rtgRsIndex |
.1.3.6.1.4.1.562.2.4.1.40.2.1.1.10 |
This variable represents the index for the rtgRs tables.
|
rtgRsRowStatus |
.1.3.6.1.4.1.562.2.4.1.40.2.1.1.1 |
This variable is used as the basis for SNMP naming of
rtgRs components.
These components cannot be added nor deleted.
|
rtgRsComponentName |
.1.3.6.1.4.1.562.2.4.1.40.2.1.1.2 |
This variable provides the component's string name for
use with the ASCII Console Interface
|
rtgRsStorageType |
.1.3.6.1.4.1.562.2.4.1.40.2.1.1.4 |
This variable represents the storage type value for the
rtgRs tables.
|
rtgRsRouteCostMetric |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.1 |
This attribute indicates the sum of cost metrics of trunks that make
up the selected route returned by RouteSelector. If the cost metrics
at both ends of a trunk differ, the larger metric is used for that trunk.
If a route could not be selected for whatever reason then the
routeCostMetric is set to a value 999999 intended to symbolize
unknown cost. For manual routes the value of routeCostMetric is
also 999999. This is because RouteSelector does not verify manual
routes thus routeCostMetric is unknown.
|
rtgRsRouteDelayMetric |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.2 |
This attribute indicates the sum of delay metrics of trunks that make
up the selected route returned by RouteSelector. The delay metric of
a trunk is equal to half the measuredRoundTripDelay operational
attribute of the trunk. If the delay metrics at both ends of a trunk
differ, the larger metric is used for that trunk. If a route could not be
selected for whatever reason then the routeDelayMetric is set to a
value 999999 intended to symbolize unknown delay. For manual
routes the value of routeDelayMetric is also 999999. This is
because RouteSelector does not verify manual routes, thus
routeDelayMetric is unknown.
|
rtgRsBumpingPriority |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.3 |
This attribute indicates the priority at which a route has been
selected, or a value of 4 for manual routes since no route selection
was made. Since RouteSelector does not verify manual routes the
value of 4 for routeBumpingPriority symbolizes an unknown value
for manual routes. The remainder of the description is not
applicable to manual routes.
The bumping priority of a route specifies a priority at which a path
along that route can be established. The lowest bumping priority is
4, the highest bumping priority is equal to a setup priority contained
in the route request data. If a route is selected at bumping priority 4,
then no paths will be bumped since there appears to be enough free
bandwidth on selected trunks, and also since this bumping priority
is not better than the lowest holding priority (4) of any path.
If a route cannot be selected at bumping priority 4 and a setup
priority is 3 or better, then a route may be selected at bumping
priority 3. This means that paths at holding priority 4 may be
bumped if currently there is not enough free bandwidth on selected
trunks to establish the new path with setup priority 3.
If a route cannot be selected at bumping priority 3 and a setup
priority is 2 or better, then a route may be selected at bumping
priority 2. In this case paths with holding priority 4 and 3 may be
bumped if there is not enough free bandwidth on selected trunks to
establish the new path with setup priority 2.
If a route cannot be selected at bumping priority 2 and a setup
priority is 1 or better, then a route may be selected at bumping
priority 1. In this case paths with holding priority 4, 3, and 2 may be
bumped if there is not enough free bandwidth on selected trunks to
establish the new path with setup priority 1.
If a route cannot be selected at bumping priority 1 and a setup
priority is 0, then a route may be selected at bumping priority 0. In
this case paths with holding priority 4, 3, 2, and 1 may be bumped if
there is not enough free bandwidth on selected trunks to establish
the new path with setup priority 0.
|
rtgRsReasonForNoRoute |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.4 |
This attribute indicates the reason for which a route was not
selected by RouteSelector.
If the route was selected then reasonForNoRoute has a value of
none.
If the destination in the form of ASCII name was specified (see
destination) and the name of node is too long (more than 12
characters) then reasonForNoRoute has a value of
destinationNameTooLong. Check and correct node name in the
destination attribute.
If the destination was not specified, that is destination is blank, then
reasonForNoRoute has a value of destinationNotSpecified.
Destination attribute should not be blank.
If the destination in the form of ASCII name was specified (see
destination) and the name of node cannot be found in topological
database then reasonForNoRoute has a value of
unknownDestinationName. Check and correct node name in the
destination attribute. If it is correct then this node does not appear in
local topological database as this node may lie across the topology
region or cluster boundary.
If the destination cannot be found in the topological database or
cannot be reached through any gateway node then
reasonForNoRoute has a value of unknownDestination. Ensure the
destination specified in destination attribute resides in the topology
region, or can be reached through a Routing Gateway. That is, at
least one reachable address provisioned under a Trunk Address
component representing a gateway link can reach the destination
NSAP address.
If the destination was specified using an incorrect format (see
destination) then reasonForNoRoute has a value of
incorrectDestination. Use the correct format for destination
attribute.
If there is no physical connectivity to the destination or gateway
node, or number of hops to such node exceeds a limit of 20 hops, or
a route to such node cannot satisfy all the parameters in the route
request data then reasonForNoRoute has a value of
attributeNotMet. Set operationMode to manual and issue d rtg rs
command and inspect attributeNotMet to determine which attribute
could not be satisfied.
If the route to the destination could not be selected for some internal
reason then reasonForNoRoute has a value of internalReason. A
Software Alarm generated in association with this situation should
be reported to Nortel Networks technical support.
If the route to the destination could not be selected because of
profile reference problem then reasonForNoRoute has a value of
attributeProfileProblem.
If the route to the destination could not be selected because of
manual path reference problem then reasonForNoRoute has a value
of manualPathIndexProblem.
The following values of reasonForNoRoute are no longer
generated: routeCostTooMuch, routeDelayTooMuch,
incorrectDestinationEndPoint, and sameNode.
|
rtgRsAttributeNotMet |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.5 |
This attribute indicates the name of a possible route request data
parameter which prevents RouteSelector from selecting the route.
This attribute always has a value of allAttributesMet for manual
routes since RouteSelector does not verify manual routes. This
attribute has a meaningful value if reasonForNoRoute attribute has
a value of attributesNotMet. The value of attributeNotMet is only
computed when RouteSelector operates in manual mode. That is,
when route selection has been initiated by the operator in which
case operationMode has a value of manual.
RouteSelector determines which of the attributes:
requiredRxBandwidth, requiredTxBandwidth, requiredTrunkModes,
maximumAcceptableCost, maximumAcceptableDelay,
maximumAcceptableGatewaCost, requiredTrafficType,
permittedTrunkTypes, requiredSecurity,
requiredCustomerParameter, and maximumTransmissionUnit
prevents successful route selection by dropping the constraints
associated with that attribute and reselecting the route. If that route
can be successfully selected then the attribute for which the
constraints were dropped is the attribute preventing successful route
selection.
For example, RouteSelector drops bandwidth constraints by
selecting a route with requiredRxBandwidth or
requiredTxBandwidth of 0. If the route can be selected then
bandwidth is preventing successful route selection.
A value of unknownAttributeNotMet indicates that RouteSelector
cannot determine why route cannot be selected. Constraints for all
attributes are dropped yet successful route cannot be computed.
This usually indicates a lack physical connectivity to the destination
or gateway node. Alternatively, this may indicate that destination or
gateway node is more than 20 hops away where 20 hops is the
maximum number of hops in the route.
|
rtgRsRouteGatewayCostMetric |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.6 |
This attribute indicates the cost metric associated with reaching the
destination indirectly through a gateway node or gateway link that
is part of the selected route If the selected route leads directly to the
destination node then the routeGatewayCostMetric is set to a value
0. If a route could not be selected for whatever reason then the
routeGatewayCostMetric is set to a value 999999 intended to
symbolize unknown cost. For manual routes the value of
routeGatewayCostMetric is also 999999. This is because
RouteSelector does not verify manual routes thus
routeGatewayCostMetric is unknown.
|
rtgRsRouteType |
.1.3.6.1.4.1.562.2.4.1.40.2.10.1.8 |
This attribute indicates the type of route that was selected by
RouteSelector.
If no route was selected then routeType has a value of noRoute.
If the destination resides on the current node then routeType has a
value of sameNode.
If the destination resides on a different node and can be reached
directly as opposed to indirectly through a gateway node then
routeType has a value of destinationNode or
destinationNodeLegacy with the latter only possible when legacy
gateway selection algorithm was used (see
gatewaySelectionAlgorithm).
If the destination can be reached indirectly through a gateway node
with the gateway node being different from the current node then
routeType has a value of gatewayNode or gatewayLink depending
on whether or not the route consists of a single gateway link. A
route consists of a single gateway link only when the route
requestor (see routeRequestor) is a Routing Gateway (in inbound or
outbound direction) and the route leads immediately across
topology region or cluster boundary.
If the destination can be reached indirectly through a gateway node
with the gateway node being the current node and the route
requestor (see routeRequestor) is an application service as opposed
to a Routing Gateway then routeType has a value of
routingGateway.
If selected route is a manual route then routeType has a value of
manual.
Note that the type of route, except for manual route, depends on
who is the route requestor (application service, Routing Gateway
serving as inbound or outbound gateway), where it resides (gateway
or non-gateway node), how the destination can be reached (directly
or indirectly through a gateway node), and what is the gateway
selection algorithm (cost-based, random or legacy).
|
rtgRsRouteSelectionAttributes |
.1.3.6.1.4.1.562.2.4.1.40.2.11.1.1 |
This attribute acts as a 2-position switch, allowing an operator to
specify whether the route selection attributes kept by the
RouteSelector should be as he/she set them:
routeSelectionAttributes = fromOperator,
or the route selection attributes could be updated automatically to
contain the route selection attributes of the last automatic route
request:
routeSelectionAttributes = fromLastRouteRequest.
|
rtgRsOperationMode |
.1.3.6.1.4.1.562.2.4.1.40.2.11.1.2 |
This attribute indicates the mode in which the RouteSelector is
currently operating. The two possible modes are automatic and
manual.
In the automatic mode, a route request message containing the route
request data is originated by a PORS VC and sent to the
RouteSelector. RouteSelector then selects a route or gets a manual
route and returns its description in the selected route description
data in the selected route message back to the PORS VC.
In the manual mode, the RouteSelector allows the operator to
modify the parameters in the route request data (except for the
manual path profile reference), and to initiate route selection using
that data. When RouteSelector selects the route it displays its
description to the operator.
Note that even when operationMode is set to manual,
RouteSelector handles route request messages originated by
services' VCs in the same way as it does when operationMode is
set to automatic.
|
rtgRsLastRouteSelectionTime |
.1.3.6.1.4.1.562.2.4.1.40.2.11.1.3 |
This attribute indicates the time when RouteSelector last handled a
route request message.
|
rtgRsSourceId |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.1 |
This attribute indicates the node ID of the source node from which a
route to the destination is to be found. It is typically the current
node. The term 'source' is used in relation to the route selection
process and not the node where RouteSelector resides, that is the
current node. That is, the source node need not be the current node
although the selected route will be based on the topological
database of the current node.
|
rtgRsRemoteName |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.2 |
This attribute is the remote end point's description. The term
'remote' means the other end point, usually distant from the source
node. End points are identified using a node name and a service
name. The syntax is 'EM/NodeName <service name>/<instance>'.
As an example, the end point component name for the third voice
service on node MoonBase is 'EM/MoonBase VS/3'.
|
rtgRsSetupPriority |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.3 |
This attribute indicates the required priority for path establishment
along the selected. Zero is the highest priority and four is the
lowest. This attribute is closely related to bumpingPriority attribute.
|
rtgRsRequiredTxBandwidth |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.4 |
This attribute indicates the required transmit bandwidth in bits per
second to send data to the destination.
|
rtgRsRequiredRxBandwidth |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.5 |
This attribute indicates the required receive bandwidth in bits per
second to receive data from the destination.
|
rtgRsMaximumTransmissionUnit |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.6 |
This attribute indicates the size of the largest packet that can be
transported along the selected route. It is used by RouteSelector to
select a route which avoids trunks whose maximum transmission
unit is less than maximumTransmissionUnit and as a result would
be unable to transport packets of this size. The default value of 0
permits all trunks to be eligible with respect to this attribute.
|
rtgRsSecurity |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.7 |
This attribute indicates the required minimum level of security of
the trunks along the selected route. Zero represents the most secure
and seven represents the least secure. The trunk's security is
indicated by the trunkSecurity attribute of the Trunk
PathAdministrator (Trk Pa) component. RouteSelector ensures that
any route selected does not contain a trunk whose trunkSecurity
attribute is numerically greater than the requiredSecurity.
|
rtgRsTrafficType |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.8 |
This attribute indicates the required type of traffic that can be
transported along the selected route. There are eight possible traffic
types, and only one type can be transported. The voice, data, and
video traffic types are already defined, and five other traffic types
can be defined by the network administrator. The
supportedTrafficType attribute of the Trunk PathAdministrator (Trk
Pa) component lists all the types of traffic allowed on the trunk.
When selecting a route, RouteSelector only chooses trunks whose
supportedTrafficType contains the requiredTrafficType.
|
rtgRsPermittedTrunkTypes |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.9 |
This attribute indicates a maximum of eight types of trunks that can
be part of the selected route. The terrestrial and satellite trunk types
have been defined already, leaving six remaining types that can be
defined by the network administrator. The trunkType attribute of the
Trunk PathAdministrator (Trk Pa) component specifies the type of
the trunk. When selecting a route, RouteSelector only chooses
trunks whose trunkType is one of the permittedTrunkTypes.
Description of bits:
terrestrial(0)
satellite(1)
trunkType1(2)
trunkType2(3)
trunkType3(4)
trunkType4(5)
trunkType5(6)
trunkType6(7)
|
rtgRsCustomerParameter |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.10 |
This attribute indicates the mechanism to customize the usage of
trunks. Any trunk, whose customerParameter attribute under the
Trunk PathAdministrator (Trk Pa) component is larger than the
requiredCustomerParameter is not eligible to become part of the
selected route.
|
rtgRsPathAttributeToMinimize |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.11 |
This attribute indicates whether a route should be selected on the
basis of minimizing the route cost or the route delay. Each trunk has
a cost and a delay metric associated with it. The cost of a route is
the sum of the trunk cost metrics for all trunks included in the route.
The delay of a route is the sum of the trunk delay metrics for all
trunks included in the route. The delay metric of a trunk is equal to
half the measuredRoundTripDelay operational attribute of the
trunk.
|
rtgRsMaximumAcceptableCost |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.12 |
This attribute indicates the upper bound on the cost metric of the
selected route, which is the sum of the cost metrics of all trunks on
the route. RouteSelector ensures the cost metric of the selected route
does not exceed the maximumAcceptableCost.
|
rtgRsMaximumAcceptableDelay |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.13 |
This attribute indicates the upper bound on the delay metric of the
selected route, which is the sum of the delay metrics of all trunks on
the route. RouteSelector ensures the delay metric of the selected
route does not exceed the maximumAcceptableDelay. The delay
metric of a trunk is equal to half the measuredRoundTripDelay
operational attribute of the trunk.
|
rtgRsBumpPreference |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.14 |
This attribute indicates whether bumping may be considered when
selecting a route. By default, bumping may be considered only
when it is necessary. That is, only when no other route to the
destination or gateway node can be found An indication to always
bump in order to find the best route may be set. In this case an
absolutely best route to the destination or gateway node is found
even if other paths along that route would need bumping.
|
rtgRsRequiredTrunkModes |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.15 |
This attribute indicates which trunk modes to consider during route
selection. The operational mode attribute of the Trunk
PathAdministrator (Trk Pa) component specifies the mode of the
trunk. When selecting a route, RouteSelector can either consider
trunks with any mode, or only trunks with mode set to mapping.
That is, the selected route may contain trunks with any mode, or all
trunks with mode set to mapping.
|
rtgRsMaximumAcceptableGatewayCost |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.16 |
This attribute indicates the upper bound on the cost metric
associated with reaching the destination along the selected route and
through a gateway node. Such cost metrics are provisioned under
Trunk Address component on a gateway node specifying costs of
reaching an address through the gateway node and more accurately
through the gateway link represented by the Trunk component.
|
rtgRsRouteRequestor |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.17 |
This attribute indicates the type of entity that makes a request for a
route (route requestor). Three types of entities can make route
requests: application service, Routing Gateway serving as inbound
gateway at a gateway node, or Routing Gateway serving as
outbound gateway at a gateway node.
|
rtgRsGatewaySelectionAlg |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.18 |
This attribute indicates the type of algorithm to use when a route to
the destination has to be selected indirectly through a gateway node.
The following types of algorithms are available: cost based,
random, and legacy.
For cost based algorithm, RouteSelector selects gateway node that
advertised it can reach the destination at the smallest cost.
For random algorithm, RouteSelector selects randomly any gateway
node that advertised it can reach the destination.
For legacy algorithm, RouteSelector selects a complete route to the
destination without attempting to route through gateway nodes. This
is only possible during single to multi topology region migration, or
cluster migration but before such migration is complete. During
such migrations routing to the destination is initially attempted
through gateway nodes, but if such routing fails then legacy routing
is attempted.
|
rtgRsDestination |
.1.3.6.1.4.1.562.2.4.1.40.2.12.1.20 |
This attribute indicates either the ASCII name, node ID, or NSAP
address of the destination node to which a route needs to be found.
The format for destination is either
1. 'EM/nodeName serviceName/instance', for ASCII name, for
example 'EM/MoonBase VS/3', or
2. 'NID/nodeId', for node ID, for example 'NID/1226', or
3. 'NSAP/nsapAddress', for NSAP address, for example
'NSAP/12234001'.
For NSAP address formats a full ATM End System Address, node
summary, or reachable address can be specified, as well as a node
prefix.
|
rtgRsSrdIndex |
.1.3.6.1.4.1.562.2.4.1.40.2.224.1.1 |
This variable represents the rtgRsSrdTable
specific index for the rtgRsSrdTable.
|
rtgRsSrdValue |
.1.3.6.1.4.1.562.2.4.1.40.2.224.1.2 |
This variable represents an individual value for the
rtgRsSrdTable.
|
rtgRsRouteStatisticsSetupPriorityIndex |
.1.3.6.1.4.1.562.2.4.1.40.2.225.1.1 |
This variable represents the next to last index for the
rtgRsRouteStatisticsTable.
|
rtgRsRouteStatisticsStatisticsTableIndex |
.1.3.6.1.4.1.562.2.4.1.40.2.225.1.2 |
This variable represents the final index for the
rtgRsRouteStatisticsTable.
|
rtgRsRouteStatisticsValue |
.1.3.6.1.4.1.562.2.4.1.40.2.225.1.3 |
This variable represents an individual value for the
rtgRsRouteStatisticsTable.
|
rtgRsDgnValue |
.1.3.6.1.4.1.562.2.4.1.40.2.650.1.1 |
This variable represents both the value and the index for the
rtgRsDgnTable.
|
rtgPorsIndex |
.1.3.6.1.4.1.562.2.4.1.40.6.1.1.10 |
This variable represents the index for the rtgPors tables.
|
rtgPorsRowStatus |
.1.3.6.1.4.1.562.2.4.1.40.6.1.1.1 |
This variable is used as the basis for SNMP naming of
rtgPors components.
These components can be added and deleted.
|
rtgPorsComponentName |
.1.3.6.1.4.1.562.2.4.1.40.6.1.1.2 |
This variable provides the component's string name for
use with the ASCII Console Interface
|
rtgPorsStorageType |
.1.3.6.1.4.1.562.2.4.1.40.6.1.1.4 |
This variable represents the storage type value for the
rtgPors tables.
|
rtgPorsOptimizationInterval |
.1.3.6.1.4.1.562.2.4.1.40.6.10.1.1 |
This attribute defines the interval at which the optimization process
will be triggered. The time is defined from the end of one
optimization pass until the start of another optimization pass.
If an interval of zero is specified periodic optimization is disabled
on this module.
|
rtgPorsActiveConnections |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.1 |
This attribute is the current number of active PORS connections on
this module. Active connections are connections that are in the
Logical Connection component pathUp state.
This value is updated when requested and represents the current
number of active PORS connections. During PORS optimization
this number represents all the connections that receive optimization
requests.
|
rtgPorsOptimizationState |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.2 |
This attribute is the current state of the PORS optimization. The
disabled state means that the optimizationInterval has been set to
zero. The scheduled state means that the optimization will be
started at the nextOptimizationTime. The optimizing state means
that PORS is currently attempting to optimize all connections on the
module.
|
rtgPorsLastOptimizationTime |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.3 |
This attribute specifies the time that the last optimization started.
|
rtgPorsNextOptimizationTime |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.4 |
This attribute specifies the time the next optimization process will
begin.
In the event that optimizationInterval is set to zero this value is also
set to 0.
|
rtgPorsOptimizationPasses |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.5 |
This is the number of optimization passes for the PORS connection
manager. An optimization pass consists of a notification to each
active PORS connection to attempt to optimize.
All types of optimization passes are included in this statistic.
|
rtgPorsOptimizationProgress |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.6 |
This attribute is the percentage of active connections that have been
sent an optimization request. A message is sent to each PORS
component LC requesting it to optimize its route.
This value is cleared at the beginning of each optimization pass.
|
rtgPorsPathsOptimized |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.7 |
This attribute is the number of successfully optimized paths for the
latest optimization pass. Successfully optimized paths are paths that
switched to a better route.
This value is cleared at the beginning of each optimization pass.
|
rtgPorsTotalPathsOptimized |
.1.3.6.1.4.1.562.2.4.1.40.6.11.1.8 |
This attribute is the number of successfully optimized paths on this
module since the CP became active.
|
rtgPorsProfIndex |
.1.3.6.1.4.1.562.2.4.1.40.6.7.1.1.10 |
This variable represents the index for the rtgPorsProf tables.
|
rtgPorsProfRowStatus |
.1.3.6.1.4.1.562.2.4.1.40.6.7.1.1.1 |
This variable is used as the basis for SNMP naming of
rtgPorsProf components.
These components can be added and deleted.
|
rtgPorsProfComponentName |
.1.3.6.1.4.1.562.2.4.1.40.6.7.1.1.2 |
This variable provides the component's string name for
use with the ASCII Console Interface
|
rtgPorsProfStorageType |
.1.3.6.1.4.1.562.2.4.1.40.6.7.1.1.4 |
This variable represents the storage type value for the
rtgPorsProf tables.
|
rtgPorsProfSetupPriority |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.3 |
This attribute specifies the priority at which a path is established.
Zero is the highest priority and four is the lowest. When PORS
establishes a path through the network, it uses the setupPriority
attribute to determine its potential for bumping established paths to
acquire their bandwidth. The holdingPriority, a complementary
attribute of this attribute, specifies the priority a path maintains once
it is established. A new path can bump an existing path if the new
path's setupPriority is higher (numerically less) than the existing
path's holdingPriority.
|
rtgPorsProfHoldingPriority |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.4 |
This attribute specifies the priority that a path holds once it is
established. Zero is the highest priority and four is the lowest. A
path's holdingPriority determines this path's likelihood of being
bumped by a new path to acquire its bandwidth. The setupPriority, a
complementary attribute, indicates the priority of a path at
establishment time. A new path can bump an existing path if the
new path's setupPriority is higher (numerically less) than the
existing path's holdingPriority.
|
rtgPorsProfRequiredTxBandwidth |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.5 |
This attribute specifies the bandwidth (in bits per second) reserved
by a path on each of the trunks of its route.This attribute represents
the bandwidth for traffic outgoing to the remote end point. This
value should be chosen to achieve the amount of statistical
bandwidth sharing that is desired by the network administration.
This reservation is not enforced but is used to determine how many
paths can be supported on a trunk. Both ends should be provisioned
with the correct values allowing for the fact that transmit at this end
represents receive at the remote end. Note that when the values do
not correspond, the originating end of the connection determines the
value. A value of 0 (the default) means that the bandwidth will be
the Peak Cell Rate for CLP0+1 as chosen by the user. A non zero
value overrides this reservation.
|
rtgPorsProfRequiredRxBandwidth |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.6 |
This attribute specifies the bandwidth (in bits per second) reserved
by a path on each of trunks of its route. This attribute represents the
bandwidth for traffic incoming from the remote end point. This
value should be chosen to achieve the amount of statistical
bandwidth sharing that is desired by the network administration.
This reservation is not enforced but is used to determine how many
paths can be supported on a trunk. Both ends should be provisioned
with the correct values allowing for the fact that transmit at this end
represents receive at the remote end. Note that when the values do
not correspond, the originating end of the connection determines the
value. A value of 0 (the default) means that the bandwidth will be
the Peak Cell Rate for CLP0+1 as chosen by the user. A non zero
value overrides this reservation.
|
rtgPorsProfRequiredTrafficType |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.7 |
This attribute specifies the type of traffic transmitted over the path.
There are eight possible traffic types, and the path can transmit only
one of them. The originating end of the connection determines the
type. The voice, data and video traffic types are defined, and five
other arbitrary traffic types can be defined by the network
administration. This attribute is used in the route selection process
to restrict the route to trunks that support this traffic type. The
supportedTrafficType trunk attribute lists all the types of traffic
allowed on the trunk. For example, if requiredTrafficType is
specified as trafficType1, then only trunks that include trafficType1
in supportedTrafficType will be candidates for this connection.
|
rtgPorsProfPermittedTrunkTypes |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.8 |
This attribute specifies up to eight types of trunk that can be used on
the route. The terrestrial and satellite trunk types have been
defined, leaving six remaining arbitrary types that can be defined by
the network administration. The trunk's type is indicated in the
trunkType attribute of the Trunk component. When selecting a
route, PORS only chooses trunks whose trunkType are in the
permittedTrunkTypes for the path.
Description of bits:
terrestrial(0)
satellite(1)
trunkType1(2)
trunkType2(3)
trunkType3(4)
trunkType4(5)
trunkType5(6)
trunkType6(7)
|
rtgPorsProfRequiredSecurity |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.9 |
This attribute specifies the required minimum level of security of
the trunks on the route. A value of zero represents the most secure
while seven represents the least secure. The trunk's security is
indicated by the trunkSecurity attribute of the Trunk component,
and has values identical in range and meaning to the
requiredSecurity attribute. PORS ensures that any route selected
does not contain a trunk whose trunkSecurity attribute is
numerically greater than the requiredSecurity.
|
rtgPorsProfRequiredCustomerParm |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.10 |
This attribute specifies the allowed customer defined parameter of
the trunks on the route. Its value, a number from zero to seven, is
chosen by network administration to have a meaning specific to
their network, thus allowing them to customize the use of their
trunks. A complementary trunk attribute, customerParameter, also
has a value from zero to seven. The route selection process does not
consider trunks whose customerParameter is greater than the
requiredCustomerParameter of the path.
|
rtgPorsProfPathAttributeToMinimize |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.11 |
This attribute specifies whether a route is selected on the basis of
minimizing the cost or the delay. Each trunk has a cost and a delay
metric associated with it. The cost of a selected route is the sum of
the trunk cost metrics for all trunks included in the route. The delay
of a selected route is the sum of the trunk delay metric for all trunks
included in the route.
|
rtgPorsProfMaximumAcceptableCost |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.12 |
This attribute specifies an upper bound on the cost metric of a route,
which is the sum of the cost metrics of all trunks on the route. The
cost metric is the trunkCost attribute of the Trunk component. If for
any trunk the trunkCost is larger than the maximumAcceptableCost,
then that trunk is not considered during the route selection. While a
shortest route is being selected, the route cost is being compared
with the maximumAcceptableCost attribute, and this is done
regardless ofthe value of pathAttributeToMinimize. No route is
selected if the cost metric of the shortest route is larger than the
maximumAcceptableCost.
|
rtgPorsProfMaximumAcceptableDelay |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.13 |
This attribute specifies an upper bound on the delay of a route,
which is the sum of the delay of all trunks on the route. It should be
provisioned with a reasonable maximum acceptable delay for the
end to end one way delay of a 512 byte packet. Remember, that
during its staging, the trunk measures a measuredRoundTripDelay.
This delay is divided by two and truncated to an integer number of
milliseconds to provide a one way delay which is used to populate
the delay in this trunk object in the topological database. The value
includes emission, propagation, and queuing delays. A 512 byte
data packet is used to perform the measurement.
If for any trunk, half of the trunk's measuredRoundTripDelay is
larger than the maximumAcceptableDelay, then that trunk is not
considered during the route selection.
While a shortest route is being selected, the route delay is being
compared with the maximumAcceptableDelay attribute, and this is
done for any minimization criterion. No route is selected if the
delay metric of the shortest route is larger than the
maximumAcceptableDelay.
|
rtgPorsProfEmissionPriority |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.14 |
This attribute specifies the urgency with which packets on the path
are emitted by the trunks on the route. An EmissionPriority of zero
indicates the highest emission priority, while two indicates the
lowest emission priority. Packets with a higher emissionPriority (or
numerically less) are serviced and sent out before the packets of
lower emissionPriority (or numerically higher). The default value
for this attribute (sameAsApplication) will cause the connection's
emissionPriority to be inherited from the user of the profile. In other
words, setting this attribute to anything other than the default acts as
an override to the priority normally used by the application linked
to this profile.
|
rtgPorsProfDiscardPriority |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.15 |
This attribute specifies the importance of the packets on the path.
One is used for paths carrying the most important traffic, and three
is used for paths carrying the least important traffic. Packets with
lower discardPriority (numerically lower) are discarded after
packets with a higher discardPriority (numerically higher). The
default value for this attribute (sameAsApplication) will cause the
connection's discardPriority to be inherited from the user of the
profile. In other words, setting this attribute to anything other than
the default acts as an override to the priority normally used by the
application linked to this profile.
|
rtgPorsProfPathFailureAction |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.17 |
This attribute specifies whether the application can tolerate
momentary interruption of a path while a new path is selected. If
disconnectConnection is chosen, the application is informed as
soon as possible about a failure by disconnection. If the attribute is
set to reRoutePath, the path may attempt an immediate reroute,
provided the failure is a recoverable failure. If rerouting fails the
application is informed of the failure.
With this option set to reRoutePath the LCo may wait up to 30
seconds before informing the service of complete disconnection in
order to allow both ends to attempt to reconnect. Note that if PLC
components are different at both ends only the calling end is
allowed to reconnect.
|
rtgPorsProfBumpPreference |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.18 |
This attribute specifies when bumping may be triggered as a result
of this call being routed/rerouted or optimized. There are two
possibilities:
bumpWhenNecessary: means that this call will only trigger the
bumping of another call (subject to setup/holding priority
restrictions) when there is no other way to establish a route for this
call.
bumpToObtainBestRoute: means that this call may trigger the
bumping of other calls (subject to setup/holding priority
restrictions) if doing so would result in this call obtaining a better
(lower cost/delay) route.
Since bumping to obtain the best route can be somewhat intrusive
the default is only to bump when there is no other way to route the
call.
|
rtgPorsProfOptimization |
.1.3.6.1.4.1.562.2.4.1.40.6.7.11.1.19 |
If this attribute is enabled, this connection will be optimized
periodically as specified by the Rtg Pors attribute
optimizationInterval. If this attribute is disabled, the connection will
use the route it was given for the life of the connection or until a
failure or lock results in the call being rerouted.
|
rtgPorsProfUsrValue |
.1.3.6.1.4.1.562.2.4.1.40.6.7.400.1.1 |
This variable represents both the value and the index for the
rtgPorsProfUsrTable.
|
rtgPorsMpathIndex |
.1.3.6.1.4.1.562.2.4.1.40.6.8.1.1.10 |
This variable represents the index for the rtgPorsMpath tables.
|
rtgPorsMpathRowStatus |
.1.3.6.1.4.1.562.2.4.1.40.6.8.1.1.1 |
This variable is used as the basis for SNMP naming of
rtgPorsMpath components.
These components can be added and deleted.
|
rtgPorsMpathComponentName |
.1.3.6.1.4.1.562.2.4.1.40.6.8.1.1.2 |
This variable provides the component's string name for
use with the ASCII Console Interface
|
rtgPorsMpathStorageType |
.1.3.6.1.4.1.562.2.4.1.40.6.8.1.1.4 |
This variable represents the storage type value for the
rtgPorsMpath tables.
|
rtgPorsMpathLastSetupFailureReason |
.1.3.6.1.4.1.562.2.4.1.40.6.8.12.1.1 |
This attribute indicates the reason for the most recent failure for an
attempted connection using this ManualPath's route. The following
is a brief description of the reasons:
none - This path has no information for the teardown.
insufficientTxLcOrBandwidth - At present there is either no
available bandwidth or logical channel numbers available on one or
more of the Trunks for this path in the transmit direction. If a trunk
in the route attribute was previously locked, or has a Trk PA
subcomponent that is not in the up state , that Trunk is considered
as having no available bandwidth. If the Trunk PA is in mapped
mode, the inability to allocate an Atmif Vcc also results in this
failure reason.
insufficientRxLcOrBandwidth - At present there is either no
available bandwidth or logical channel numbers available on one or
more of the Trunks for this path in the receive direction. If a trunk
in the route attribute was previously locked, or has a Trk PA
subcomponent that is not in the up state , that Trunk is considered
as having no available bandwidth.
trunkFailure- A Trunk on the path has failed or has gone down,
due to a provisioning change of a critical attribute, as the path was
being established.
trunkCardFailure- A Trunk FP card has failed along the path as the
path was being established.
accessCardFailure- The FP on which the peer access service was
running has failed as the path was being established.
operatorForced- The path has terminated due to the operator
locking a Trunk along the path as the path was being established.
lostLcnClash- The path has terminated because the Trk PA's at both
ends of an intermediate trunk have allocated the same Trk LC to
different calls. When this happens both calls must go down and then
try to come up again a fraction of a second later (effectively
ensuring that they will now be assigned different Trk LC's). It is
normal to get the odd clash especially when the Trk PA usedLC is
approaching the Trk PA maxLC. An LCN clash results in the path
failing to instantiate only if the application disabled rerouting. By
default rerouting is enabled for all applications. Applications can
disable rerouting by using a Rtg Pors Prof/n component with
pathFailureAction set to disconnectConnection.
networkCongestion - The path has failed to establish due to control
information being lost and not being recoverable.
trunkNotFound - Check for Trunks not up or names provisioned
incorrectly in route attribute .
farEndNotFound - The far end is not provisioned or is not up. The
called NSAP address cannot be reached through the last node in the
Rtg Pors ManualPath path.
farEndBusy - The far end has been reached but it is busy. Check
remote end provisioning.
unknownReason - The failure was not resolved.
farEndNotReady - The remote end was reached but the connection
was refused due to the remote end not being enabled.
serviceTypeMismatch - The remote service type does not match
this service type. Check provisioning.
bumped - Another call bumped this path, as it was being
established, from a trunk to get bandwidth (or an LC) which it
required to come up. This other path had a higher setupPriority than
this path's holdingPriority hence it was allowed to steal the
bandwidth (or LC) from this path. A manual path that is bumped
fails to instantiate if it cannot bump another path along the same
route, or if it has pathFailureAction set to disconnectConnection.
trunkOrFarEndDidNotSupportMode - This call was unable to
complete because a mode required by the service was not supported
by one of the Trunks the route went through or by the far end
service it connected to. Currently the only mode that this applies to
is the map/mux mode on Trk Pa Atm component.
|
rtgPorsMpathLastSetupFailurePoint |
.1.3.6.1.4.1.562.2.4.1.40.6.8.12.1.2 |
This attribute indicates the point in the route at which the path
failed to establish. A failure at either end of a trunk will result in the
display of the name of the trunk nearer the calling end.
|
rtgPorsMpathLastSetupFailedUser |
.1.3.6.1.4.1.562.2.4.1.40.6.8.12.1.3 |
This attribute indicates the component in the users attribute that last
failed to instantiate a path based on the route.
|
rtgPorsMpathRouteIndex |
.1.3.6.1.4.1.562.2.4.1.40.6.8.408.1.1 |
This variable represents the rtgPorsMpathRouteTable
specific index for the rtgPorsMpathRouteTable.
|
rtgPorsMpathRouteValue |
.1.3.6.1.4.1.562.2.4.1.40.6.8.408.1.2 |
This variable represents an individual value for the
rtgPorsMpathRouteTable.
|
rtgPorsMpathUsrValue |
.1.3.6.1.4.1.562.2.4.1.40.6.8.409.1.1 |
This variable represents both the value and the index for the
rtgPorsMpathUsrTable.
|