffic Class Term MAC address Mask value dependent on cienaCesDpTrafficClassTermPresentType.

This object specifies the Traffic Class Term IP address value dependent on cienaCesDpTrafficClassTermPresentType.

This object specifies the Traffic Class Term IP address mask value dependent on cienaCesDpTrafficClassTermPresentType.

Table of sub-ports.

Sub-port entry in the sub-port Table. A sub-port is a logical interface and is always a child object of a logical port.

This object represents a unique index into the table.

This object represents a unique name of the sub-port.

This object represents the classifier precedence relative to other sub-ports sharing the same parent interface.

This object represents the parent port PGID.

This object represents the index of the attached virtual switch.

This object represents the index of the RLAN of the attached virtual switch.

This object represents the name of the attached virtual switch.

This object specifies the ID of the attached ingress meter profile.

This object specifies the name of the attached ingress meter profile.

This object specifies the ingress meter policy. The ingress meter policy has no effect when there is no meter profile attached to this sub-port. - Non-Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will be Metered according to the bandwidth parameters of the attached Meter Profile. The resultant color of the frame is determined by the single meter instance of the logical interface. The frame is processed by a single ingress meter. Resultant Red frames will be dropped. - Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will first be Metered according to the bandwidth parameters of the attached Meter Profile, then subsequently those frames will be Metered according to the bandwidth parameters of the first Parent Logical Interface that has a Meter Profile attached. If no parent logical interface has an attached ingress meter profile, the behavior for frames that classify to the logical interface is the same as the Non-Hierarchical policy. The resultant color of frames which are metered by the attached meter profile are fed into the parent meter. If the resultant color of a frame is Red after being processed by a meter at any hierarchical level, the frame is dropped and not fed into a parent meter.

This object specifies the ID of the attached ingress flood container profile. Flood containment for sub-ports is based on the destination MAC address of the frame.

This object specifies the name of the attached ingress flood container profile.

This object specifies the ID of the attached ingress resolved CoS profile.

This object specifies the name of the attached ingress resolved CoS profile.

This object specifies the ingress resolved CoS policy. Enumeration: 'dot1dToRcosTag2': 4, 'dscpMplsTcToRcos': 6, 'ignore': 1, 'dscpToRcos': 5, 'dot1dToRcosTag1': 3, 'fixed': 2.

This object specifies the ID of the attached ingress frame CoS map.

This object specifies the name of the attached ingress frame CoS map.

This object specifies the ID of the egress frame CoS map.

This object specifies the name of the egress frame CoS map.

This object specifies whether an L2PT transform is performed on L2PT transform eligible frames at egress.

This object specifies sub-port L2 ingress transform policy .

This object specifies sub-port L2 egress transform policy .

This object specifies sub-port L3 ingress transform policy type. Enumeration: 'leave': 1, 'mappedDscp': 2.

This object specifies sub-port L3 egress transform policy type. Enumeration: 'leave': 1, 'mappedDscp': 2.

This object specified the private forwarding group. Enumeration: 'groupA': 1, 'groupC': 3, 'groupB': 2.

This object specifies the access filter policy. Enumeration: 'deny': 2, 'allow': 1.

This object specifies the logical ring index.

This object specifies the virtual ring index.

This object specifies the MAC address of the egress reflector when enabled.

This object specifies the generator MAC address of the egress reflector when enabled.

This object specifies the Queue-Group-Profile-Id portion of a Queue-Group-Instance tuple. The complete tuple is Queue-Group-Profile-Id + Queue-Group-Instance-Id + parent-interface

This object specifies the Queue-Group-Profile-Name for the Queue-Group-Profile-Id portion of a Queue-Group-Instance tuple. The complete tuple is Queue-Group-Profile-Id + Queue-Group-Instance-Id + parent-interface

This object specifies the Queue-Group-Instance-Id portion of a Queue-Group-Instance tuple. The complete tuple is Queue-Group-Profile-Id + Queue-Group-Instance-Id + parent-interface

Table of Virtual Switches. This table is a place holder for future extension where multiple RLANs are supported in a Virtual Switch. Reading this table returns NULL.

Virtual Switch entry in the Virtual Switch Table.

This object specifies a unique index into the table.

This object specifies a unique virtual switch RLAN index to the table. Supporting value of ZERO only at this time.

Table of Virtual Switches RLAN.

Virtual Switch entry in the Virtual Switch RLAN table.

This object specifies a unique name of a Virtual Switch + RLAN.

This object specifies the virtual switch MCAST forwarding mode. -'Default' follows a normal flooding path through the data-plane. In this mode, frames with an L2 DA most-significant-byte equal to 0x01 are treated as all other ucast-flood and broadcast traffic on the virtual switch. -'l2Enhanced' provides increased performance for multicast L2 DAs that have a most-significant-byte equal to 0x01, e.g., 01-??-??-??-??-?? Enumeration: 'default': 1, 'l2Enhanced': 2.

This object specifies the virtual switch L2 control frame tunneling status. When the L2CFT status is disabled, then the Untagged L2CF(L2 Control Frame) is handled using the ingress port's default disposition, while Transparent and L2PT L2CF forms are handled as normal data frames.

This object specifies the RCoS to use for control frames An L2CF that is processed with an L2CFT disposition of forwarding is flooded to all logical-interfaces in the virtual switch/RLAN forwarding-domain, and is subject to the same egress restrictions as normal data frames. A frame that is classified as an Untagged L2CF is forwarded by an L2CFT Instance using the RCoS value specified by this object. The object does not apply to a tagged L2CF frame that is classified as a Transparent or L2PT form of a L2CF. Such frames are given the same internal treatment as data frames that are classified to the same logical-interface.

This object specifies the virtual switch learning mode. Default value of L2 MAC learning is enabled.

This object specifies the virtual switch private forwarding groups status. Default value is disabled. When enabled, group A,B,C policies are enforced. The purpose of Private Forwarding Groups is to provide a set of group-based associations and forwarding rules among interfaces of a virtual switch [and RLAN].

This object specifies the policy for private forwarding group A of the virtual switch + RLAN. This policy is active when private forwardd group status is set to enabled.

This object specifies the policy for private forwarding group B of the virtual switch + RLAN. This policy is active when private forward group status is set to enabled.

This object specifies the policy for private forwarding group C of the virtual switch + RLAN. This policy is active when private forward group status is set to enabled.

This object specifies a description for the virtual switch.

This object specifies a pfg-profile ID associated with a virtual switch.

This object specifies a pfg-profile Name associated with a virtual switch.

This object specifies an l2-cft-profile ID associated with a virtual switch.

This object specifies an l2-cft-profile Name associated with a virtual switch.

This object specifies learn limit count for the virtual switch.

Table of virtual switch interfaces.

Virtual Switch Interface entry in the virtual switch interfaces table.

This object specifies a unique virtual switch index into the table.

This object specifies a unique RLAN index into the table.

This object specifies the resolved ingress port PGID. A value of 0 means that the ingress port PGID is unknown at this time.

This object specifies the resolved egress port PGID. A value of 0 means that the egress port PGID is unknown at this time.

Table of virtual switch Layer 2 Control Frame Tunneling (L2CFT) protocols.

Virtual switch L2CFT protocol entry in the virtual switch L2CFT protocol table. Each virtual switch or RLAN in the system is implicitly associated with an L2CFT instance, whether or not it has been given an explicit L2CFT configuration. Normally, Layer 2 Control Frames(L2CFs) received on a NPU are either sent to the CPU to be handled or discarded. L2CFT modifies this default behavior, so that the L2CFs for certain protocols can be transformed and forwarded as data frames.

This object specifies a unique protocol type index into the table. Enumeration: 'elmi': 20, 'gvrp': 16, 'i8021x': 14, 'ciscoVtp': 5, 'lldp': 13, 'vlanBridge': 8, 'rstp': 9, 'ciscoPvst': 6, 'unknown': 0, 'oam': 12, 'brigeBlock': 17, 'ciscoPagp': 3, 'ciscoUdld': 4, 'ciscoStpUplinkFast': 7, 'ptpPeerDelay': 21, 'allBridgesBlock': 18, 'ciscoCdp': 1, 'gmrp': 15, 'ciscoDtp': 2, 'lacp': 10, 'lacpMarker': 11, 'garpBlock': 19.

This object specifies the virtual switch L2CFT protocol action. There are 2 cases : - When 'cienaCesDpVirtualSwitchRlanL2CftStatus = disabled' or the protocol is not in the Disposition List, then an Untagged L2CF is handled using the ingress logical port's Default Disposition for the protocol, while Transparent and L2PT L2CF forms are handled as normal data frames. - When 'cienaCesDpVirtualSwitchRlanL2CftStatus = enabled' and L2CF protocol is in the Disposition List, the L2CF is either discarded or forwarded depending on the value of this object. An L2CF that is processed with an L2CFT disposition of 'forward' is flooded to all logical-interfaces in the virtual switch/RLAN forwarding-domain, and is subject to the same egress restrictions as normal data frames. Enumeration: 'forward': 1, 'discard': 2.

Table of QoS flows.

QoS flow entry in the QoS flow table. QoS flow is a logical interface and is always a child object of another logical interface. A QoS flow is realized primarily in the ingress direction and is not associated with a virtual switch.

This object specifies a unique index into the table.

This object specifies a unique name of a QoS flow.

This object specifies classifier precedence relative to other QoS flows sharing the same parent interface.

This object specifies the parent interface PGID. This object specifies an existing logical interface ID.

This object specifies the parent interface type. Currently a QoS flow can be associated with sub-port or PBB-TE service type logical interfaces only.

This object specifies the ID of the attached ingress meter profile.

This object specifies the name of the attached ingress meter profile.

This object specifies the ingress meter policy. The ingress meter policy has no effect when there is no meter profile attached to this QoS flow.. - Non-Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will be Metered according to the bandwidth parameters of the attached Meter Profile. The resultant colour of the frame will be determined by the single meter instance of the logical interface. The frame is processed by a single ingress meter. Resultant Red frames are dropped. - Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will first be Metered according to the bandwidth parameters of the attached Meter Profile, then subsequently those frames will be Metered according to the bandwidth parameters of the first parent logical interface (identifie d by the object cienaCesDpQosFlowParentIfType) that has a Meter Profile attached. If no parent logical interface has an attached ingress meter profile, the behavior for frames which classify to the logical interface is the same as the Non-Hierarchical policy. The resultant colour of frames that are metered by the attached meter profile are fed into the parent meter. If the resultant color of a frame is Red after being processed by a meter at any hierarchical level, the frame is dropped and not fed into a parent meter.

This object specifies the ID of the attached ingress Resolved CoS profile. When this objects indicates a 0 , then this QoS-flow does not have any RCoS profile attached to it.

This object specifies the name of the attached ingress Resolved CoS profile.

This object specifies the ingress Resolved CoS policy. When the ingress RCoS policy is fixed, dot1dToRcosTag1, dot1dToRcosTag2 or dscpToRcos , then the RCoS profile attached to the Qos Flow is used. When the ingress RCoS policy is 'ignore' then the parent interface's RCoS profile is used. Enumeration: 'dot1dToRcosTag2': 4, 'dscpMplsTcToRcos': 6, 'ignore': 1, 'dscpToRcos': 5, 'dot1dToRcosTag1': 3, 'fixed': 2.

Table of access flows.

Access flow entry in the access flow table.

This object specifies a unique index into the table.

This object specifies a unique name of the access flow.

This object specifies classifier precedence relative to other access flows sharing the same parent interface.

This object specifies the parent interface PGID. This object must specify an existing logical interface ID.

This object specifies the parent interface type. Currently an access flow can be associated only with a sub-port type logical interface only.

This object specifies the access filter action for the current access flow. l2pt-mac-translation means that a frame which classifies will be allowed and potentially undergo a translation of outer mac to/from L2PT Enumeration: 'deny': 2, 'l2ptmactranslation': 3, 'allow': 1.

Table of PBB-TE transit interfaces.

PBB-TE transit entry in the PBB-TE transit table.

This object specifies a unique index into the table.

This object specifies a unique name of an PBB-TE transit.

This object specifies the parent interface PGID. This object must specify an existing logical port ID.

This object specifies the ID of the attached ingress meter profile. When this object indicates a value of 0, it has no ingress meter profile attached to it.

This object specifies the name of the attached ingress meter profile.

This object specifies the ID of the attached ingress flood container. When this object indicates a value of 0, it has no ingress flood container attached to it.

This object specifies the name of the attached ingress flood container.

This object specifies the ID of the attached ingress Resolved CoS profile. When this object indicates a value of 0, it has no RCoS profile attached to it .

This object specifies the name of the attached ingress Resolved CoS profile.

This object specifies the ingress Resolved CoS policy. Enumeration: 'ignore': 1, 'bvidPcpToRcos': 3, 'fixed': 2.

This object specifies the ID of the attached ingress Frame CoS Map. When this object indicates a value of 0, it has no ingress FCoS Map attached to it .

This object specifies the name of the attached ingress Frame CoS Map.

This object specifies the ID of the egress Frame CoS Map. When this object indicates a value of 0, it has no eggress FCoS Map attached to it .

This object specifies the name of the egress Frame CoS Map.

This object specifies PBB-TE transit BVID ingress transform.

This object specifies PBB-TE transit BVID egress transform.

This object specifies the ID of the attached virtual switch. When this object indicates a value of 0, it has no virtual switch associated with it.

This object specifies the ID of the RLAN of the attached virtual switch. Only the default RLAN of 0 is supported.

This object specifies the name of the attached virtual switch.

This object specifies the private forwarding group. Enumeration: 'groupA': 1, 'groupC': 3, 'groupB': 2.

This object specifies the ingress meter policy. The ingress meter policy has no effect when there is no meter profile attached to this PBB-TE transit . - Non-Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will be Metered according to the bandwidth parameters of the attached Meter Profile. The resultant colour of the frame is determined by the single meter instance of the logical interface. The frame is processed by a single ingress meter. Resultant Red frames are dropped. - Hierarchical: Denotes that frames which classify to the Meter instantiated via an attached Meter Profile will first be Metered according to the bandwidth parameters of the attached Meter Profile, then subsequently those frames will be Metered according to the bandwidth parameters of the first parent logical interface that has a Meter Profile attached. If no parent logical interface has an attached ingress meter profile, the behaviour for frames that classify to the logical interface is the same as the Non-Hierarchical policy. The resultant color of frames that are metered by the attached meter profile are fed into the parent meter. If the resultant colour of a frame is Red after being processed by a meter at any hierarchical level, the frame is dropped and not fed into a parent meter.

CPU sub-interface table.

CPU sub-interface entry.

This object specifies the logical ID for the CPU sub-interface.

This object specifies the CPU sub-interface name.

This object specifies the egress L2 transform for this CPU sub-interface. Format: push-ethtype.vid.pcp

This object specifies ingress L2 transform for this CPU sub-interface.

This object specifies the egress L3 transform policy type for this CPU sub-interface. Enumeration: 'leave': 1, 'mappedDscp': 2.

This object specifies the egress RCoS policy for this CPU sub-interface. Enumeration: 'none': 99, 'fixed-cos': 1.

This object specifies the egress RCoS profile index for this CPU sub-interface.

This object specifies the egress RCoS profile name for this CPU sub-interface.

This object specifies the index of the virtual switch associated with this CPU sub-interface.

This object specifies the RLAN index of the virtual switch associated with this CPU sub-interface.

This object specifies the name of the virtual switch associated with this CPU sub-interface.

Table of pfg profiles.

Private Forwarding Group Profile entry in the private forwarding group profile table.

This object specifies a unique index into the table.

This object specifies a unique name for the pfg profile.

This object specifies the policy for private forwarding group A of the Private Forwarding Group profile. This policy is active when private forward group status is set to enabled.

This object specifies the policy for private forwarding group B of the Private Forwarding Group profile. This policy is active when private forward group status is set to enabled.

This object specifies the policy for private forwarding group C of the Private Forwarding Group profile. This policy is active when private forward group status is set to enabled.

Table of l2-cft profiles.

Layer 2 Control Frame Tunnelling Profile entry in the private forwarding group profile table.

This object specifies a unique index into the table.

This object specifies a unique name for the l2-cft profile.

This object specifies the RCoS to use for control frames An L2CF that is processed with an L2CFT disposition of forwarding is flooded to all logical-interfaces in the virtual switch/RLAN forwarding-domain, and is subject to the same egress restrictions as normal data frames. A frame that is classified as an Untagged L2CF is forwarded by an L2CFT Instance using the RCoS value specified by this object. The object does not apply to a tagged L2CF frame that is classified as a Transparent or L2PT form of a L2CF. Such frames are given the same internal treatment as data frames that are classified to the same logical-interface.

Table of L2-Cft profile Layer 2 Control Frame Tunneling (L2CFT) protocols.

L2 CFT Profile L2CFT protocol entry in the L2 CFT Profile L2CFT protocol table. Each virtual switch or RLAN in the system is implicitly associated with an L2CFT instance, whether or not it has been given an explicit L2CFT configuration. Normally, Layer 2 Control Frames(L2CFs) received in hardware are either sent to the CPU to be handled or discarded. L2CFT modifies this default behavior, so that the L2CFs for certain protocols can be transformed and forwarded as data frames.

This object specifies a unique protocol type index into the table. Enumeration: 'gvrp': 16, 'esmc': 18, 'i8021x': 14, 'ciscoVtp': 5, 'lldp': 13, 'vlanBridge': 8, 'rstp': 9, 'ciscoPvst': 6, 'unknown': 0, 'oam': 12, 'brigeBlock': 21, 'ciscoPagp': 3, 'ciscoUdld': 4, 'ciscoStpUplinkFast': 7, 'allBridgesBlock': 22, 'ciscoCdp': 1, 'gmrp': 15, 'ciscoDtp': 2, 'lacp': 10, 'isis': 17, 'lacpMarker': 11, 'garpBlock': 23, 'bridgeReserved0C0D': 19, 'bridgeReserved0B0F': 20.

This object specifies the L2CFT Profile L2CFT protocol action. There are 2 cases : - When 'cienaCesDpVirtualSwitchRlanL2CftStatus = disabled' or the protocol is not in the Disposition List, then an Untagged L2CF is handled using the ingress logical port's Default Disposition for the protocol, while Transparent and L2PT L2CF forms are handled as normal data frames. - When 'cienaCesDpVirtualSwitchRlanL2CftStatus = enabled' and L2CF protocol is in the Disposition List, the L2CF is either discarded or forwarded depending on the value of this object. An L2CF that is processed with an L2CFT disposition of 'forward' is flooded to all logical-interfaces in the virtual switch/RLAN forwarding-domain, and is subject to the same egress restrictions as normal data frames. Enumeration: 'forward': 1, 'discard': 2.

A cienaCesDpTsMeterFloodContainerUcastThresholdExceeded is sent when for a given container profile, the number of unknown unicast packets received becomes greater than or equal to the configuration packet limit, and the value of unknown unicast packet received at the last sampling interval was less than the configuration packet limit. To enable the device to send this notificatio, cienaCesDataplaneUcastTrapState needs to be set to enabled. The cienaCesDataplaneUcastTrapState is set to enabled by default. Variable bindings include cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerUcastThresholdNormal is sent when for a given container profile, the total number of unknown unicast packet received becomes less than the configured packet limit, and the value of unknown unicast packets received at the last sampling interval was greater than or equal to the configured packet limit. To enable the device to send this notification, cienaCesDataplaneUcastTrapState needs to be set to enabled. The cienaCesDataplaneUcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerBcastThresholdExceeded is sent when for a given container profile, the number of broadcast packets received becomes greater than or equal to the configured packet limit, and the value of broadcast packets received at the last sampling interval is less than the configured packet limit. To enable the device to send this notification, cienaCesDataplaneBcastTrapState needs to be set to enabled. The cienaCesDataplaneBcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerBcastThresholdNormal is sent when for a given container profile, the total number of broadcast packets received becomes less than the configured packet limit, and the value of broadcast packets received at the last sampling interval is greater than or equal to the configured packet limit. To enable the device to send this notification, cienaCesDataplaneBcastTrapState needs to be set to enabled. The cienaCesDataplaneBcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerL2McastThresholdExceeded is sent when for a given container profile, the number of L2 multicast packets received becomes greater than or equal to the configured packet limit, and the value of L2 multicast packets received at the last sampling interval is less than the configured packet limit. To enable the device to send this notification, cienaCesDataplaneMcastTrapState needs to be set to enabled. The cienaCesDataplaneMcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerL2McastThresholdNormal is sent when for a given container profile, the total number of L2 multicast packets received becomes less than the configured packet limit, and the value of L2 multicast packets received at the last sampling interval is greater than or equal to the configured packet limit. To enable the device to send this notification ,cienaCesDataplaneMcastTrapState needs to be set to enabled. The cienaCesDataplaneMcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDataplaneEgressReflectorEnabled is sent when the egress reflector feature is enabled for the given sub-port.

A cienaCesDataplaneEgressReflectorDisabled is sent when the egress reflector feature is disabled for the given sub-port.

A cienaCesDpPortShapingSubscriptionExceedsOperSpeed is sent when when ports operational speed becomes lesser than port scheduler cir value. To enable the device to send this notification, cienaCesDataplanePortShapingSubscriptionTrapState needs to be set to enabled. The cienaCesDataplanePortShapingSubscriptionTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesPortPgIdMappingNotifChassisIndex, cienaCesPortPgIdMappingNotifShelfIndex, cienaCesPortPgIdMappingNotifSlotIndex cienaCesPortPgIdMappingNotifPortNumber and cienaCesLogicalPortConfigPortName

A cienaCesDpPortShapingSubscriptionWithinOperSpeed is sent when ports operational speed becomes equal or greater than port scheduler cir value. To enable the device to send this notification, cienaCesDataplanePortShapingSubscriptionTrapState needs to be set to enabled. The cienaCesDataplanePortShapingSubscriptionTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesPortPgIdMappingNotifChassisIndex, cienaCesPortPgIdMappingNotifShelfIndex, cienaCesPortPgIdMappingNotifSlotIndex cienaCesPortPgIdMappingNotifPortNumber and cienaCesLogicalPortConfigPortName

A cienaCesDpTsMeterFloodContainerTotalThresholdExceeded is sent when for a given container profile, the total number of packets received becomes greater than or equal to the aggregate of all packet limits configured for the container profile, and the value of received packets at the last sampling interval is less than the aggregate of configured packet limits. To enable the device to send this notification, cienaCesDataplaneXcastTrapState needs to be set to enabled. The cienaCesDataplaneXcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.

A cienaCesDpTsMeterFloodContainerTotalThresholdNormal is sent when for a given container profile, the total number of packets received becomes less than the aggregate of all packet limits configured for the container profile, and the value of received packets at the last sampling interval is greater than or equal to the aggregate of configured packet limits. To enable the device to send this notification ,cienaCesDataplaneXcastTrapState needs to be set to enabled. The cienaCesDataplaneXcastTrapState is set to enabled by default. Variable bindings include: cienaGlobalSeverity, cienaGlobalMacAddress, cienaCesDpTsMeterFloodContainerNotifProfileIndex, cienaCesDpTsMeterFloodContainerNotifAttachmentLiType, cienaCesDpTsMeterFloodContainerNotifAttachmentLiIndex, cienaCesDpTsMeterFloodContainerProfileName, and cienaCesDpTsMeterFloodContainerAttachmentInterfaceName.