Note: Queue policies for APS are under the APS port hierarchy (port aps-id/sonet-sdh/path/network/queue-policy name), rather than under the physical port, similar to the configuration of regular SONET/SDH ports. See the SONET/SDH Commands hierarchy for more information. |
Note: For more information about how to configure the scheduler mode on Ethernet ports, refer to the 7705 SAR Quality of Service Guide. |
Note: The sidetone command is not supported in this release. |
This command creates a text description for a configuration context to help identify the content in the configuration file.
The no form of this command removes any description string from the context. For the serial context, the no form of this command restores the default value.
“DS0GRP” (for the serial context and the voice context)
“Discrete Digital Input” for digital input (for Auxiliary Alarm card or chassis alarm inputs), “Analog Input” for analog input, and “Digital Output Relay” for output (for Auxiliary Alarm card)
n/a for others
This command administratively disables an entity. When disabled, an entity does not change, reset, or remove any configuration settings or statistics.
The operational state of the entity is disabled as well as the operational state of any entities contained within. Many objects must be shut down before they can be deleted.
When used with the ethernet>efm-oam command, shutdown enables tunneling on the port (see tunneling), and no shutdown enables Ethernet EFM OAM 802.3ah.
The no form of this command administratively enables an entity.
Note: The config>port>shutdown command does not remove power on ports that are Power over Ethernet (PoE/PoE+) capable. You must use the config>port>ethernet>no poe command to turn the power off; see poe for more information. |
card – no shutdown
dsl – no shutdown
mda – no shutdown
port – shutdown
scada – shutdown
scada>branch – no shutdown
input – no shutdown (for Auxiliary Alarm card and chassis alarm inputs)
alarm – shutdown (for Auxiliary Alarm card)
output – shutdown (for Auxiliary Alarm card)
lag – shutdown
This mandatory command is the first step in activating the IOM software: designating it a slot position in the chassis. On the 7705 SAR, the slot number is always 1. The IOM software must be activated before the adapter cards and ports can be configured. The no form of this command removes the card from the configuration. All associated ports, services, and adapter cards must be shut down.
n/a
This mandatory command is the second step in activating the IOM software: designating the card type. The card type can be preprovisioned, meaning that the card does not need to be installed in the chassis. On the 7705 SAR, the card type is always iom-sar.
A card must be provisioned (configured) before an adapter card or port can be configured.
A card can only be provisioned in a slot that is vacant, which means that no other card can be provisioned for that particular slot. To reconfigure a slot position, use the no form of this command to remove the current information. Port and adapter card information must be shut down.
A card can only be provisioned in a slot if the card type is allowed in the slot. An error message is generated if an attempt is made to provision a card type that is not allowed.
The no form of this command removes the card from the configuration. This operation requires that the card be administratively shut down. All dependencies to ports on this card must be shut down and removed from the configuration before issuing the no card-type command.
n/a
This mandatory command enables access to a card’s MDA CLI context to configure adapter cards.
n/a
1 to 6 | on the 7705 SAR-8 | |
1 to 12 and X1 to X4 for XMDA cards | on the 7705 SAR-18 | |
1 (for Ethernet), 2 (for T1/E1), and 3 (for module) | on the 7705 SAR-M variants that support modules | |
1 (for Ethernet) and 2 (for T1/E1) | on the 7705 SAR-A | |
1 (for Ethernet) and 2 (for GNSS RF) | on the 7705 SAR-Ax | |
1 (for Ethernet) | on the 7705 SAR-W | |
1 (for Ethernet) and 2 (for DSL on the variant that supports xDSL) | on the 7705 SAR-Wx | |
1 (for Ethernet), 2 (for module position 1), and 3 (for module position 2) | on the 7705 SAR-H | |
1 (for Ethernet) and 2 (for RS-232) | on the 7705 SAR-Hc | |
1 (for T1/E1); 2 (for Ethernet XOR RJ-45 ports 2/1A and 2/2A, Ethernet XOR SFP ports 2/1B and 2/2B, Ethernet ports 2/3 to 2/6, and 10GigE SFP+ port 2/7); 3 (for Ethernet XOR RJ-45 ports 3/1A and 3/2A, Ethernet XOR SFP ports 3/1B and 3/2B, Ethernet ports 3/3 to 3/6, and 10GigE SFP+ port 3/7) | on the 7705 SAR-X |
This command enables the 7705 SAR to interoperate with SDH networks that use subnetwork connection protection (SNCP). When ais-propagation is enabled, the 7705 SAR can use SDH signaling to make pseudowire switching decisions on Cpipes configured for redundancy.
For more information about 7705 SAR interoperation with SDH SNCP, refer to the 7705 SAR Services Guide, “AIS Fault Propagation”.
n/a
This command defines the clocking mode and the associated timestamp frequency (if differential or dcr-acr clocking mode is configured).
All clock modes are supported on the following:
Only adaptive mode is supported on the following chassis and cards:
Only differential mode is supported on the following cards:
adaptive (if no clocking mode is configured)
differential (for 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card and 4-port DS3/E3 Adapter card)
If differential or dcr-acr clocking mode is configured on the 7705 SAR-M, 7705 SAR-A, 7705 SAR-X, or 4-port T1/E1 and RS-232 Combination module, the default timestamp frequency is 103680.
If differential or dcr-acr clocking mode is configured on the 16-port T1/E1 ASAP Adapter card, version 2, or the 32-port T1/E1 ASAP Adapter card, the default timestamp frequency is 77760.
For the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card and the 4-port DS3/E3 Adapter card, the default timestamp frequency is 77760.
Note: The 25000 and 103680 options are not supported on the 16-port T1/E1 ASAP Adapter card, version 2, or the 32-port T1/E1 ASAP Adapter card. The 19440, 25000, and 103680 options are not supported on the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card or the 4-port DS3/E3 Adapter card. |
This command enables the fabric port statistics counter to count egress traffic toward a specified adapter card. The CSM allows the collection of fabric statistics from only one fabric port at any given time. To change the port statistics counter to a different adapter card, turn off statistics collection on the assigned adapter card by using no fabric-stats-enabled and then enabling statistics collection on another adapter card.
This command configures the set of software services that are enabled for a specific adapter card.
The cem-atm-ppp and cem-fr-hdlc-ppp parameter values are used to configure the appropriate encapsulation methods that are required to support pseudowire services. These values apply to the following adapter cards:
The card-level encapsulation capabilities must be configured before the encap-type parameter is configured at the port level.
The x10-1gb-sfp and x1-10gb-sf+ parameter values are used for the 10-port 1GigE/1-port 10GigE X-Adapter card to define whether the card operates in 10-port 1GigE mode or 1-port 10GigE mode.
The p4-oc3 and p1-oc12 parameter values are used for the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card to define whether the card operates in 4-port OC3/STM1 mode or 1-port OC12/STM4 mode.
The mddb, pcm, and vcb parameter values are used for the Integrated Services card to define which SCADA application is active on the card.
The no form of this command sets the mda-mode back to the card’s default mode. All service and port/channel configurations associated with the adapter card must be removed before the mda-mode can be changed. On the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card, changing the mode causes the adapter card to reset.
x1-10gb-sf+ (for the 10-port 1GigE/1-port 10GigE X-Adapter card)
cem-atm-ppp (for the T1/E1 ASAP adapter cards and 4-port DS3/E3 Adapter card)
p4-oc3 (for the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card)
mddb (for the Integrated Services card)
This mandatory command provisions a specific adapter card or module type to the device configuration for the slot. The adapter card or module can be preprovisioned, but it must be provisioned before ports can be configured. Ports can be configured once the adapter card or module is properly provisioned.
A maximum of 6 adapter cards can be installed in a 7705 SAR-8 chassis, and a maximum of 12 adapter cards and 4 XMDA adapter cards can be installed in a 7705 SAR-18 chassis. One module can be installed in 7705 SAR-M variants that support modules. A maximum of two modules can be installed in a 7705 SAR-H chassis. Only one adapter card or module can be provisioned per MDA or module slot. To modify an MDA or module slot, shut down all port associations.
A medium severity alarm is generated if an adapter card or module is inserted that does not match the adapter card or module type configured for the slot. This alarm is cleared when the correct adapter card or module is inserted or the configuration is modified. A high severity alarm is raised if an administratively enabled adapter card or module is removed from the chassis. This alarm is cleared if either the correct adapter card or module type is inserted or the configuration is modified. A low severity trap is issued if an administratively disabled adapter card or module is removed.
An alarm is raised if partial or complete adapter card or module failure is detected. The alarm is cleared when the error condition ceases.
The no form of this command deletes the adapter card or module from the configuration. The adapter card or module must be administratively shut down before it can be deleted from the configuration. Before an adapter card or module can be shut down, all port associations with this adapter card or module, for example SAPs and IP interfaces, must be shut down first.
n/a
For the 7705 SAR-8 | |
a16-chds1 | 16-port T1/E1 ASAP Adapter card, version 1 |
a16-chds1v2 | 16-port T1/E1 ASAP Adapter card, version 2 |
a32-chds1v2 | 32-port T1/E1 ASAP Adapter card |
a12-sdi | 12-port Serial Data Interface card, version 1 |
a12-sdiv2 | 12-port Serial Data Interface card, version 2 |
a12-sdiv3 | 12-port Serial Data Interface card, version 3 |
a6-eth-10G | 6-port Ethernet 10Gbps Adapter card |
a6-eth-10G-e | 6-port Ethernet 10Gbps Adapter card-E |
a8-eth | 8-port Ethernet Adapter card, version 1 |
a8-ethv2 | 8-port Ethernet Adapter card, version 2 |
a8-1gb-sfp | 8-port Gigabit Ethernet Adapter card, version 1 |
a8-1gb-v2-sfp | 8-port Gigabit Ethernet Adapter card, version 2 |
a8-1gb-v3-sfp | 8-port Gigabit Ethernet Adapter card, version 3 |
a6-em | 6-port E&M Adapter card |
a4-oc3 | 4-port OC3/STM1 Clear Channel Adapter card |
a4-chds3 | 4-port DS3/E3 Adapter card |
a2-choc3 | 2-port OC3/STM1 Channelized Adapter card |
a4-choc3/12 | 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card |
a2-10gb-xfp | 2-port 10GigE (Ethernet) Adapter card |
aux-alarm | Auxiliary Alarm card |
mw-pic-2 | Power Injector card |
a8-pmc | Packet Microwave Adapter card |
a8-vt | 8-port Voice & Teleprotection card |
a8-c3794 | 8-port C37.94 Teleprotection card |
a8-fxo | 8-port FXO Adapter card |
a6-fxs | 6-port FXS Adapter card |
oadm-cwdm-1ch | CWDM OADM Adapter card (1-channel) |
oadm-cwdm-2ch | CWDM OADM Adapter card (2-channel) |
oadm-cwdm-4ch | CWDM OADM Adapter card (4-channel) |
oadm-cwdm-8ch | CWDM OADM Adapter card (8-channel) |
isc | Integrated Services card |
a1-gnss | GNSS Receiver card |
For the 7705 SAR-18 | |
a16-chds1v2 | 16-port T1/E1 ASAP Adapter card, version 2 |
a32-chds1v2 | 32-port T1/E1 ASAP Adapter card |
a12-sdi | 12-port Serial Data Interface card, version 1 |
a12-sdiv2 | 12-port Serial Data Interface card, version 2 |
a12-sdiv3 | 12-port Serial Data Interface card, version 3 |
a6-eth-10G | 6-port Ethernet 10Gbps Adapter card |
a6-eth-10G-e | 6-port Ethernet 10Gbps Adapter card-E |
a8-ethv2 | 8-port Ethernet Adapter card, version 2 |
a8-1gb-sfp | 8-port Gigabit Ethernet Adapter card, version 1 |
a8-1gb-v2-sfp | 8-port Gigabit Ethernet Adapter card, version 2 |
a8-1gb-v3-sfp | 8-port Gigabit Ethernet Adapter card, version 3 |
x-10GigE | 10-port 1GigE/1-port 10GigE X-Adapter card, version 1 |
x-10GigE-v2 | 10-port 1GigE/1-port 10GigE X-Adapter card, version 2 |
a6-em | 6-port E&M Adapter card |
a4-chds3 | 4-port DS3/E3 Adapter card |
a4-oc3 | 4-port OC3/STM1 Clear Channel Adapter card |
a2-choc3 | 2-port OC3/STM1 Channelized Adapter card |
a4-choc3/12 | 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card |
a2-10gb-xfp | 2-port 10GigE (Ethernet) Adapter card |
aux-alarm | Auxiliary Alarm card |
mw-pic-2 | Power Injector card |
a8-pmc | Packet Microwave Adapter card |
a8-vt | 8-port Voice & Teleprotection card |
a8-c3794 | 8-port C37.94 Teleprotection card |
a8-fxo | 8-port FXO Adapter card |
a6-fxs | 6-port FXS Adapter card |
oadm-cwdm-1ch | CWDM OADM Adapter card (1-channel) |
oadm-cwdm-2ch | CWDM OADM Adapter card (2-channel) |
oadm-cwdm-4ch | CWDM OADM Adapter card (4-channel) |
oadm-cwdm-8ch | CWDM OADM Adapter card (8-channel) |
isc | Integrated Services card |
a1-gnss | GNSS Receiver card |
For the 7705 SAR-M | |
p1-gpon | GPON module |
p8-xdsl | 8-port xDSL module |
p6-dcm | 6-port DSL Combination module |
oadm-cwdm-1ch | CWDM OADM module (1-channel) |
p2-10gb-xfp | 2-port 10GigE (Ethernet) module |
p6-eth | 6-port SAR-M Ethernet module |
For the 7705 SAR-H | |
p4-combo | 4-port T1/E1 and RS-232 Combination module |
p1-gps | GPS Receiver module |
p4-eth | 4-port SAR-H Fast Ethernet module |
This command specifies whether the internal system-level PoE power supply or an external PoE power supply is used to power the PoE-capable ports on a 7705 SAR chassis.
When the 7705 SAR-H is configured for the internal power supply, standard 15 W PoE can be enabled only on ports 5 and 6. Port 5 can also support 34 W PoE+, but in that case, port 6 cannot support PoE. When configured for the external PoE power supply, all four PoE-capable ports support a combination of standard 15 W PoE and 34 W PoE+, with a maximum power delivery of 83 W among all PoE-enabled ports. Refer to the 7705 SAR-H Chassis Installation Guide, “Ethernet Ports”, for information about supported combinations and restrictions.
The following chassis types only support the internal system-level PoE power supply:
The no form of this command disables the PoE power supply on the node.
internal
This command enables the context to configure voice conference bridge (VCB) parameters on the Integrated Services card.
n/a
This command specifies the operating mode for the VCB application. The mode is set at the card level and applies to all bridges configured on the card.
vcb
This command enables the context to configure voice parameters on the 6-port E&M Adapter card, 8-port Voice & Teleprotection card, 8-port FXO Adapter card, 6-port FXS Adapter card, and Integrated Services card (when it is configured for VCB with the mda-mode command).
n/a
This command specifies the companding law to be used on the 6-port E&M Adapter card, 8-port Voice & Teleprotection card, 8-port FXO Adapter card, 6-port FXS Adapter card, and Integrated Services card (for VCB).
To change this parameter, all ports associated with the card must be in shutdown mode and no channels can be defined on the card. A change in the companding law results in a corresponding change to the signaling-type default. The signaling-type applies only to the 6-port E&M Adapter card.
mu-law
This command specifies the signaling type to be used on the 6-port E&M Adapter card.
To change the signaling type, all ports associated with the 6-port E&M Adapter card must be in shutdown mode and no channels can be defined on the card.
The signaling type is selectable on a per-card basis. When either A-Law or Mu-Law companding is configured, Type I, Type II, or Type V signaling can be selected. However, the only supported configurations are both ends of the connection operating in the same mode (for example, Type I to Type I) or one end operating in Type I mode and the other in Type V mode.
type-i (for Mu-Law companding)
type-v (for A-Law companding)
This command enables the access context to configure QoS policy parameters for the specified adapter card.
This command enables the network context to configure QoS policy parameters for the specified adapter card.
This command enables the context to configure the QoS policy parameters for ingress traffic, in either an access or network context, for the specified adapter card.
This command configures (applies) the ingress fabric policy, in either an access or network context, for the specified adapter card.
Fabric profiles do not apply to the Auxiliary Alarm card.
The no form of this command resets the fabric-policy-id to the default value.
1
This command specifies the network ingress queue policy that defines queue parameters such as CBS, high-priority-only burst size, MBS, CIR, and PIR rates, as well as forwarding class-to-queue mappings. The network queue policy is defined in the config>qos>network-queue context. Refer to the 7705 SAR Quality of Service Guide, “Network Queue QoS Policies”, for more information.
The no form of this command reverts to the default.
“default”
This command applies an existing security queue policy, in either an access or network context, to the specified adapter card.
The no form of this command sets the policy-id back to the default.
1
This command enables the context to assign a shaper policy to an Ethernet MDA.
For access ingress per-customer aggregate shaping, the shaper policy is assigned to an Ethernet MDA and SAPs on that Ethernet MDA must be bound to a shaper group within the shaper policy bound to that Ethernet MDA.
The default shaper policy cannot be deleted. Table 26 displays the default shaper policy parameters.
Field | Default |
description | “Default Shaper QoS policy.” |
shaper-group | “default” |
description | “Default Shaper Group.” |
pir-rate | max |
cir-rate | 0 |
The no form of this command removes the configured shaper-policy.
shaper-policy “default”
This command specifies the QoS policy parameters for ring traffic in a network, for the 2-port 10GigE (Ethernet) Adapter card or 2-port 10GigE (Ethernet) module.
This command specifies the network queue policy to be applied to the add/drop port on the bridging domain side of a ring adapter card. The network queue policy is defined in the config>qos>network-queue context. Refer to the 7705 SAR Quality of Service Guide, “Network Queue QoS Policies”, for more information.
The ring ports and the add/drop port cannot use the same non-default network queue policy that is being used by the v-port and any other port on other cards.
no add-drop-port-queue-policy
This command specifies the network QoS policy for the ring. Only a ring type network QoS policy can be assigned to a port on the bridging domain side of a ring adapter card.
no qos-policy
This command enables the context for configuring SPT (self-processed traffic) parameters. The config>card>mda context is used for the 7705 SAR-8, 7705 SAR-18, and 7705 SAR-X. The config>system context is used for the 7705 SAR-Hc, 7705 SAR-H, and 7705 SAR-Wx.
n/a
This command configures the fabric aggregate rate for security queues on the datapath. The command is configured in the config>card>mda>spt context for the 7705 SAR-8, 7705 SAR-18, and 7705 SAR-X, and in the config>system>spt context for the 7705 SAR-Hc, 7705 SAR-H, and 7705 SAR-Wx.
This command enables access to the context to configure external alarm attributes on 7705 SAR Ethernet ports (supported on all platforms with Ethernet ports), on the Auxiliary Alarm card, and on the four alarm inputs on the fan module (for the 7705 SAR-8), alarm connector (for the 7705 SAR-M (all variants), 7705 SAR-H, 7705 SAR-Hc, and 7705 SAR-X), and alarm module (for the 7705 SAR-18).
When configuring custom alarms for an Ethernet port, the port must be configured for 100Base-Tx operation with autonegotiation disabled.
This command creates or removes alarms.
The no form of this command disables the alarm attributes for the specified alarm. The alarm must be in the shutdown state before the no form of the command can be performed.
n/a
This command generates output to chassis alarm relays and LEDs for the specified alarm.
The no form of this command disables the generation of output to chassis alarm relays and LEDs.
chassis-alarming
This command generates raise/clear log events for the specified alarm and controls SNMP trap generation for the raise/clear log events.
The no form of this command disables the generation of raise/clear log events.
log
This command configures the severity level for the specified alarm.
The alarm must be disabled before the severity level can be modified.
If the alarm generates raise/clear log events and SNMP traps (enabled by the log command), the severity of the raise log events and SNMP traps is controlled by this configuration. The severity level of the clear log events and SNMP traps is warning.
If the alarm generates output to chassis alarm relays and LEDs (enabled by the chassis-alarming command), the severity level of the alarm output is controlled by this configuration. For chassis relay alarms, only the critical, major and minor levels of severity apply. (There are three LEDs that represent each of them.)
major
This command enables the context to configure the thresholds for the specified alarm.
n/a
This command enables the context to configure analog trigger thresholds for the specified alarm.
n/a
This command configures the analog voltage level thresholds for the specified alarm.
The analog input level threshold cannot be changed from no level when there are no analog inputs configured as triggers. When all analog inputs are removed from the trigger list, the level is automatically changed to no level. The analog input level threshold cannot be changed to no level when there is analog input in the trigger list. When the first analog input is added to the alarm trigger, the level is automatically changed to gt 0.
The no form of this command removes the analog voltage level threshold.
no level
This command configures the inputs that will trigger the alarm. An alarm can be configured to trigger on any configured input or only when all enabled configured inputs are active. Administratively disabled inputs are ignored for alarm triggering.
Digital inputs are considered normally open. This means that a digital input becomes active only if it closes. Analog inputs have a customizable voltage threshold. This threshold can be configured using the thresholds command. Analog inputs become active when this threshold is crossed.
The no form of this command removes the trigger.
no trigger
for Ethernet ports, the format is:
port-slot/mda/port [name]
for the Auxiliary Alarm card, the format is:
alarm-slot/mda.{d | a}-alarm-num [name]
for the four alarm inputs on the fan module (for the 7705 SAR-8), alarm connector (for the 7705 SAR-M (all variants), 7705 SAR-H, 7705 SAR-Hc, and 7705 SAR-X), and alarm module (for the 7705 SAR-18), the format is:
alarm.d-alarm-num [name]
where:
slot = card slot number for IOM (always 1 on the 7705 SAR)
mda = Ethernet adapter card or Auxiliary Alarm card slot number (for Ethernet modules or ports on platforms with no card slots, the mda slot number is preconfigured)
port = port number for Ethernet ports
d = digital input
a = analog input
alarm-num = alarm port number (1 to 24 for digital on the Auxiliary Alarm card, 1 to 4 for digital on the four chassis alarm inputs, 1 or 2 for analog)
name = optional name assigned to the input
for example:
alarm-1/3.d-3
windowOpen3
alarm.d-1
The name option lets users assign a more meaningful name (must be unique) to the alarm input; for example, windowOpen3 might be more meaningful to a user than the identifier alarm-1/3.d-3. Once the name has been configured, it can be used interchangeably with the alarm input identifier; for example, windowOpen3 can be used instead of alarm-1/3.d-3 as an alarm input trigger.
This command enables the context to configure the external alarm inputs on 7705 SAR Ethernet ports, on the Auxiliary Alarm card, and on the four alarm inputs on the fan module (for the 7705 SAR-8), alarm connector (for the 7705 SAR-M (all variants), 7705 SAR-H, 7705 SAR-Hc, and 7705 SAR-X), and alarm module (for the 7705 SAR-18).
An alarm input must be associated with an alarm in order for the input to be triggered. See the trigger command. An input can be associated with up to four alarms.
n/a
for Ethernet ports, the format is:
port-slot/mda/port [name]
for the Auxiliary Alarm card, the format is:
alarm-slot/mda.{d | a}-alarm-num [name]
for the four alarm inputs on the fan module (for the 7705 SAR-8), alarm connector (for the 7705 SAR-M (all variants), 7705 SAR-H, 7705 SAR-Hc, and 7705 SAR-X), and alarm module (for the 7705 SAR-18), the format is:
alarm.d-alarm-num [name]
where:
slot = card slot number for IOM (always 1 on the 7705 SAR)
mda = Ethernet adapter card or Auxiliary Alarm card slot number (for Ethernet modules or ports on platforms with no card slots, the mda slot number is preconfigured)
port = port number for Ethernet ports
d = digital input
a = analog input
alarm-num = alarm port number (1 to 24 for digital on the Auxiliary Alarm card, 1 to 4 for digital on the four chassis alarm inputs, 1 or 2 for analog)
name = optional name assigned to the input
for example:
alarm-1/3.d-3
windowOpen3
alarm.d-1
The name option lets users assign a more meaningful name (must be unique) to the alarm input; for example, windowOpen3 might be more meaningful to a user than the identifier alarm-1/3.d-3. Once the name has been configured, it can be used interchangeably with the alarm input identifier; for example, windowOpen3 can be used instead of alarm-1/3.d-3 as an alarm input trigger for the trigger command, or when performing a show>external-alarms>input or show>external-alarms> output command.
This command configures the debounce time associated with detecting and clearing an alarm input. Debounce time is not supported on alarm inputs on Ethernet ports.
The no debounce form of the command sets both the detect time and clear time to 0.
2 (for both detect time and clear time)
This command enables the context to configure the external alarm output relays.
n/a
relay-slot/mda.d-relay-num [name]
where:
slot = slot number of the card in the chassis (always 1 on the 7705 SAR)
mda = Auxiliary Alarm card slot number
d = digital output
relay-num = output relay number (1to 8)
name = name assigned to the output relay
for example:
relay-1/3.d-5
doorHolder5
The name option lets users assign a more meaningful name (must be unique) to the output relay; for example, doorHolder5 might be more meaningful to a user than the output relay identifier relay-1/3.d-5. Once the name has been configured, it can be used interchangeably with the alarm identifier; for example, doorHolder5 can be used instead of relay-1/3.d-5 when performing a show>external-alarms>output command.
This command configures a name for the alarm input or output relay. The configured name must be unique within the external alarms context; therefore, it must not be the same as an alarm-input name configured for the trigger or input command, or an alarm-output name configured for the output command. For example, alarm-1/3.d-1 or doorOpen1 cannot be used as a name for any alarm input, and relay-1/3.d-5 or doorHolder5 cannot be used as a name for any output relay.
The no form of this command does not associate a name with the alarm input or output relay.
no name
This command configures the normal condition of the digital input – either normally open or normally closed. You cannot configure the normal condition on alarm inputs on Ethernet ports.
normally open
This command enables access to the context to configure APS on SONET/SDH ports and assigns an APS group ID. Both working and protection circuits must be configured with the same APS group ID on either the same 7705 SAR node (SC-APS) or on two 7705 SAR nodes (MC-APS).
This command configures APS on SONET/SDH ports. An APS group contains a working and protection circuit with the same APS group ID on either a single 7705 SAR node (SC-APS) or on two 7705 SAR nodes (MC-APS).
The working circuit must be connected to the peer working circuit, and the protection circuit must be connected to the peer protection circuit.
The aps command is only available for APS groups, not for physical ports.
This command specifies the time interval, in 100s of milliseconds, between “I am operational” messages sent by the protection and working circuits to their neighbor in an MC-APS group. The advertise-interval value is valid only for an MC-APS.
10
This command specifies how much time can pass without the node receiving an advertise packet from its neighbor before the MC-APS signaling link is considered operationally down.The hold time is in 100s of milliseconds and is usually the advertise-interval value multiplied by 3.
This command configures hold-down timers to debounce signal failure conditions (lais, b2err-sf) and signal degrade conditions (b2err-sd) for 1+1 unidirectional SC-APS switching mode. If the signal fail or signal degrade conditions exceed the configured hold-down time, APS is activated.
no hold-time-aps (values are 0)
This command specifies the neighbor's IP address in an MC-APS group. When the value of the neighbor IP address is set to 0.0.0.0, or not set, this implies that the APS group is configured as an SC-APS group.
The route to the neighbor must not traverse the MC-APS member (working or protection) circuits. It is recommended that the neighbor IP address configured be on a shared network between the routers that own the working and protection circuits. The node should be connected with a direct interface to ensure optimum failover time.
By default, no neighbor address is configured and both the working and protection circuits should be configured on the same router as an SC-APS group.
0.0.0.0
This command configures a physical port that will act as the protection circuit for this APS group.
The protection circuit port must contain only the default configuration and cannot belong to another APS group. The protection circuit port must be of the same type as the working circuit (SONET/SDH) for the APS group; if it is not, the command will return an error.
A protection circuit can only be added if the working circuit already exists. The protection circuit must be removed from the configuration before the working circuit can be removed.
When a port is a protection circuit of an APS group, the configuration options available in the config>port port-id>sonet-sdh context are not allowed for that port unless they are in the following exception list:
When a port is configured as a protection circuit of an APS group, the configurations listed above and all service configurations related to the APS port are operationally inherited by the protection circuit. If the protection circuit cannot inherit the configurations (due to resource limitations), the configuration attempt fails and an error is returned to the user.
The protection circuit must be shut down before it can be removed from the APS group port. The inherited configuration for the circuit and APS operational commands for that circuit are not preserved when the circuit is removed from the APS group.
The no form of this command removes the protection circuit.
n/a
This command configures how RDI alarms (line, path, section) are generated on physical circuits of an APS port. The command is only supported in 1+1 unidirectional SC-APS mode. When you configure RDI alarms on a port on the 2-port OC3/STM1 Channelized Adapter card, the second port is automatically configured with a matching RDI alarms setting. As a consequence, both ports will then support only 1+1 unidirectional SC-APS mode.
circuit
This command configures how long the 7705 SAR waits before switching back to the working circuit after it has been restored to service.
If the minutes value is changed, it takes effect at the next initiation of the wait-to-restore (WTR) timer.
This command does not modify the length of a WTR timer that has already been started. The WTR timer of a non-revertive switch can be assumed to be infinite.
The no form of this command restores the default (non-revertive) mode – the switch back does not occur unless the protection circuit fails or it is manually switched by the operator.
This command configures the switching mode for the APS port. SC-APS supports both bi-directional and uni-1plus1; MC-APS supports only bi-directional switching mode.
bi-directional
This command configures a physical port that will act as the working circuit for this APS group.
The working circuit port must contain only the default configuration and cannot be part of another APS group. The working circuit must be created before the protection circuit.
When a port is a working circuit of an APS group, the configuration options available in the config>port port-id>sonet-sdh context are not allowed for that port unless they are in the following exception list:
When a port is configured as a working circuit of an APS group, the configurations listed above and all service configurations related to the APS port are operationally inherited by the working circuit from the APS group ID. If the working circuit cannot inherit that configuration (for example, due to resource limitations), the configuration attempt fails and an error is returned to the user.
The working circuit must be shut down before it can be removed from an APS group. The inherited configuration for the circuit and APS operational commands for that circuit are not preserved when the circuit is removed from the APS group.
All configurations for the APS group under the config>port context and its submenus and all configuration for services that use this APS group ID are preserved as a non-activated configuration since the APS group no longer has any physical circuits assigned.
The no form of this command removes the working circuit. The working circuit can only be removed from the configuration after the protection circuit has been removed.
This command enables access to the context to configure Line Card Redundancy (LCR) parameters on T1/E1 ports or links. When the lcr-id is specified, this command assigns an LCR group ID. Both working and protection adapter cards must be configured with the same LCR group ID and on the same card type. For SC-LCR, both working and protection adapter cards must be on the same 7705 SAR node. For MC-LCR, the working and protection adapter cards must be on different 7705 SAR nodes.
This command specifies the time interval between “I am operational” messages sent by the protection and working adapter cards to their neighbors in an MC-LCR group. The advertise-interval value is valid only for MC-LCR.
10
This command specifies how much time can pass without the node receiving an advertise packet from its neighbor in an MC-LCR group before the neighbor is considered operationally down.The hold time is usually the advertise-interval value multiplied by 3.
This command specifies the neighbor IP address in an MC-LCR group. When the value of the neighbor IP address is set to 0.0.0.0, or not set, this implies that the LCR group is configured as an SC-LCR group.
The route to the neighbor must not traverse the MC-LCR member (working or protection) adapter cards. It is recommended that the neighbor be on a shared network between the nodes that are configured with the working and protection cards. The node should be connected with a direct interface to ensure optimum failover time.
By default, no neighbor address is configured and both the working and protection adapter cards should be configured as an SC-LCR group on the same node.
0.0.0.0
This command configures an adapter card that will act as the protection card for this LCR group.
The protection adapter card must contain only the default configuration and cannot belong to another LCR group. The protection card must be of the same type as the working adapter card for the LCR group; if it is not, the command will return an error.
A protection card can only be added if the working card already exists in the LCR group. The protection card must be removed from the configuration before the working card can be removed.
The protection card must be shut down before it can be removed from the LCR group. The inherited configuration for the protection card and the configured LCR operational commands for that card are not preserved when it is removed from the LCR group.
The no form of this command removes the protection card from the LCR group.
no protect-mda
This command configures how long the 7705 SAR waits before switching activity back to the working adapter card after it has been restored to service.
If the minutes value is changed, the change takes effect at the next initiation of the wait-to-restore (WTR) timer.
This command does not modify the duration of a WTR timer that has already been started. The WTR timer of a non-revertive switch can be assumed to be infinite.
The no form of this command restores the default (non-revertive) mode. The switch back does not occur unless the protection adapter card fails or activity is manually switched by the operator.
no revert-time
This command configures an adapter card that will act as the working card for this LCR group.
The working card must contain only the default configuration and cannot be part of another LCR group. The working card must be created before the protection card.
The working card must be shut down before it can be removed from an LCR group. The inherited configuration for the card and configured LCR operational commands for that card are not preserved when it is removed from the LCR group.
The no form of this command removes the working card from the LCR group. The working card can only be removed from the configuration after the protection card has been removed.
no working-mda
This command configure a microwave link on a 7705 SAR-8 or 7705 SAR-18.
The no form of this command removes the microwave link configuration.
This command enables the context to configure microwave link parameters.
This command configures dampening timers on a microwave link. Dampening timers guard against excessive link transitions reported to upper layer protocols.
The no form of this command removes the dampening timers configuration.
down 0 or up 0 — no microwave link dampening is enabled; link transitions are immediately reported to upper layer protocols
This command enables or disables peer discovery on the microwave link.
Peer discovery is used to discover the IP addresses of remote routers over the microwave link, as well as the physical ports of the remote routers corresponding to the primary radios for the microwave link.
Ports with peer discovery disabled do not send peer discovery packets and ignore any received peer discovery packets. The CLI does not display the IP address of peers when peer discovery is disabled.
This command enables protection switching on a microwave link.
The no form of this command removes the protection switching on a microwave link.
This command configures an MPR-e radio for a microwave link.
The no form of this command removes an MPR-e spare radio from the specified port
Note: You cannot remove an MPR-e main radio that is associated with a microwave link. The microwave link must be deleted and then re-configured with the desired MPR-e radio. |
Note:
|
This command configures the filename of the MPR-e radio database.
The no form of this command removes the MPR-e radio database configuration.
n/a
This command specifies a name to be associated with an MPR-e radio.
The no form of this command removes the name configured for the MPR-e radio.
n/a
This command enables MWA performance monitoring on microwave links in order to collect G.826, radio power, and Adaptive Coding and Modulation (ACM) level performance statistics.
The no form of this command disables MWA performance monitoring on microwave links.
no perfmon
This command enables the RSL history file for an MPR-e radio to be uploaded to the 7705 SAR.
The no form of this command removes the configuration.
no rsl-history
This command configures the MPR-e radio to operate in standalone mode.
The no form of this command removes the standalone designation and sets the MPR-e radio in MWA mode.
no standalone
This command suppresses detected faults on microwave links. If microwave link faults are detected, an event is logged and the link is disabled. When faults are suppressed, the event is still logged, but the microwave link is not disabled. By default, the system does not suppress faults for FFD.
The no form of this command removes fault suppression.
no suppress-faults
This command mutes the transmitter on the radio MPR-e radio.
The no form of this command disables the mute configuration.
This command configures the type of revertive switching on the microwave link. Revertive switching occurs when the MPR-e radio operation switches from the spare radio back to the main radio after a fault condition is cleared.
The no form of this command removes the revertive switching configuration.
n/a
Note: If EPS is configured as the revertive switching type, Transmission Protection Switching (TPS) is automatically applied as well; TPS cannot be enabled independently. |
This command enables access to the context to configure ports, multilink bundles, and IMA groups. Before a port can be configured, the chassis slot must be provisioned with a valid card type and the adapter card slot must be provisioned with a valid adapter card type. (See the card and mda commands.)
n/a
The command syntax must be configured as follows:
Syntax | bundle-type-slot/mda.bundle-num | ||||||
bundle[-ppp]-slot/mda.bundle-num (Creates a multilink PPP bundle) | |||||||
bundle-ima-slot/mda.bundle-num (Creates an IMA group) | |||||||
bundle: keyword | |||||||
slot: card/adapter card slot numbers | |||||||
bundle-num: 1 to 32 For example: router1>config# port bundle-1/1.1 (multilink PPP bundle) router1>config# port bundle-ima-1/1.2 (IMA group bundle) |
This command enables or disables digital diagnostic monitoring (DDM) events for the port. DDM is supported on Ethernet SFP ports, OC3 SONET SFP ports, and v-ports.
no ddm-events
This command configures the Dense Wavelength Division Multiplexing (DWDM) parameters.
This command configures the DWDM ITU channel for a tunable adapter card optical interface. The channel is expressed in a form that is derived from the laser's operational frequency. For example, 193.40 THz corresponds to DWDM ITU channel 34 in the 100 GHz grid and 193.45 THz corresponds to DWDM ITU channel 345 in the 50 GHz grid. The provisioned adapter card must support DWDM tunable optics. For a complete list of supported optics and associated adapter cards, contact your Nokia representative.
The DWDM channel must be set to a non-zero value before the port is set to no shutdown.
The port must be shut down before changing the DWDM channel, and the port must be a physical port to set the DWDM channel.
This command enables access to the context to configure Ethernet port attributes on all cards, modules, and chassis that support Ethernet. For the Packet Microwave Adapter card, this command does not apply to ports that support microwave awareness.
This command enables access to the context to configure access mode parameters.
This command enables access to the context to configure the CIR rate for the aggregate of all the unshaped 4-priority SAPs on the port and to configure the shaper policy.
This command assigns a shaper policy to the specified hybrid port.
For hybrid ports, the shaper policy is independently assigned to access or network egress traffic. When the Ethernet port mode is changed to hybrid mode, the default policy is assigned to access and network traffic. To change an access or network policy, use the commands config>port>ethernet> access>egress>shaper-policy and config>port>ethernet> network>egress>shaper-policy.
For access egress per-customer aggregate shaping, the shaper policy is assigned to a port and SAPs on that port must be bound to a shaper group within the shaper policy bound to that port.
The shaper policy defines shaper parameters such as shaper group, and PIR and CIR rates. The shaper policy is defined in the config>qos>shaper-policy context. Refer to the 7705 SAR Quality of Service Guide, “QoS for Hybrid Ports” and “Per-Customer Aggregate shapers (Multiservice Site)”, for more information.
Note:
|
The no form of this command reverts to the default.
“default”
This command sets the CIR rate for the aggregate of all the unshaped 4-priority SAPs on the port. The default cir-rate is 0 kb/s. When the cir-rate is set to max, the CIR rate adopts the maximum rate of the port, which is set using the egress-rate sub-rate command.
If the cir-rate is higher than the sub-rate, the cir-rate is stored in the configuration database but the sub-rate limit is used.
On a Gen-3-based port, this command can be set for mix-and-match LAG SAP purposes, but is not applied to the Gen-3-based port. See LAG Support on Mixed-Generation Hardware for more information.
The no form of the command sets the unshaped-sap-cir CIR rate to 0 kb/s.
no unshaped-sap-cir
For the 8-port Ethernet Adapter card, this command enables speed autonegotiation and duplex autonegotiation on Ethernet 10/100Base-T RJ-45 ports. The command enables speed autonegotiation on the two SFP ports (10, 100, or 1000 Mb/s). Duplex autonegotiation is only supported on SFP ports using 100 Mb/s fiber SFPs or 10/100/1000Base-T copper SFPs. Duplex autonegotiation is not supported on optical Gigabit Ethernet SFPs; the mode is always full duplex.
The 8-port Gigabit Ethernet Adapter card, 10-port 1GigE/1-port 10GigE X-Adapter card in x10-1gb-sfp mode, and Packet Microwave Adapter card support speed autonegotiation and duplex autonegotiation on all SFP ports. Each port can run in full-duplex mode or in half-duplex mode at 10 or 100 Mb/s.
The 6-port Ethernet 10Gbps Adapter card and the 7705 SAR-X support speed autonegotiation and duplex autonegotiation on all SFP ports; SFP+ ports do not support autonegotiation. Each SFP port can run in full-duplex mode or half-duplex mode at 10 Mb/s or 100 Mb/s, and in full-duplex mode at 1 Gb/s. Each SFP+ port can run in full-duplex mode at 10 Gb/s.
Speed autonegotiation takes place automatically — all ports are configured for speed autonegotiation by default. Speed autonegotiation might need to be disabled (for example, if a port must be forced to a certain speed or to avoid speed negotiation loops between the Ethernet Adapter card and other devices). To turn off speed autonegotiation for a port, the user configures the port speed manually.
When autonegotiation is disabled on a port, the port does not attempt to autonegotiate and will only operate at the speed and duplex settings configured for the port. Also, when autonegotiation is disabled, the tx and rx pauses are enabled automatically (the tx and rx pauses are negotiated with the far end if autonegotiation is enabled).
If the autonegotiate limited keyword option is specified, the port will autonegotiate but will only advertise a specific speed and duplex mode. The speed and duplex mode advertised are the settings configured for the port. One use for limited mode is for multispeed gigabit ports to force gigabit operation while keeping autonegotiation enabled for compliance with IEEE 801.3.
The no form of this command disables autonegotiation on this port.
Caution:
|
Note:
|
autonegotiate
This command enables the port to respond to Loopback Messages (LBMs) and sets the queuing and scheduling conditions for handling CFM LBM frames. The user selects the desired QoS treatment by enabling the CFM loopback and including the high or low priority with the high or low keyword. The queue parameters and scheduler mappings associated with the high and low keywords are preconfigured and cannot be altered by the user.
The priority dot1p and match-vlan keywords apply only to physical ring ports on the 2-port 10GigE (Ethernet) Adapter card and 2-port 10GigE (Ethernet) module.
The parameters and mappings have the following settings:
CFM loopback support on a physical ring port on the 2-port 10GigE (Ethernet) Adapter card or 2-port 10GigE (Ethernet) module differs from other Ethernet ports. For these ports, cfm-loopback is configured using dot1p and an optional list of up to 16 VLANs. The null VLAN is always applied. The CFM Loopback Message will be processed if it does not contain a VLAN header, or if it contains a VLAN header with a VLAN ID that matches one in the configured match-vlan list.
The no form of the command disables the handling of CFM loopback frames.
no cfm-loopback
This command enables the context to configure Ethernet CRC monitoring parameters.
This command configures the error rate threshold at which the signal degrade condition is declared on an Ethernet interface. The error rate threshold value is the ratio of errored frames over total frames received, which is calculated as an average over the time set by the sliding window. The value is calculated as M × 10E-N, where M is the optional multiplier used to increase the error ratio, and N is the rate of errored frames allowed (threshold). For example, 3 × 10E-3 sets the error rate threshold at 3 errored frames per 1000 total frames received. If no window-size is configured, a default of 10-s is used. The CRC errors on the interface are sampled once per second.
The multiplier keyword is optional. If the multiplier keyword is omitted, the default value of 1 is used.
The no form of the command disables sd-threshold monitoring.
no sd-threshold
This command configures the error rate threshold at which the signal fail condition is declared on an Ethernet interface. The error rate threshold value is the ratio of errored frames over total frames received, which is calculated as an average over the time set by the sliding window. The value is calculated as M × 10E-N, where M is the optional multiplier used to increase the error ratio, and N is the rate of errored frames allowed (threshold). For example, 3 × 10E-3 sets the error rate threshold at 3 errored frames per 1000 total frames received. If no window-size is configured, a default of 10-s is used. The CRC errors on the interface are sampled once per second.
The multiplier keyword is optional. If the multiplier keyword is omitted, the default value of 1 is used.
The no form of the command disables sf-threshold monitoring.
no sf-threshold
This command configures the sliding window size over which the Ethernet frames are sampled to detect signal fail or signal degrade conditions. The command is used jointly with the sd-threshold and the sf-threshold commands.
A sliding window (window-size) is used to calculate a statistical average of CRC error statistics collected every second. Each second, the oldest statistics are dropped from the calculation. For example, if the default 10-s sliding window is configured, at the 11th second the oldest second of statistical data is dropped and the 11th second is included. This sliding average is compared against the configured SD and SF thresholds to determine if the error rate over the window exceeds one or both of the thresholds, which will generate an alarm and log event.
The no form of the command disables window-size monitoring.
10
This command specifies the Ethertype expected when the port’s encapsulation type is dot1q.
IEEE 802.1q (also known as VLAN tagging) defines a process to channelize a single Ethernet port or v-port into VLANs. Each VLAN can represent a customer or an application. Up to 4096 VLANs can be configured per port. For more information on VLANs and VLAN tagging, refer to “VLL Services” in the 7705 SAR Services Guide.
The Ethertype specifies the protocol being carried in an Ethernet frame. In 802.1q, the Ethertype is set to the Tag Protocol Identifier (TPID) value of 0x8100, which identifies the frame as an IEE 802.1Q-tagged frame. As well, 2 bytes of Tag Control Information (TCI), followed by 2 bytes containing the frame’s original Ethertype are added to the frame. Together, the TPID and TCI make up the VLAN tag.
For Ethernet ports, when the port encap-type is qinq, the dot1q-etype value sets the Ethertype for the inner VLAN tag. The qinq encapsulation type is not supported by a v-port, or by DSL or GPON modules on the 7705 SAR-M. However, qinq encapsulation is supported by the DSL block on the 7705 SAR-Wx.
Network ports do not allow dot1q-etype settings.
The no form of this command resets the dot1q-etype value to the default.
0x8100
This command enables the down-when-looped feature on Ethernet ports or v-ports. When the down-when-looped feature is activated, a keepalive loop PDU is transmitted periodically toward the network. The port listens for returning keepalive loop PDUs. A loop is detected if any of the received PDUs have an Ethertype value of 9000 and the source and destination MAC addresses are identical to the MAC address of the port. When a loop is detected, the port is immediately brought down.
Ethernet port-layer line loopbacks and Ethernet port-layer internal loopbacks can be enabled on the same port with the down-when-looped feature. EFM OAM cannot be enabled on the same port with the down-when-looped feature.
This command configures the time interval between the keepalive PDUs transmitted toward the network during loop detection by the down-when-looped feature.
10 s
This command configures the minimum wait time before re-enabling the Ethernet port or v-port after it is brought down due to a loop detection.
120
This command configures the down-when-looped feature to declare a loop when the destination MAC address matches the broadcast MAC address instead of the MAC address of the Ethernet port or v-port. You must enable use-broadcast-address if down-when-looped is enabled on DSL or GPON module ports.
This command configures the duplex mode of an Ethernet or Fast Ethernet port when autonegotiation is disabled.
The 10-port 1GigE/1-port 10GigE X-Adapter card must be in x10-1gb-sfp mode to support this command.
SFP slots hosting Ethernet or Fast Ethernet SFPs can be configured to full-duplex or half-duplex mode when autonegotiation is disabled. Duplex autonegotiation is automatically turned off when the user sets the mode with this command. SFP slots hosting optical GigE SFPs only support full-duplex mode; duplex autonegotiation is not supported.
On 10 Gb/s ports, the mode is always full duplex and cannot be changed. This includes the ring Ethernet XFP ports and the v-port on the 2-port 10GigE (Ethernet) Adapter card and 2-port 10GigE (Ethernet) module.
full
This command configures EFM-OAM attributes.
This command enables reactions to loopback control OAMPDUs from peers.
The no form of this command disables reactions to loopback control OAMPDUs.
no accept-remote-loopback
This command sets the amount of time that EFM-OAM will wait before going from a non-operational state to an operational state.
If EFM-OAM goes from an operational state to a non-operational state (other than link-fault), it enters the hold-time period. During this time, EFM-OAM continues to negotiate with the peer if possible, but will not transition to the “up” state until the hold time has expired.
If EFM-OAM goes down due to a lower-level fault (for example, the port goes down and EFM-OAM enters the link-fault state), the hold timer is not triggered. When the lower-level fault is cleared, EFM-OAM immediately starts running on the port and transitions to the operational state as soon as possible.
If EFM-OAM goes down because the user administratively disables the protocol, EFM-OAM immediately transitions to the disabled state. When the user re-enables EFM-OAM, the protocol enters the hold time period and EFM-OAM is not operational until the hold time expires.
A hold-time value of 0 indicates that EFM-OAM returns to the operational state without delay.
The hold time affects only the transition from a non-operational state to an operational state; it does not apply to a transition from an operational state to a non-operational state.
no hold-time
This command decouples the EFM OAM protocol from the port state and operational state.
When this command is configured on the port, any failure in the EFM protocol state (discovery, configuration, time-out, loops, and so on) does not affect the port. Only a protocol warning message is raised to indicate issues with the protocol.
When the command is not configured on a port, the port state is affected by any EFM OAM protocol fault or clear condition.
If the port is a member of a microwave link, the ignore-efm-state command must be enabled before the EFM OAM protocol can be activated. This restriction is required because EFM OAM is not compatible with microwave links.
no ignore-efm-state
This command configures the mode of OAM operation for this Ethernet port.
Active mode causes the port to initiate the negotiation process and continually send out efm-oam information PDUs. Passive mode waits for the peer to initiate the negotiation process. A passive mode port cannot initiate monitoring activities (such as loopback) with the peer.
active
This command configures the transmit interval of OAMPDUs.
interval 10, multiplier 5
This command enables EFM OAMPDU tunneling. OAMPDU tunneling is required when a loopback is initiated from a router end and must be transported over the existing network infrastructure to the other end. Enabling tunneling will allow the PDUs to be mapped to Epipes so that the OAM frames can be tunneled over MPLS to the far end.
To enable Ethernet EFM OAM 802.3ah on the port, use the efm-oam>no shutdown command.
The no form of the command disables tunneling.
no tunneling
This command configures the rate of traffic leaving the network.
On the 7705 SAR-M GPON module, this command configures the rate of traffic leaving the GPON port. The egress rate for the GPON port must be configured to match the traffic management parameters provisioned across the PON. These parameters can be viewed via TL1 on the OLT.
The no form of this command returns the value to the default.
no egress-rate
This command configures the rate of traffic leaving the network.
With the include-fcs option, the egress rate limit is applied to the traffic rate egressing the port with the 4-byte Ethernet FCS field included. If this option is not configured, the egress rate limit is applied to the traffic rate egressing the port without the 4-byte Ethernet FCS field included, and the actual rate of packets leaving the port is slightly higher than the configured egress rate value.
The include-fcs option is not supported on the 8-port Ethernet Adapter card (version 2), 7705 SAR-A Fast Ethernet ports (ports 9 to 12), or 4-port SAR-H Fast Ethernet module. On the 6-port SAR-M Ethernet module, the include-fcs option is always on and cannot be disabled to compensate for the 4-byte FCS.
The allow-eth-bn-rate-changes option enables the Y.1731 ETH-BN client MEP option on the port. In applications such as a point-to-point microwave link, where degradation on the line can result in reduced link bandwidth, the egress rate can be dynamically changed based on the available bandwidth on the link as indicated by the ETH-BN server. When enabled, the received rate overrides the configured sub-rate for the port. For information on ETH-BN, including which Ethernet ports support this functionality, refer to the 7705 SAR OAM and Diagnostics Guide, “ITU-T Y.1731 Ethernet Bandwidth Notification (ETH-BN)”.
The bandwidth indicated by the ETH-BN server includes the FCS; therefore, the include-fcs option must be selected if the allow-eth-bn-rate-changes option is selected or the dynamically changed bandwidth will not match the intended rate.
The hold-time is used to limit the number of bandwidth changes as requested by the ETH-BN server. After a rate change occurs based on a Bandwidth Notification Message (BNM), any BMN received before the hold timer expires will be ignored.
The no form of this command returns the value to the default.
no egress-rate
This command configures the encapsulation method used to distinguish customer traffic on an Ethernet or DSL access port, network v-port, GPON port, or different VLANs on a network port.
Before an MPR-e radio can be configured on an MWA port (see radio), the port must have an encapsulation type of dot1q.
The qinq encapsulation type is not supported by a v-port, or by DSL or GPON modules on the 7705 SAR-M. However, qinq encapsulation is supported by the DSL block on the 7705 SAR-Wx.
The no form of this command restores the default.
See also dot1q-etype and qinq-etype for information on tagging and encapsulation.
null
This command enables network group encryption (NGE) on the Ethernet port. When NGE is enabled on the port, all received Layer 2 IS-IS and LLDP packets are considered to be NGE packets and must be encrypted using a valid set of keys from any preconfigured key group on the system.
The no form of the command disables NGE on the Ethernet port. NGE cannot be disabled unless all key groups and IP exception filters are removed.
no group-encryption
This command is used to bind a key group to an Ethernet port for inbound or outbound packet processing. When configured in the outbound direction, packets egressing the router use the active-outbound-sa associated with the configured key group. When configured in the inbound direction, received packets must be encrypted using one of the valid security associations configured for the key group.
The no form of the command removes the key group from the Ethernet port in the specified direction.
no encryption-keygroup direction inbound
no encryption-keygroup direction outbound
This command configures port link dampening timers, which reduce the number of link transitions reported to upper layer protocols.
The hold-time value is used to dampen interface transitions.
When an interface transitions from an up state to a down state, interface down transitions are not advertised to upper layers until the hold-time-down interval has expired. When an interface transitions from a down state to an up state, interface up transitions are not advertised until the hold-time-up interval has expired.
If the hold-time-down or hold-time-up value is 0, interface down and interface up transitions are immediately reported to upper layer protocols.
The no form of this command reverts to the default values.
down 0 or up 0 — no port link dampening is enabled; link transitions are immediately reported to upper layer protocols
This command configures a policing action to rate-limit the ingress traffic. Ingress-rate enforcement uses dedicated hardware for rate limiting, however software configuration is required at the port level (ingress-rate limiter) to ensure that the network processor or adapter card or port never receives more traffic than they are optimized for.
The configured ingress rate ensures that the network processor does not receive traffic greater than this configured value on a per-port basis. Once the ingress-rate value is reached, all subsequent frames are dropped. The ingress-rate limiter drops excess traffic without classifying whether the traffic has a higher or lower priority.
Similar to the egress-rate configuration, the ingress-rate configuration survives port mode changes. If a port mode is changed (for example, from access to network mode), the ingress rate and configured CBS still remain when the port comes back up.
The no form of this command returns the value to the default.
no ingress-rate
Note: CBS is integrated with the ingress-rate command and you must always specify the CBS size every time you configure the ingress rate. If you use the default CBS size, then explicitly indicate that it is the CBS default. |
This command sends a notification to slow down the transmission rate when it exceeds the bandwidth limit. If incoming traffic exceeds the configured ingress rate, an src-pause frame is sent to the far end to hold transmission (src-pause delay timer). When the src-pause delay timer expires, the far end resumes transmission. The src-pause delay timer varies based on the difference between the incoming traffic rate and the configured ingress rate on the port. If the difference is large, then the far end must wait for a longer period before resuming transmission. The src-pause frame helps to prioritize far-end traffic so that the ingress-rate limiter does not drop high-priority traffic.
The ingress-rate limiter can be configured with or without src-pause; however, src-pause is disabled whenever the ingress-rate limiter is disabled.
The no form of this command disables the src-pause feature.
This command is blocked for the 6-port SAR-M Ethernet module.
no src-pause
This command enables LACP packet tunneling for the Ethernet port, DSL port, or GPON port. When tunneling is enabled, the port does not process any LACP packets, but tunnels them instead. A port with LACP packet tunneling enabled cannot be added as a member of a Link Aggregation Group (LAG).
The no form of this command disables LACP packet tunneling for the Ethernet port, DSL port, or GPON port.
no lacp-tunnel
This command configures timed line loopbacks on Ethernet and GPON network and access ports, timed line loopbacks on ring Ethernet network ports, untimed line loopbacks on Ethernet and GPON access ports, and timed and untimed internal loopbacks on Ethernet ports, DSL ports, and GPON ports.
For Ethernet and GPON ports, a line loopback loops frames received on the corresponding port back towards the transmit (egress) direction inside the network processor. Line loopbacks are supported on ports configured in network or access mode.
You can swap the source and destination MAC addresses of the received frames using the swap-src-dst-mac keyword. The swap-src-dst-mac keyword is not supported on ring Ethernet ports, GPON ports or DSL ports.
An internal loopback loops the frames that are coming in an egress direction from the fabric towards the framer, back to the fabric. This type of loopback is usually referred to as an equipment loopback. Internal loopbacks are supported on ports configured in access mode.
Loopback timers can be configured for 30 s to 86400 s. All non-zero timed loopbacks are turned off under the following conditions: an adapter card reset, DSL module reset, GPON module reset, an activity switch, or timer expiry. Line or internal loopbacks can also be configured as a latched loopback by setting the timer to 0 s, or as a persistent loopback with the persistent keyword. The persistent keyword is not supported on GPON ports or DSL ports.
Latched and persistent loopbacks are enabled indefinitely until turned off by the user. Latched loopbacks survive adapter card resets and activity switches, but are lost if there is a system restart. Persistent loopbacks survive adapter card resets and activity switches and can survive a system restart if the admin-save or admin-save-detail command was executed prior to the restart. Latched (untimed) persistent loopbacks can be enabled only on Ethernet access ports.
If a loopback exists on a port, it must be disabled or the timer must expire before another loopback can be configured on the same port. An Ethernet or DSL loopback cannot be configured on a port that has EFM-OAM enabled on it; EFM-OAM cannot be enabled on a port that has an Ethernet loopback enabled on it. EFM-OAM is not supported on GPON ports.
Persistent loopbacks are the only Ethernet loopbacks saved to the database by the admin-save and admin-save-detail commands.
The no form of this command disables the specified type of loopback.
This command assigns a specific MAC address to an Ethernet port, ring Ethernet port, v-port, DSL port, or GPON port. When the command is issued while the port is operational, IP will issue an ARP, if appropriate, and BPDUs are sent with the new MAC address.
The no form of this command returns the MAC address to the default value.
a default MAC address is assigned by the system
This command configures an Ethernet port, DSL port, or GPON port for access, network, or hybrid mode operation, or configures a ring Ethernet port or v-port for network mode. On ring Ethernet ports and the v-port, the mode is always network and cannot be changed.
An access port is used for customer-facing traffic on which services are configured. A Service Access Point (SAP) can only be configured on an access port or channel. Once an Ethernet, DSL, or GPON port has been configured for access mode, multiple services can be configured on it.
A network port participates in the service provider transport or infrastructure network when network mode is selected.
A hybrid Ethernet port allows the combination of network and access modes of operation on a per-VLAN basis and must be configured for either dot1q or qinq encapsulation.
A hybrid port must use dot1q encapsulation to be configured as a network IP interface. Binding a network IP interface to a qinq encapsulation is blocked. In hybrid mode, qinq encapsulation is for access mode use only.
If the hybrid port is configured for dot1q encapsulation, the user configures a SAP inside a service or a network IP interface as follows:
If the hybrid port is configured for qinq encapsulation, the user configures a SAP inside a service as follows:
The no form of this command restores the default.
access (except as listed below)
network
This command configures the maximum payload MTU size for an Ethernet port, v-port on Ethernet Ring adapter card, DSL, or GPON port (for ring Ethernet ports, the MTU value is fixed at 9728 bytes).
The port-level MTU parameter indirectly defines the largest physical packet the port can transmit or the far-end Ethernet port can receive. Packets to be transmitted over a given port that are larger than the MTU of the port will be fragmented or discarded, depending on whether the DF bit is set in the packet header.
If the port mode or encapsulation type is changed, the MTU assumes the default values of the new mode or encapsulation type.
The no form of this command restores the default values.
The default MTU value depends on the port type, mode, and encapsulation as listed in Table 27.
Port Type | Mode | Encap Type | Default (bytes) | Max MTU (bytes) |
10/100 Ethernet 1 | Access/ Network | null | 1514 | 9724 2 |
dot1q | 1518 | 9728 2 | ||
qinq 3 | 1522 (access only) | 9732 (access only) 2 | ||
GigE SFP 1 and 10-GigE SFP+ | Access/ Network | null | 1514 (access) 1572 (network) | 9724 (access and network) |
dot1q | 1518 (access) 1572 (network) | 9728 (access and network) | ||
qinq 3 | 1522 (access only) | 9732 (access only) | ||
Ring port | Network | null | 9728 (fixed) | 9728 (fixed) |
v-port (on Ring adapter card) | Network | null | 1572 | 9724 |
dot1q | 1572 | 9728 | ||
DSL: SHDSL bonding (7705 SAR-M) | Access/ Network | null | 1514 (access) 1572 (network) | 2044 |
dot1q | 1518 (access) 1572 (network) | 2048 | ||
DSL: xDSL bonding (7705 SAR-M) | Access/ Network | null | 1514 (access) 1572 (network) | 1996 |
dot1q | 1518 (access) 1572 (network) | 2000 | ||
DSL: xDSL bonding (7705 SAR-Wx) | Access/ Network | null | 1514 (access) 1572 (network) | 1996 |
dot1q | 1518 (access) 1572 (network) | 2000 | ||
qinq 3 | 1522 (access only) | 2000 (access only) | ||
GPON | Access/Network | null | 1514 (access) 1572 (network) | 2000 |
dot1q | 1518 (access) 1572 (network) | 2000 |
Notes:
This command configures the 1000Base-T physical layer transmit clock. The mode affects the establishment of the master-slave relationship between two ports sharing a link segment during auto-negotiation. The master port uses a local clock to determine the timing of transmitter operations. The slave port recovers the clock from the signal it receives and uses the signal to determine the timing of transmitter operations. For ports that do not support 1000Base-T, the value defaults to N/A and cannot be changed.
The phy-tx-clock configuration is supported on SFP ports whether or not the SFP is inserted. The phy-tx-clock command applies only to copper-based RJ-45 synchronous Ethernet ports. The command can be used on an SFP port that supports fiber and copper, but the command has no effect if a fiber SFP is installed.
The proper value must be set to ensure that the synchronous Ethernet clock relay is correctly configured. See the 7705 SAR Basic System Configuration Guide for more information about synchronous Ethernet.
The default value for the MWA 1000Base-T Ethernet ports on the Packet Microwave Adapter card is master. On other adapter cards, the default value is auto-pref-slave for ports that support 1000Base-T Ethernet connections. The default value is n/a for ports that do not support 1000Base-T Ethernet connections.
The poe command enables an RJ-45 or RJ point five port that is Power over Ethernet (PoE) capable to deliver power to a “Powered Device” at levels compatible with the IEEE 802.3af standard.
The poe plus command enables an RJ-45 or RJ point five port that is PoE+ capable to deliver power to a “Powered Device” at levels compatible with the IEEE 802.3at standard.
On the 7705 SAR-H, 7705 SAR-Hc, and 6-port SAR-M Ethernet module, a PoE-capable port can be configured for PoE and PoE+. On the 7705 SAR-W and 7705 SAR-Wx, a PoE-capable port only supports PoE+ and can only be enabled using the poe plus command.
On the 7705 SAR-H, before a port can be configured for either PoE or PoE+, the PoE power source option must first be configured as either internal or external using the config>system>poe-power-source command; refer to the 7705 SAR Basic System Configuration Guide, “System Command Reference”, for information.
When the 7705 SAR-H is configured for the internal power source option, PoE capability is allowed on ports 5 and 6 only. Port 5 can be configured for PoE+ but in that case, port 6 cannot support PoE. When the system is configured for the external power source option, a mix of PoE and PoE+ is allowed on ports 5, 6, 7, and 8. PoE+ is supported only on ports 5 and 7. Table 28 describes the allowed mix of PoE and PoE+ ports on the 7705 SAR-H.
PoE Power Supply Source | Port 5 | Port 6 | Port 7 | Port 8 | Supported PoE/PoE+ Combinations |
Internal | PoE | PoE | No PoE | No PoE | Two PoE ports |
Internal | PoE+ | No PoE | No PoE | No PoE | One PoE+ port |
External | PoE | PoE | PoE | PoE | Four PoE ports |
External | PoE | PoE | PoE+ | PoE | Three PoE ports and one PoE+ port |
External | PoE+ | No PoE | PoE+ | PoE | One PoE port and two PoE+ ports |
On the 6-port SAR-M Ethernet module, ports 5 and 6 on the module can each support PoE. Port 5 can also support PoE+, but if it is configured for PoE+, then port 6 cannot support PoE power.
On the 7705 SAR-Hc, ports 5 and 6 each support PoE and PoE+. If configured for PoE, both ports can be used for PoE simultaneously. Both ports are also capable of supporting PoE+ but not simultaneously; if one port is configured for PoE+, the other port can only be configured for PoE. Ports 5 and 6 can also operate in non-PoE mode.
On the 7705 SAR-W, ports 4 and 5 support PoE+. Both ports can operate in non-PoE+ mode. On the 7705 SAR-Wx, port 5 (the RJ-45 port labeled PoE) supports PoE+. The port can also operate in non-PoE+ mode.
To disable PoE/PoE+ on a port and prevent it from delivering power, use the no form of the command. Performing a shutdown command on the port does not disable PoE/PoE+ on the port.
n/a
This command configures the PTP asymmetry delay delta on an Ethernet port. The command corrects for known asymmetry for time of day/phase recovery of PTP packets on both local and downstream PTP slave clocks as well as on end-to-end transparent clocks.
This command specifies the Ethertype expected when the port’s encapsulation type is qinq. The qinq-etype value sets the Ethertype for the outer VLAN tag when qinq encapsulation is used.
IEEE 802.1ad (also known as VLAN stacking) defines a process to channelize a single Ethernet port or v-port into double-tagged VLANs. Each VLAN can represent a customer or an application. Each tag allows for up to 4096 VLANs to be configured on a port (4096 × 4096 total). For more information on VLANs and VLAN tagging, refer to “VLL Services” in the 7705 SAR Services Guide.
The Ethertype specifies the protocol being carried in an Ethernet frame. In 802.1q, the Ethertype is set to the Tag Protocol Identifier (TPID) value of 0x8100, which identifies the frame as an IEEE 802.1Q-tagged frame. As well, 2 bytes of Tag Control Information (TCI), followed by 2 bytes containing the frame’s original Ethertype are added to the frame for each tag (4 bytes total). Together, the TPID and TCI make up a VLAN tag.
The qinq-etype command is not supported by a v-port, or by DSL or GPON modules on the 7705 SAR-M. However, qinq-etype is supported by the DSL block on the 7705 SAR-Wx.
Network ports do not allow qinq-etype settings.
The no form of this command resets the qinq-etype value to the default.
0x8100
This command specifies when and if to generate alarms and alarm clear notifications for this port.
The command applies only to the physical 10GigE ports on the 7705 SAR-X, 6-port Ethernet 10Gbps Adapter card, 2-port 10GigE (Ethernet) Adapter card, and 2-port 10GigE (Ethernet) module, and on the 10-port 1GigE/1-port 10GigE X-Adapter card in 1-port 10GigE mode (select x1-10GigE-sf+ with the mda-mode command).
This command configures the port speed of an Ethernet port, ring Ethernet port, or v-port when autonegotiation is disabled.
100 (for Fast Ethernet ports on the 8-port Ethernet Adapter card, 7705 SAR-A (ports 9 to 12), 7705 SAR-Hc (ports 3 and 4), 4-port SAR-H Fast Ethernet module, and 6-port SAR-M Ethernet module (ports 1 and 2))
1000 (for Gigabit Ethernet ports on all adapter cards, modules, and fixed platforms)
2500 on a v-port (this default cannot be changed)
10000 (for the 10-port 1GigE/1-port 10GigE X-Adapter card in 1-port 10GigE mode, 2-port 10GigE (Ethernet) Adapter card, 2-port 10GigE (Ethernet) module, 6-port Ethernet 10Gbps Adapter card (ports 5 and 6), 7705 SAR-X (ports 1/2/7 and 1/3/7)
This command enables the Ethernet Synchronization Message Channel (ESMC) capability on a synchronous Ethernet port on the following:
The ssm command is enabled and disabled using the no shutdown and shutdown commands.
On the 2-port 10GigE (Ethernet) Adapter card and 2-port 10GigE (Ethernet) module, SSM frames received on the ring Ethernet ports are extracted for processing through the v-port. Therefore, the v-port must be active (that is, in no shutdown mode) in order for SSM to function. The v-port must also be active in order for the 2-port 10GigE (Ethernet) Adapter card or 2-port 10GigE (Ethernet) module to transmit SSM frames. No additional interface or IP configuration is required on the v-port for SSM.
shutdown
This command specifies whether to use SDH or SONET values for the encoding of synchronous status messages on a:
sdh
This command sets the quality level value transmitted from the Synchronization Status Messaging (SSM) channel of the following ports to QL-DUS/QL-DNU (do not use for synchronization for timing purposes):
The value depends on whether the port type is copper or fiber. The default value is:
This command associates a VLAN filter policy with an ingress ring port on the 2-port 10GigE (Ethernet) Adapter card or 2-port 10GigE (Ethernet) module.
Filter policies control the forwarding and dropping of packets based on matching criteria. Only one filter policy can be applied to a ring port at a time. The same filter policy can be applied to both ring ports.
The filter-id must already be defined before the vlan-filter command is executed. If the filter policy does not exist, the operation will fail and an error message will be displayed.
The no form of the command removes any configured filter-id association with the ring port. The filter policy cannot be deleted until it is removed from all ring ports where it is applied.
n/a
This command configures the specified 10-Gb/s interface in LAN or WAN mode. When configuring the port for WAN mode, you can change some SONET/SDH parameters to reflect the SONET/SDH requirements for this port. When you configure a port for LAN mode, all SONET/SDH parameters are predetermined and not configurable. The command is supported on the 7705 SAR-X, 6-port Ethernet 10Gbps Adapter card, 10-port 1GigE/1-port 10GigE X-Adapter card, 2-port 10GigE (Ethernet) Adapter card, and 2-port 10GigE (Ethernet) module.
On the 6-port Ethernet 10Gbps Adapter card, both 10-Gb/s interfaces (ports 5 and 6) operate in the same xgig mode, either LAN mode or WAN mode. Setting the xgig mode for either port sets the mode for both ports.
lan
This command configures the operational mode of Ethernet XOR combination ports. Ethernet XOR ports on the 7705 SAR-A, 7705 SAR-Ax, 7705 SAR-H, and 7705 SAR-X can be configured to operate as either RJ-45 ports or SFP ports. Ethernet XOR ports on the 6-port SAR-M Ethernet module can be configured to operate as either RJ point five ports or SFP ports. The mode can be configured on each port independently. Refer to the individual hardware installation guides for more information.
rj45 (for applicable 7705 SAR chassis); rjp5 (for 6-port SAR-M Ethernet module)
This command enables the context to configure DSL port attributes on an 8-port xDSL module, a 6-port DSL Combination module, or an xDSL port on a 7705 SAR-Wx.
This command configures a DSL port to support POTS or ISDN non-overlapped spectrum over ADSL2+, in accordance with ITU G.992.5 Annex A and B. This command is supported on the two xDSL ports on the 6-port DSL Combination module, on any port on the 8-port xDSL module configured for xDSL, and on the xDSL port on the 7705 SAR-Wx.
g992-5-a
This command configures an ATM PVC for traffic on DSL lines in ADSL2 or ADSL2+ bonded ATM mode.
This command configures a DSL line.
1 | Available for any DSL line | |
2 | Reserved for xDSL on the 6-port DSL Combination module | |
4 | Reserved for SHDSL on the 6-port DSL Combination module or the xDSL port on the 7705 SAR-Wx | |
8 | Reserved for xDSL on the 8-port xDSL module |
This command enters the context to perform GPON port configuration.
n/a
This command configures a permanent Subscriber Location ID (SLID). SLIDs can be configured in decimal, alphanumeric or hexadecimal format, but the SLID will always be displayed in hexadecimal format.
The no form of the command reverts to the default.
44:45:46:41:55:4C:54:00:00:00 / “DEFAULT”
This command enters the context to perform GNSS receiver port configuration.
n/a
This command configures the expected signal delay resulting from the length of the antenna cable.
The no form of this command returns the value to the default.
0
This command configures the elevation mask angle. It provides a method of filtering satellites to be used by the system.
Configuring an elevation mask angle below 10° is not recommended.
The no form of this command returns the value to the default.
10
This command configures which GNSS system or systems will be used by the GNSS receiver.
The no form of this command removes the specified GNSS system or systems.
By default, gps is configured. Configuring glonass does not remove gps; the GNSS receiver will use both GPS and GLONASS systems.
gps
This command enables access to the context to configure port-specific 802.1x authentication attributes on an Ethernet port.
This command enables MAC-based authentication. To use MAC-based authentication, 802.1x authentication must first be enabled using the port-control auto command.
When MAC-based authentication is enabled, and the mac-auth-wait timer expires, the 7705 SAR begins listening on the port for valid Ethernet frames. The source address of a received frame is used for MAC-based authentication.
The no form of this command disables MAC-based authentication.
no mac-auth
This command configures the delay period before MAC authentication is activated and the 7705 SAR searches for a valid client MAC address.
The no form of this command disables the delay and allows MAC authentication to be used immediately.
no mac-auth-wait
This command configures the maximum number of times that the 7705 SAR will send an access request RADIUS message to the RADIUS server. If a reply is not received from the RADIUS server after the specified number of attempts, the 802.1x authentication process is considered to have failed.
The no form of this command returns the value to the default.
2
This command configures the 802.1x authentication mode.
The no form of this command returns the value to the default.
force-auth
This command configures the time between two authentication sessions during which no EAPOL frames are sent by the 7705 SAR. The timer is started after sending an EAP-Failure message or after expiry of the supplicant timeout timer.
The no form of this command returns the value to the default.
60
This command configures the RADIUS policy to be used for 802.1x authentication. An 802.1x RADIUS policy must be configured (under config>system>security>dot1x) before it can be associated with a port. If the RADIUS policy ID does not exist, an error is returned. Only one 802.1x RADIUS policy can be associated with a port at a time.
The no form of this command removes the RADIUS policy association.
no radius-plcy
This command configures the number of seconds the system will wait before performing reauthentication. This value is only relevant if reauthentication is enabled with the re-authentication command.
The no form of this command returns the value to the default.
3600
This command enables or disables periodic 802.1x reauthentication.
When reauthentication is enabled, the 7705 SAR will reauthenticate clients on the port after waiting the number of seconds defined by the re-auth-period command.
The no form of this command disables 802.1x reauthentication.
no re-authentication
This command configures the time during which the 7705 SAR waits for the RADIUS server to respond to its access request message. When this timer expires, the 7705 SAR will resend the access request message, up to the number of times specified by the max-auth-req command.
The no form of this command returns the value to the default.
30
This command configures the time the 7705 SAR waits for a client to respond to its EAPOL messages. When the supplicant timeout period expires, the 802.1x authentication session is considered to have failed.
The no form of this command returns the value to the default.
30
This command configures the time after which the 7705 SAR sends a new EAPOL request message.
The no form of this command returns the value to the default.
30
Refer to the 7705 SAR Basic System Configuration Guide, “System Management”, for LLDP system commands.
This command enables the context to configure LLDP parameters on the specified port.
Note: In order for LLDP to be operational on the Ethernet ports on the 2-port 10GigE (Ethernet) Adapter card/module, the v-port must be active (that is, in no shutdown mode). |
This command configures destination MAC address parameters.
This command specifies the administratively desired status of the local LLDP agent.
disabled
This command enables LLDP notifications.
The no form of the command disables LLDP notifications.
no notification
This command specifies how to encode the port ID TLV transmit to the peer. The default setting tx-local (ifindex value) is required by some versions of the NSP NFM-P to properly build the Layer 2 topology map using LLDP. Changing this value to transmit the ifName (tx-if-name) or ifAlias (tx-if-alias) in place of the ifindex (tx-local) may affect the ability of the NSP NFM-P to build the Layer 2 topology map using LLDP.
tx-local
This command specifies which management address to transmit. The 7705 SAR can only be configured to send or not send the system address.
If the no form of the command is used, the port will not include the system management address TLV in any LLDPDUs it transmits.
no tx-mgmt-address
This command specifies which LLDP optional TLVs to transmit.
If the no form of the command is used, the port will not include any optional TLVs in any LLDPDUs it transmits.
no tx-tlvs
This command disables MAC address aging across an Ethernet ring.
As is the case for a Layer 2 switch, learned MACs can be aged out if no packets are sourced from the MAC address for a period of time (the aging time). In each ring, there are independent aging timers for local learned MAC and remote learned MAC entries in the FDB. The disable-aging command turns off aging for local and remote learned MAC addresses.
The no form of this command enables aging on the ring.
no disable-aging
This command disables learning of new MAC addresses in the ring FDB.
When disable-learning is enabled, new source MAC addresses will not be entered in the ring FDB. This is true for both local and remote MAC addresses.
When disable-learning is disabled, new source MAC addresses will be learned and entered into the ring FDB.
This parameter is mainly used in conjunction with the discard-unknown-source command.
The no form of this command enables learning of MAC addresses.
no disable-learning
This command specifies that packets with an unknown source MAC address received on a ring port will be dropped if the source MAC is not already in the FDB (that is, the source MAC was not learned before the discard-unknown-source command was enabled or is not a static entry already created for the packet MAC).
When disabled, the packets are flooded to the other ring port or forwarded to the v-port (if the packets are addressed to the v-port).
The no form of this command disables discard-unknown-source.
no discard-unknown-source
This command specifies the upper threshold value for learned FDB entries. The high-water-mark is configured as a percentage of the FDB. When the number of FDB entries exceeds the high-water-mark, the system raises a log event.
The no form of this command returns the maximum FDB table high-water-mark to the default (95%).
no fdb-table-high-wmark
This command specifies the maximum number of MAC entries in the dynamic FDB for the ring.
The no form of this command returns the maximum FDB table size to the default (512).
no fdb-table-size
This command keeps MAC address information that has been learned from a source frame in the FDB until the expiry of the mac-aging timer, which is specified using the remote-age command). If a MAC address is pinned and a frame with an existing source MAC address is received from the other ring port, the FDB entry is not altered—the address that was learned from the first source frame is preserved until the expiry of the aging timer. If the aging timer is disabled, then the MAC address remains pinned until the timer is enabled again.
The no form of this command disables mac-pinning.
no mac-pinning
This command specifies the aging time for remotely learned MAC addresses in the FDB.
As is the case for a Layer 2 switch, learned MAC addresses can be aged out if no packets are sourced from the MAC address for a period of time (the aging time). The remote-age timer specifies the aging time for remotely learned MAC addresses.
The no form of this command returns the remote aging timer to the default value (900 s).
no remote-age
This command creates a local static MAC entry in the FDB for the specified port. The maximum number of static MAC addresses per ring adapter card is 256.
Static MAC definitions on one edge device are not propagated to other edge devices; that is, each edge device has an independent FDB.
Only one static MAC entry (local or remote) can be defined per MAC address per instance.
By default, no static MAC address entries are defined.
The no form of this command deletes the static MAC entry with the specified MAC address associated with the port from the FDB.
This command enables the context to configure RS-232, V.35, or X.21 parameters for a port on a channelized 12-port Serial Data Interface card, or to configure RS-232 parameters for an RS-232 port on the 7705 SAR-Hc or on the 4-port T1/E1 and RS-232 Combination module. This context cannot be accessed by any other card.
A serial port configuration allows some or all of the bandwidth to be dedicated to a port by aggregating a number of DS0s into a single bundle.
Serial data transmission rates below the rate of a single DS0, that is, less than 64 kb/s, are achieved using a proprietary protocol called High Capacity Multiplexing (HCM). These speeds, known as subrate speeds, are supported only on RS-232 and X.21 ports.
On the 12-port Serial Data Interface card, version 1 or version 2, if the port has been enabled for an RS-530 interface through the use of an adapter cable, X.21 configuration applies to the RS-530 interface. There is no configuration specifically for RS-530 operation on these card versions. For the 12-port Serial Data Interface card, version 3, there is a separate rs530 command to configure RS-530 channel parameters.
n/a
This command enables the context to configure RS-232 parameters for a channel. Once one of the ports on a connector has been configured for an RS-232 channel, the other ports on the connector can only be configured for RS-232.
The no form of this command deletes the RS-232 channel.
n/a
This command enables the context to configure RS-530 parameters for a channel on a 12-port Serial Data Interface card, version 3. Once one of the ports on a connector has been configured for an RS-530 channel, the other port on the connector can only be configured for RS-530.
The no form of this command deletes the RS-530 channel.
n/a
This command enables the context to configure V.35 parameters for a channel. Once one of the ports on a connector has been configured for a V.35 channel, the other ports on the connector can only be configured for V.35. The no form of this command deletes the V.35 channel.
The no form of this command deletes the V.35 channel.
n/a
This command enables the context to configure X.21 parameters for a channel. Once one of the ports on a connector has been configured for an X.21 channel, the other ports on the connector can only be configured for X.21.
On a 12-port Serial Data Interface card, version 1 or version 2, if the port has been enabled for an RS-530 interface through the use of an adapter cable, X.21 configuration applies to the RS-530 interface. There is no configuration specifically for RS-530 operation. All X.21 functionality is available on the RS-530 interface, except that only DCE operation is supported for RS-530. However, because X.21 does not support all the control leads available for RS-530, only a subset of the RS-530 control leads are supported.
The no form of this command deletes the X.21 channel.
n/a
This command configures the number of data bits used to transmit a character. This command is valid only if device-mode is asynchronous. The value for this command cannot be 8 if the value for parity is anything other than no parity (that is, anything other than none) and the value for stop-bits is 2.
8
This command configures the source of the transmit clock. The command is valid only if device-mode is synchronous.
Table 29 describes the clocking options. See the device-gender command for information on setting DTE or DCE on serial data interface ports.
Attached Device Gender | 7705 SAR Port Gender | Tx Clock Option | Description | ||
DTE | DCE | DTE | DCE | ||
✓ | ✓ | Slave | DCE slave: the transmit and receive clocks arederived from the Baud Rate Generator (BRG) locked to the system timing | ||
✓ | ✓ | Slave | DTE slave: the transmit and receive clocks arederived are supplied by the attached DCE device | ||
✓ | ✓ | DCR serial | DCR DCE: the transmit and receive clocks arederived from the far-end clock transported via DCR serial (12-port Serial Data Interface card, version 3, only) | ||
✓ | ✓ | DCR serial | DCR DTE: the transmit and receive clocks are supplied by the attached DCE device (12-port Serial Data Interface card, version 3, only) | ||
✓ | ✓ | External 1 | DCE Ext: the transmit clock is provided by the attached DTE device. The received clock is derived from the internal BRG. (12-port Serial Data Interface card, version 3, only) | ||
✓ | ✓ | External 1 | DTE Ext: the transmit clock is provided by the attached DCE device. The received clock is derived from the internal BRG. (12-port Serial Data Interface card, version 3, only) |
Note:
slave
This command enables access to the context to configure the input and output leads that carry control signals. Control signals provide the handshaking for call setup, teardown, and synchronization.
n/a
This command enables access to the context to configure the input control leads.
n/a
This command configures the Analog Loopback (ALB) or Clear To Send (CTS) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is ALB. For a DTE device, the input signal is CTS.
This command is valid only for RS-232 and V.35 interfaces.
high
This command configures the Control (C) or Indication (I) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is C. For a DTE device, the input signal is I.
This command is valid only for X.21 interfaces.
high
This command configures the Data Terminal Ready (DTR) or Data Set Ready (DSR) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is DTR. For a DTE device, the input signal is DSR.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
high
This command configures the Local Loopback (LL) or Test Mode (TM) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is LL. For a DTE device, the input signal is TM.
This command is valid only for RS-530 interfaces.
on
This command configures the Remote Digital Loopback (RDL) or Ring Indicator (RI) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is RDL. For a DTE device, the input signal is RI.
This command is valid only for RS-232 interfaces.
high
This command configures the Remote Loopback (RL) or Clear To Send (CTS) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is RL. For a DTE device, the input signal is CTS.
This command is valid only for RS-530 interfaces.
high
This command configures the Request To Send (RTS) or Data Carrier Detect (DCD) input control lead. The input signal that is sent depends on the device-gender setting. For a DCE device, the input signal is RTS. For a DTE device, the input signal is DCD.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
high
This command enables access to the context to monitor the input control leads. When monitoring is enabled on a control lead, the 7705 SAR polls the status of the control lead every second. Any change in state of the control lead causes an alarm to be raised. This functionality provides an indication to the operator of a problem in the DTE-to-DCE path; for example, it can indicate that the far-end device is disconnected.
Monitoring is enabled on a per-lead basis. The monitoring functionality is supported on ports configured for either DTE or DCE.
n/a
This command enables monitoring on the Analog Loopback (ALB) or Clear To Send (CTS) input control lead. For a DCE device, the input control lead is ALB. For a DTE device, the input control lead is CTS.
This command is valid only for RS-232 and V.35 interfaces.
off
This command enables monitoring on the Control (C) or Indication (I) input control lead. For a DCE device, the input control lead is C. For a DTE device, the input control lead is I.
This command is valid only for an X.21 interface.
off
This command enables monitoring on the Data Terminal Ready (DTR) or Data Set Ready (DSR) input control lead. For a DCE device, the input control lead is DTR. For a DTE device, the input control lead is DSR.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
off
This command enables monitoring on the Local Loopback (LL) or Test Mode (TM) input control lead. For a DCE device, the input signal is LL. For a DTE device, the input signal is TM.
This command is valid only for RS-530 interfaces.
on
This command enables monitoring on the Remote Loopback (RL) or Clear To Send (CTS) input control lead. For a DCE device, the input signal is RL. For a DTE device, the input signal is CTS.
This command is valid only for RS-530 interfaces.
high
This command enables monitoring on the Remote Digital Loopback (RDL) or Ring Indicator (RI) input control lead. For a DCE device, the input control lead is RDL. For a DTE device, the input control lead is RI.
This command is valid only for RS-232 interfaces.
off
This command enables monitoring on the Request To Send (RTS) or Data Carrier Detect (DCD) input control lead. For a DCE device, the input control lead is RTS. For a DTE device, the input control lead is DCD.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
off
This command enables access to the context to configure the output control leads.
n/a
This command configures the Clear To Send (CTS) or Analog Loopback (ALB) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is CTS. For a DTE device, the output signal is ALB.
This command is valid only for RS-232 and V.35 interfaces.
high
This command configures the Clear To Send (CTS) or Remote Loopback (RL) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is CTS. For a DTE device, the output signal is RL.
This command is valid only for RS-530 interfaces.
high
This command configures the Data Carrier Detect (DCD) or Request To Send (RTS) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is DCD. For a DTE device, the output signal is RTS.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
high
This command configures the Data Set Ready (DSR) or Data Terminal Ready (DTR) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is DSR. For a DTE device, the output signal is DTR.
This command is valid only for RS-232, RS-530, and V.35 interfaces.
high
This command configures the Test Mode (TM) or Local Loopback (LL) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is TM. For a DTE device, the output signal is LL.
This command is valid only for RS-530 interfaces.
high
This command configures the Indication (I) or Control (C) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is I. For a DTE device, the output signal is C.
This command is valid only for X.21 interfaces.
high
This command configures the Ring Indicator (RI) or Remote Digital Loopback (RDL) output control lead. The output signal that is sent depends on the device-gender setting. For a DCE device, the output signal is RI. For a DTE device, the output signal is RDL.
This command is valid only for RS-232 interfaces.
high
This command configures the HCM data start position for an RS-232, RS-530, or X.21 interface.
When s-bit-signaling is on, the F0-B6 option is blocked. When the data position is set to F0-B6, S-bit signaling cannot be turned on.
This command is only valid for ports configured for subrate speeds.
Note: The HCM frame (10-row by 8-column matrix) cannot be displayed on the CLI. |
F0-B5
This command configures the gender of the device.
Data and control signals are transmitted and received over wire pairs. The gender of a device indicates which wire in the pair is used to send and receive the signal.
On ports on the 12-port Serial Data Interface card, version 1 and version 2, the data and control signals are electrically wired as DCE. Regardless of the gender configured, the Tx pin on the port is always an input pin and the Rx pin on the port is always an output pin. Changing a port from DCE to DTE does not change the pin orientation. Therefore, when a port is configured as DTE, a crossover cable is required in order to interconnect with some serial devices. If the port has been enabled for an RS-530 interface through the use of an adapter cable, only DCE operation is supported.
Note: On the 12-port Serial Data Interface card, version 3, device-gender must match the cable type being used (either DCE or DTE). |
dce
This command configures the mode of operation for the device. An RS-232, RS-530, or X.21 channel can be configured for either synchronous or asynchronous mode. Asynchronous mode is not supported on a V.35 or RS-530 channel; these channels can only be configured for synchronous mode.
Asynchronous mode is supported only on channels with subrate speeds of 38 400 b/s or less.
On the 12-port Serial Data Interface Card, version 3, a V.35, X.21, or RS-530 channel operating at a super-rate speed can be configured for synchronous mode.
synchronous
This command configures the duplex mode.
Half-duplex mode uses a single transmission path.
Full-duplex mode uses two independent transmission paths, one in each direction, allowing two connected devices to transmit and receive data simultaneously.
Half-duplex mode is not user-selectable; an error message is displayed if this option is selected. Half-duplex mode is selected automatically if multidrop data bridge (multi-drop) is configured in slave mode (applies to RS-232 only).
full
This command configures the serial link dampening timers in 100s of milliseconds, which guards against reporting excessive interface transitions. Once implemented, subsequent transitions of the interface from one state to another are not advertised to upper layer protocols until the configured timer has expired.
no hold-time
This command enables the inverting of the clock used to sample data.
The no form of this command disables loopback on the inverting of the clock used to sample data.
This command is only supported on the 12-port Serial Data Interface card, version 3.
n/a
This command puts the specified interface into a loopback mode. The corresponding interface must be in a shutdown state in order for the loopback mode to be enabled.
In the serial context, a bidirectional loopback B or E may be configured. A bidirectional loopback is a circuit loopback that loops traffic from the line back to the line and simultaneously loops traffic from the system back to the system. Bidirectional loopback B takes place on the control card (CSM) side of the adapter card, and is closer to the system. Loopback E takes place on the data device side of the adapter card, and is closer to the line.
This command is not saved in the system configuration between boots.
The no form of this command disables loopback on the interface.
no loopback
This command raises or clears the debounce time for monitoring clock deviation.
The no form of this command removes the monitoring clock deviation configuration.
This command is only supported on the 12-port Serial Data Interface card, version 3.
no mon-clock-deviation
This command raises or clears the debounce time for monitoring data inactivity.
The no form of this command removes the monitoring data inactivity configuration.
This command is only supported on the 12-port Serial Data Interface card, version 3.
no mon-data-inactivity
This command configures the multidrop data bridge (MDDB) mode. MDDB is a polling scheme used on SCADA networks (supervisory or control systems used in utility, oil and gas, and other vertical applications) to communicate with multiple remote terminal units (RTUs) over a single RS-232, RS-530, or X.21 link.
In an MDDB, several circuits take turns using the same bandwidth to communicate with one circuit. Each slave device transmits data in that bandwidth when requested by the master device. The master device sends polling messages to, and looks for data from, the slave devices in that bandwidth.
One example of a multidrop data bridge is several terminals taking turns to communicate with a host computer. The circuit that all the other circuits communicate with is connected to a master device (a computer) and is designated the master; the rest of the circuits are connected to slave devices (terminals) and are designated slaves.
In a SCADA network, the 7705 SAR provides the communications infrastructure to connect the central masters to multiple RTUs at remote locations, where the masters and RTUs communicate over serial RS-232 and X.21 synchronous or asynchronous links, or serial RS-530 asynchronous links (RS-530 links are only supported on the 12-port Serial Data Interface card, version 3). The 7705 SAR-8 or 7705 SAR-18 located at the master site contains the Integrated Services card, which provides the MDDB bridge functionality and acts as the MDDB master. Remote 7705 SAR nodes connected to RTUs are referred to as MDDB slaves.
For both master and slave applications, the 7705 SAR must be physically connected to the SCADA device by one of the following:
Note: The 12-port Serial Data Interface card, version 1 and version 2, supports the RS-530/RS-422 interface with the use of an adapter cable that connects to a DB15 connector on the front of the X.21 distribution panel. There is no configuration specifically for the RS-530/RS-422 interface on this card; configuration is done in X.21 mode and applies to the RS-530/RS-422 interface when it is physically enabled through hardware. For information about 12-port Serial Data Interface card adapter cables, see the 7705 SAR Serial Data Interface Card Installation Guide. The 12-port Serial Data Interface card, version 3, supports the RS-530 interface without the need for an adapter cable. |
Multidrop data bridge is supported only at subrate speeds (less than 64 kb/s) on X.21 interfaces.
When an RS-232 interface is configured as an MDDB slave, the duplex mode is automatically set to half-duplex and s-bit-signaling is forced off. When multidrop data bridge is disabled, the duplex mode is set back to the default of full-duplex and S-bit signaling is turned on (but can be set back to off).
Note: An X.21 interface configured as an MDDB slave does not change duplex mode; half-duplex is not supported on X.21. |
When either an RS-232, RS-530, or X.21 interface is configured as an MDDB master, the duplex mode is automatically set to full-duplex and S-bit signaling is forced off.
disabled
This command configures the parity bit in a character. Parity is an error detection method that adds an extra bit to each character, based on the number of 0s or 1s in the character.
This command is valid only if device-mode is asynchronous. The value for this command must be no parity (that is, none) if the character-length value is 8 and the stop-bits value is 2.
The no form of this command disables the parity bit in a character.
no parity
This command enables logging of alarms.
The no form of this command disables the logging of the specified alarms.
This command configures the S-bit signaling option on the RS-232, RS-530, or X.21 interface.
For RS-232 interfaces only, if multi-drop is configured as slave or master, the system automatically turns S-bit signaling off. The signaling mode cannot then be changed. If multi-drop is configured as disabled, the system automatically turns S-bit signaling on. When multi-drop is in disabled mode, S-bit signaling can be turned off or on.
This command is only valid for ports configured for subrate speeds.
on
This command creates a socket on an RS-232 port. When a socket is configured, the RS-232 channel-group command is blocked. If the port is already configured as a channel group before the socket is configured, this command is blocked.
The no form of the command deletes the socket from the serial port.
n/a
This command specifies the encapsulation type for a socket. When the encapsulation type is set, then the socket is considered operational and the port can be further configured as an IP transport subservice under an IES or VPRN service.
If the serial port has already been configured as an IES or VPRN IP transport subservice, then this command is blocked until the IP transport subservice is deconfigured.
raw
This command enables the context to configure parameters for data packets received over a serial port’s raw socket.
n/a
This command enables the context to configure end-of-packet (EOP) parameters for data packets received over the socket.
Note: An end of packet will be declared by whichever EOP condition is encountered first. |
n/a
This command specifies how long a serial port can remain idle before an EOP is declared and the packet is sent over the socket.
50 ms
This command specifies the number of characters (converted to bytes) received on the serial port that triggers the node to encapsulate the characters in an IP transport packet and send it over an IES or VPRN service.
1500
This command specifies a special character that, if received on the serial port, declares an EOP and triggers the node to encapsulate previously received queued characters in an IP transport packet and send it over an IES or VPRN service.
Note: Other than declaring the EOP, the special character is otherwise treated as regular data; that is, it is added to the packet. |
The no form of the command disables checking for a special character.
no special-char
This command specifies how long a serial port can receive a continuous data stream before an alarm is raised indicating that the serial port has locked up and triggering the squelching function.
The no form of the command disables the squelching function on the serial port.
no squelch-delay
This command allows an operator to manually clear squelching on a serial port’s raw socket without having to configure a time limit on the squelching function.
Squelching can also be set to clear automatically after a time limit has been reached with the unsquelch-delay command.
n/a
This command clears squelching on a raw socket by setting a limit on the amount of time that squelching can remain active on the port. When the time limit is reached, the auto-clear function is enabled and the serial port’s raw socket is put back into a normal state.
Squelching can also be cleared manually with the squelch-reset command.
The no form of the command disables the auto-clear function on a serial port.
no unsquelch-delay
This command enables the context to configure parameters for data packets transmitted over a serial port’s raw socket.
This command specifies a time delay that the node inserts between a session’s data that is being transmitted over a serial port and the next queued session’s data. The next session's data is not sent until the current session's data is sent and the inter-session-delay is reached.
10 ms
This command configures the speed of the interface.The speed also determines the DS0 timeslots assigned to the channel group.
The 600 b/s value is valid for RS-232 and RS-530 interfaces only.
For an RS-232 interface that is functioning as a raw socket, the maximum speed is 115 200 b/s and the 56 000 b/s value is not supported.
For an RS-232 interface that is not functioning as a raw socket, the 57 600 b/s and 115 200 b/s values are not supported. The maximum supported speed is 56 000 b/s.
V.35 interfaces support speeds from 64 kb/s to 1920 kb/s, and 2048 kb/s (only on the 12-port Serial Data Interface card, version 3).
X.21 interfaces support speeds from 1200 b/s to 1920 kb/s, and 2048 kb/s (only on the 12-port Serial Data Interface card, version 3).
Rates of 56 000 b/s and greater are valid only if the device-mode is set to synchronous.
Speeds of 3072k, 4096k, 5120k, 6144k, 7168k, 8192k, 9216k, 10240k, 11264k, 12288k, 13312k, 14336k, 15360k, 16384k are only supported on RS-530 interfaces.
9600 (RS-232)
64k (X.21, RS-530, and V.35)
This command configures the number of stop bits used to signify the end of a character.
This command is valid only if the device-mode is asynchronous.
This command cannot have a value of 2 if the character-length value is 8 and the parity value is anything other than no parity (that is, anything other than none).
1
This command creates a DS0 channel group on a channelized RS-232, RS-530, V.35, or X.21 circuit.
RS-530 channel groups are only supported on the 12-port Serial Data Interface card, version 3.
Note: When a socket is configured using the socket command, the RS-232 channel-group command is blocked. |
Channel groups cannot be further subdivided.
The no form of this command deletes the specified channel group.
n/a
This command configures the precision of the cyclic redundancy check. The command is valid only if the encap-type is frame-relay or ipcp.
16
This command configures the encapsulation method used for the channel group.
When encap-type is specified, the channel group must be deleted before encap-type can be changed.
The frame-relay, ipcp, hdlc, and cisco-hdlc encapsulation types are not supported on RS-232 or RS-530 interfaces or on ports with subrate speeds (below 64 kb/s). For RS-232 and RS-530 interfaces, only cem is supported.
The no form of this command restores the default value.
no encap-type
This command defines the value to be transmitted by the channel group during its idle cycle. The command is valid only if the encap-type is frame-relay or ipcp.
flags
This command defines the data pattern to be transmitted when the circuit emulation service is not operational or temporarily experiences underrun conditions.
This command is valid only if encap-type is cem.
The no form of this command restores the default value.
all-ones
This command configures a channel group for access mode or network operation. Only access mode is supported on serial channels; if the user selects the network option, the CLI returns an error message.
An access port or channel is used for customer-facing traffic on which services are configured. SAPs can only be configured on an access port or channel. When a serial port is configured for access mode, multiple services can be configured on the port.
access
This command defines the maximum MTU size that the channel group can support. The command is valid only if the encap-type is frame-relay or ipcp.
1514 for frame relay
1502 for ipcp
This command enables access to the context to configure the LCP operational parameters for a V.35 or X.21 channel group. This command is available only if the encap-type is set to ipcp and therefore does not apply to RS-232 ports or to X.21 ports configured for subrate speeds.
The no form of the command removes the LCP operational parameters.
no ppp
This command enables the sending of keepalive messages and configures the time between messages and how many messages can be missed before the link is brought down.The no form of this command disables the sending of keepalive messages.
keepalive 10 dropcount 3
This command enables access to the context to configure SONET/SDH ports. This context can only be used when configuring an OC3/OC12 or STM1/STM4 port on an appropriate adapter card.
SONET/SDH ports can be configured on the following adapter cards:
This command configures the clock for transmitted data from either the internal clock or from a clock recovered from the line’s receive data stream.
node-timed
This command specifies the SONET/SDH framing to be either SONET or SDH.
Changing the framing mode on the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card causes the adapter card to reset.
sonet
This command configures the SONET/SDH group payload on a 2-port OC3/STM1 Channelized Adapter card or a 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card.
n/a
This command configures SONET link dampening timers in 100s of milliseconds, to guard against reporting excessive interface transitions. Once implemented, subsequent transitions of the interface from one state to another are not advertised to upper layer protocols until the configured timer has expired.
no hold-time
This command activates a loopback on the SONET/SDH port. The SONET port must be in a shutdown state to activate any type of loopback. The loopback setting is never saved to the generated/saved configuration file.
Note: Loopback mode changes on a SONET/SDH port can affect traffic on the remaining ports. |
no loopback
This command enables logging of SONET/SDH line and section alarms for a SONET/SDH port. When configured, logging is enabled for the raising and clearing of the specified alarms.
The no form of this command disables logging of the specified alarms.
This command configures the section trace bytes in the SONET section header to interoperate with some older versions of ADMs or regenerators that require an incremental STM ID. You can explicitly configure an incremental STM value rather than a static one in the SDH overhead by specifying an increment-z0 value.
The increment-z0 parameter is not supported on the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card.
byte 0x1
This command configures the speed of a SONET/SDH port.
Although the oc3 option is shown in the CLI, it is not configurable. And, although the oc12 option is shown in the CLI, it is not available for use on the 7705 SAR. Users can change between oc3 and oc12 on the 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card by using the mda-mode keyword in the config>card>mda context and selecting either the p4-oc3 or p1-oc12 option. The adapter card automatically reboots to make the change.
The no form of this command reverts to the default value.
oc3
This command configures the line signal (b2) degradation bit error rate (BER) and line signal failure thresholds.
Alarms are raised if the line signal bit interleaved parity error rates exceed either the degradation or failure thresholds. If the failure threshold is crossed, the link will be set to operationally down.
The no form of this command reverts to the default value.
threshold ber-sd 6 - signal degrade BER threshold of 10-6
threshold ber-sf 3 - signal failure BER threshold of 10-3
This command allows the Quality Level (QL) value transmitted from the Synchronization Status Messaging (SSM) channel of a SONET/SDH port to be set to QL-DUS/QL-DNU (do not use for synchronization for timing purposes).
no tx-dus
This command defines the SONET/SDH path.
The no form of this command removes the specified SONET/SDH path.
no index is specified
In addition, the support of virtual tributary circuits adds another level of complexity and several levels of indexes, which means that one or more path commands may be needed to set up the container in the path.
On the 4-port OC3/STM1 Clear Channel Adapter card, sonet-sdh-index is optional; if used, the value must be sts3.
This command specifies a cyclic redundancy check on a SONET/SDH path on a SONET/SDH port.
32 (if the encap-type is set to atm; this default cannot be changed)
16 (if the encap-type is set to ppp-auto; port is configured for POS)
This command configures the encapsulation method used to distinguish customer traffic on a SONET/SDH path on a SONET/SDH port.
The encap-type of atm is used for access mode (4-port OC3/STM1 Clear Channel Adapter card and 2-port OC3/STM1 Channelized Adapter card), and the encap-type of ppp-auto is used for network mode (4-port OC3/STM1 / 1-port OC12/STM4 Adapter card).
When encap-type is atm, the crc default of 32 cannot be changed.
When encap-type is atm, ATM sublayer verification specified in GR-1248-CORE, Generic Requirements for Operations of ATM Network Elements, is automatically enabled. The result of the verification includes:
To change the encap-type, the path must first be removed and then recreated with the new encap-type. For example, to change the encap-type from atm to ppp-auto:
config>port>sonet-sdh>path# back
config>port>sonet-sdh# no path
config>port>sonet-sdh# path
config>port>sonet-sdh>path# mode network
config>port>sonet-sdh>path# encap-type ppp-auto
config>port>sonet-sdh>path#
no encap-type
This command configures the mode of operation for a SONET/SDH port or channel on a 4-port OC3/STM1 Clear Channel Adapter card or 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card.
An access port or channel is used for customer-facing traffic on which services are configured. A Service Access Point (SAP) can only be configured on an access port or channel. When a port or channel on the 4-port OC3/STM1 Clear Channel Adapter card is configured for access mode, the encap-type must be set to atm. The 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card does not support ATM when configured for access mode.
A network port or channel configured for Packet over SONET (POS) is used as an uplink to connect to the packet network and transport the configured services. When a port or channel is configured for network mode, the encap-type must be set to ppp-auto.
To change the mode, the path must first be removed and then recreated with the new mode. For example, to change the mode from access to network:
config>port>sonet-sdh>path# back
config>port>sonet-sdh# no path
config>port>sonet-sdh# path
config>port>sonet-sdh>path# mode network
config>port>sonet-sdh>path#
access
This command configures the maximum payload MTU size for a SONET/SDH port on a 4-port OC3/STM1 Clear Channel Adapter card. When encap-type is atm, the path MTU value cannot be changed. Refer to the 7705 SAR Services Guide, “Global Service Command Reference”, for information on configuring the path MTU.
The no form of this command restores the default value.
1524 (for access mode)
1572 (for network mode)
This command configures the SONET/SDH path on a channelized adapter card (2-port OC3/STM1 Channelized Adapter card or 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card) as an asynchronous circuit or a virtual tributary group.
n/a
This command enables access to the context to configure the Link Control Protocol (LCP) operational parameters for a Packet over Sonet (POS) Point-to-Point Protocol (PPP) link on a 4-port OC3/STM1 Clear Channel Adapter card.
n/a
This command enables the sending of keepalive echo messages on a 4-port OC3/STM1 Clear Channel Adapter card and configures the time between messages and how many reports can be missed before the link is brought down.
The no form of this command disables the sending of echo requests.
keepalive 10 dropcount 3
This command enables logging of SONET/SDH path alarms for a SONET/SDH port.
The no form of this command disables logging of the specified alarms.
This command enables SONET/SDH payload scrambling on a 4-port OC3/STM1 Clear Channel Adapter card.
Scrambling randomizes the pattern of 1s and 0s carried in a SONET frame. Scrambling, or rearranging, the pattern prevents continuous strings of all 1s or all 0s and meets the needs of physical layer protocols that rely on sufficient transitions between 1s and 0s to maintain clocking.
For ATM, this command enables or disables ATM cell-level payload scrambling or descrambling using the x43+1 polynomial as defined in ITU-T I.432.1. Scrambling is enabled by default for the ATM path or channel. This scrambling is done in addition to SONET/SDH frame scrambling or descrambling, which is always enabled in the framer.
The no form of this command disables scrambling.
scramble
This command sets the C2 byte value. The purpose of this byte is to communicate the payload type being encapsulated by SONET framing.
0xcf
This command specifies that a J1-path-trace that identifies the circuit be continuously inserted at source. The specified trace string can be checked against the expected value by the receiver. If no trace string is entered, a null string is used.
The no form of this command resets the string to its default.
The default J1 value is ALU 7705 SAR. The value does not change when the encap-type changes. The J1 string contains all zeros for a non-provisioned path.
This command enables access to the context to configure network port parameters.
n/a
This command configures an accounting policy that can apply to an interface.
An accounting policy must be configured before it can be associated to an interface. If the accounting policy-id does not exist, an error is returned.
Accounting policies associated with service billing can only be applied to SAPs. Accounting policies associated with network ports can only be associated with interfaces. Only one accounting policy can be associated with an interface at a time.
No accounting policies are specified by default. You must explicitly specify a policy. If configured, the accounting policy configured as the default under the config>log>accounting-policy>default command is used.
The no form of this command removes the accounting policy association from the network interface, and the accounting policy reverts to the default.
n/a
This command enables the collection of accounting and statistical data for the network interface. When applying accounting policies, the data, by default, is collected in the appropriate records and written to the designated billing file.
When the no collect-stats command is issued, the statistics are still accumulated by the adapter cards. However, the CPU does not obtain the results and write them to the billing file. If the collect-stats command is issued again (enabled), then the counters written to the billing file will include the traffic collected while the no collect-stats command was in effect.
no collect-stats
This command enables access to the context to assign network egress parameters.
n/a
This command assigns a shaper policy to the specified port.
The shaper policy defines shaper parameters such as shaper group, and PIR and CIR rates. The shaper policy is defined in the config>qos>shaper-policy context. Refer to the 7705 SAR Quality of Service Guide, “QoS for Hybrid Ports”, for more information.
Note:
|
The no form of this command reverts to the default.
“default”
This command sets the CIR rate for the aggregate of all the unshaped VLANs (that is, network interfaces) on the port. The default cir-rate is 0 kb/s. When the cir-rate is set to max, the CIR rate adopts the maximum rate of the port. The actual rate of the port is dictated by the physical port speed, which can be overwritten by the egress-rate sub-rate command.
If the cir-rate is higher than the sub-rate, the cir-rate is stored in the configuration database but the sub-rate limit is used.
On Gen-3 hardware, the cir-rate for this command can be configured and is applied but has no effect on the network port, except for network traffic in hybrid mode, where the cir-rate value has an effect.
On the 8-port Ethernet Adapter card, version 2, shaped and unshaped VLANs are arbitrated towards the port but the egress-rate cannot be enabled.
The no form of the command sets the unshaped-if-cir CIR rate to 0 kb/s.
no unshaped-if-cir
This command specifies the network queue policy that defines queue parameters such as CBS-priority-only burst size, MBS, CIR, and PIR rates, as well as FC-to-queue mappings. The network queue policy is defined in the config>qos>network-queue context. Refer to the 7705 SAR Quality of Service Guide, “Network Queue QoS Policies”, for more information.
The no form of this command reverts to the default.
“default”
This command selects the network-side scheduling option for the following:
On the 6-port Ethernet 10Gbps Adapter card and the 7705 SAR-X, scheduler-mode is permanently set to support 4-priority and is not user-configurable.
With profiled (or rate-based) scheduling, both in-profile and out-of-profile scheduling are supported. Packets with a flow rate that is less than or equal to the CIR value of a queue are scheduled as in-profile. Packets with a flow rate that exceeds the CIR value but is less than the PIR value of a queue are scheduled as out-of-profile. In-profile traffic has strict priority over out-of-profile traffic.
Profiled scheduling does not take queue type into consideration. With queue type-based scheduling, queues are divided into two categories – those that are serviced by the Expedited scheduler and those that are serviced by the Best Effort scheduler. The Expedited scheduler has precedence over the Best Effort scheduler.
Four-priority scheduling combines both profiled and queue type-based scheduling. The combination provides four scheduling priorities. Packets are scheduled in the following order, in strict priority fashion:
Note: 16-priority is the default scheduling option on the 8-port Gigabit Ethernet Adapter card, 10-port 1GigE/1-port 10GigE X-Adapter card, 2-port 10GigE (Ethernet) Adapter card, 2-port 10GigE (Ethernet) module, Packet Microwave Adapter card, 7705 SAR-M, 7705 SAR-H, 7705 SAR-Hc, 7705 SAR-A, 7705 SAR-Ax, 7705 SAR-W, and 7705 SAR-Wx Ethernet ports. These cards, modules, and ports support 16-priority scheduling, but not profiled or 4-priority scheduling. In addition, 16-priority scheduling is not supported on the 8-port Ethernet card. For information on 16-priority scheduling, refer to the 7705 SAR Quality of Service Guide, “QoS Policies“. |
profile —8-port Ethernet Adapter card
16-priority —8-port Gigabit Ethernet Adapter card, 10-port 1GigE/1-port 10GigE X-Adapter card, 2-port 10GigE (Ethernet) Adapter card, 2-port 10GigE (Ethernet) module, Packet Microwave Adapter card, 7705 SAR-A, 7705 SAR-Ax, 7705 SAR-H, 7705 SAR-Hc, 7705 SAR-M, 7705 SAR-W, and 7705 SAR-Wx Ethernet ports (cannot be changed)
Note: Unless otherwise specified, references to multilink bundles refer to both multilink (MLPPP) bundles and IMA groups. |
This command enables the context to configure bundle properties for this bundle port.
n/a
This command sets the maximum length (in bytes) of a fragment transmitted across the specified MLPPP bundle or sets the length of a Tx frame across the specified IMA group bundle in ATM cells.
The no form of this command resets the fragment threshold back to the default value.
128
This command binds a channel group to a multilink bundle.
To bind a channel group to a multilink bundle, all the timeslots on the channel group must be allocated.
When you configure a channel group on the network side with ppp-auto encapsulation, the system automatically allocates all timeslots to the channel group. When you configure a channel group on the access side with IPCP encapsulation, the system does not automatically allocate all timeslots to the channel group. In order to use the port or channel group as a member in an multilink bundle, you must manually allocate all the timeslots to the channel group before adding it to the bundle.
The following lists the cards, modules, and platforms that support multilink bundles and the number of channel groups on the network and/or access side that can be bound to an MLPPP bundle:
The following lists the cards, modules, and platforms that support IMA groups and the number of channel groups on the network and/or access side that can be bound to an IMA group:
The no form of this command removes the specified channel group from the multilink bundle.
n/a
Syntax: slot/mda/port.channel
This command sets the minimum number of links that must be active for the bundle to be active.
If the number of active links drops below the configured minimum, then the multilink bundle will transition to an operationally down state.
The no form of this command removes the minimum link limit.
1
MLPP Bundles | IMA Bundles | ||
Access | Network | Access | |
T1/E1 ports on the 7705 SAR-A (variants with T1/E1 ports) | 1 to 8 | 1 to 8 | — |
T1/E1 ports on the 7705 SAR-M (variants with T1/E1 ports) | 1 to 8 | 1 to 16 | 1 to 16 |
T1/E1 ports on the 7705 SAR-X | 1 to 8 | 1 to 8 | — |
T1/E1 ports on the 4-port T1/E1 and RS-232 Combination module (on 7705 SAR-H) | 1 to 2 | 1 to 2 | — |
DS1/E1 channels on the 2-port OC3/STM1 Channelized Adapter card | 1 to 8 | 1 to 8 | 1 to 8 |
4-port OC3/STM1 / 1-port OC12/STM4 Adapter card | — | 1 to 8 | — |
16-port T1/E1 ASAP Adapter card | 1 to 8 | 1 to 16 | 1 to 16 |
32-port T1/E1 ASAP Adapter card | 1 to 8 | 1 to 16 | 1 to 16 |
This command enables the context to configure MLPPP bundle attributes.
This command configures the endpoint-discriminator class and ID. The port must be shut down to modify the endpoint-discriminator parameters.
If the null option is configured, the 7705 SAR will advertise an endpoint-discriminator class value of NULL in link membership negotiations. If the far-end node rejects the NULL object, the 7705 SAR will remove the object from future requests. The null option should only be used if the far-end node cannot support the ip-address or global-mac-address endpoint-discriminator class options, as these options provide more protection from incorrectly adding a link to an MLPPP bundle.
The no form of this command removes the configured parameters.
This command allows loopback detection to be enabled and disabled for MLPPP bundles. The command is disabled by default. When the magic number option is disabled, the magic number option will not be requested when a member is trying to bring up the LCP layer on a member link; if the remote peer requests this option, it will be rejected. When transmitting echo-requests, a magic number of 0 is used. When responding to echo-requests, a magic number of 0 is sent.
If the magic-number option is enabled, the option is sent to the remote peer during protocol negotiation. If this option is rejected by the remote peer, the router will bring the link up but will be unable to detect loopbacks since the router will always send a magic number of 0 in the echo messages upon rejection. If this option is accepted by the remote peer, the router will send echo messages with randomly generated (non-zero) magic numbers. If the 7705 SAR receives a config-req with the same magic number that was sent out, the router will calculate a new magic number to use and send out another config-request. If the router persistently sees the randomly generated magic number in the received config-req, the router will declare a loopback.
The no form of the command disables the loopback detection.
no magic-number
This command enables multi-class MLPPP (MC-MLPPP) as defined by RFC 2686, The Multi-Class Extension to Multi-Link PPP. The 7705 SAR supports MC-MLPPP bundles with 2, 3 or 4 classes. To change the number of classes, all member links must be removed and then the bundle must be shut down.
The packets transmitted on the MC-MLPPP bundle are sent with class values from 0 to one less than the configured class size. For example, a 4-class MLPPP bundle has 4 classes and transmits packets with class numbers 0, 1, 2, and 3. A 4-class bundle transmits packets with class numbers 0, 1 and 2 and a 2-class bundle transmits packets with class numbers 0 and 1. A 0-class MLPPP bundle has the highest priority.
Entries are created and deleted by the system depending on the number of classes being used by a given MLPPP bundle. The no form of the command disables multi-class MLPPP.
no multiclass
This command specifies the maximum received reconstructed unit (MRRU), which is similar to a maximum transmission unit (MTU) but applies only to MLPPP multilink bundles. The MRRU is the maximum frame size that can be reconstructed from multilink fragments. This command is only valid for MLPPP bundles.
The no form of this command resets the MRRU to the default.
1524
This command sets the maximum acceptable differential delay for individual circuits within a multilink bundle.
The no form of this command restores the red-differential-delay defaults.
n/a
This command specifies that the MLPPP bundle should use short (12 bit) sequence numbers instead of the default 24-bit sequence number. This command is only valid for MLPPP bundles.
The no form of this command disables the short-sequence feature.
no short-sequence
This command sets the yellow warning threshold for the differential delay for members within a multilink bundle. If circuit’s delay exceeds the yellow-differential delay value, a log message and SNMP trap is sent. This command is only valid for MLPPP bundles.
The no form of this command removes the yellow-differential-delay.
n/a
This command enables the context to configure parameters for an IMA group. An IMA group is a collection of physical links bundled together and assigned to an ATM port. IMA enables a high-speed channel that is composed of ATM cells to be transported as a number of lower-speed circuits. They are then reassembled as the original high-speed ATM channel.
This command is only valid for IMA bundles.
This command specifies the time delay between detection of a link activation/deactivation condition and acting upon it (going in/out of the Rx failure state on a link).
This command enables the context to configure IMA test pattern procedures. This command and its sub-commands are not saved in the router configuration between reboots.
This command specifies IMA members on which an IMA test pattern procedure is to be performed.
The no form of this command deletes the link from the test-pattern procedure. The test-pattern procedure must be shut down first.
no test-link
This command specifies the transmit test pattern in an IMA group loopback operation. This value can only be changed when the test-pattern-procedure command is shut down.
The no form of this command restores the test pattern to the default.
0
This command enables a configured IMA test pattern procedure.
The no form of this command disables the IMA test pattern procedure.
This command configures the IMA version for the multilink bundle group. If there is a version mismatch between this IMA group and the far-end IMA group, the IMA group will go operationally down. To change the IMA version, you must first remove all member links from the group.
Only IMA version 1.1 is supported.
1-1
This command enables the context to configure ATM interface properties.
This command configures the ATM cell format.
The no form of this command restores the default value.
uni
This command specifies the ATM cell mapping to be used on this DS3 ATM interface.
The no form of this command restores the default value.
Note: For an E3 interface, the mapping command does not appear in the CLI; the interface is hard-coded for direct mapping. |
direct
This command sets the minimum allowable virtual path identifier (VPI) value that can be used on the ATM interface for a virtual path connection (VPC).
The no form of this command restores the default value.
0
This command enables the context to configure:
TDM is a mechanism that divides the bandwidth of a stream into separate channels or timeslots by assigning each stream a different timeslot in a set. TDM repeatedly transmits a fixed sequence of timeslots over a single transmission channel. Each individual data stream is reassembled at the receiving end based on the timing.
n/a
This command specifies the line buildout (cable length) for physical DS1 ports on the 16-port T1/E1 ASAP Adapter card and 32-port T1/E1 ASAP Adapter card, or for physical DS3/E3 ports on the 4-port DS3/E3 Adapter card.
short (this is the only option available for the 16-port T1/E1 ASAP Adapter card and 32-port T1/E1 ASAP Adapter card)
This command creates a 64 kb/s codirectional G.703 channel on a port on the 8-port Voice & Teleprotection card.
The no form of this command deletes the port’s codirectional channel.
n/a
This command creates a DS0 channel group on a TDM interface on the 8-port Voice & Teleprotection card or 8-port C37.94 Teleprotection card.
The no form of this command deletes the port’s codirectional or TPIF channel group.
n/a
This command specifies the encapsulation type. The channel group must be deleted before changing the encapsulation type.
no encap-type
This command configures the interface for access mode. An access port or channel is used for customer-facing traffic. A Service Access Point (SAP) can only be configured on an access port or channel. When an interface is configured for access mode, the appropriate encapsulation type must be specified.
access
This command puts the specified interface into a loopback mode. The port must be shut down before loopback mode is enabled.
This command is not saved in the system configuration between boots.
The no form of this command disables the loopback on the interface.
no loopback
This command enables logging of codirectional and TPIF alarms for the specified interface or channel.
The no form of this command disables logging of the specified alarm.
ais for codir
rai for tpif
This command enables generation of an 8-kHz signal on a codirectional interface.
disabled
This command enables the context to configure DS1 frame parameters on a channelized 16-port T1/E1 ASAP Adapter card, 32-port T1/E1 ASAP Adapter card, 2-port OC3/STM1 Channelized Adapter card, 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card, or 4-port DS3/E3 Adapter card (DS3 ports only).
T1 transmits DS1-formatted data at 1.544 Mb/s through the network.
Once a channel has been configured for DS1, all ports on the card can only be configured for DS1. There cannot be a mix of DS1 and E1 channels on the same card.
The no form of this command deletes the specified DS1 channel.
n/a
This command enables the context to configure DS3 parameters on a 2-port OC3/STM1 Channelized Adapter card or a 4-port DS3/E3 Adapter card.
DS3 lines carry 28 DS1 signals and a 44.736 Mb/s data rate.
If DS3 links are provisioned on a channelized SONET/SDH Adapter card, you must provision the parent STS-1 SONET/STM0 SDH path first (this requirement does not apply to the 4-port DS3/E3 Adapter card).
The no form of this command disables DS3 capabilities on the specified SONET/SDH path or DS3 port. The DS3 parameters must be disabled if a clear channel is enabled by default. A clear channel uses out-of-band signaling, not in-band signaling; therefore, the entire bit rate of the channel is available.
n/a
This command enables the context to configure E1 parameters on a channelized 16-port T1/E1 ASAP Adapter card, 32-port T1/E1 ASAP Adapter card, 2-port OC3/STM1 Channelized Adapter card, 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card, or 4-port DS3/E3 Adapter card (DS3 ports only). E1 is a standard WAN digital communication format designed to operate over copper facilities at a rate of 2.048 Mb/s.
Once a channel has been configured for E1, all ports on the card can only be configured for E1. There cannot be a mix of DS1 and E1 channels on the same card.
The no form of this command deletes the specified E1 channel.
n/a
This command enables the context to configure E3 parameters on a 4-port DS3/E3 Adapter card. E3 lines provide a speed of 34.368 Mb/s and are frequently used by service providers outside North America.
n/a
This command configures the encoding for the physical DS1 (T1) port. DS1 ports can be configured for either B8ZS (bipolar with eight-zero substitution) zero code suppression or AMI (alternate mark inversion). B8ZS and AMI are line coding techniques.
This command is supported on the following cards and platforms:
b8zs
This command configures the line length for the physical DS1 port on the 16-port T1/E1 ASAP Adapter card or 32-port T1/E1 ASAP Adapter card.
Line buildout settings must be adjusted with line length in order to ensure nominal operating voltage levels for receivers. Ideal receiver voltage levels should be < 3Vp.
133
This command configures the line impedance of a port. Line impedance is set on a per-port basis and ports on the same card can have different values. Before changing the line impedance of a port, the port must be shut down.
100 for DS1
120 for E1
This command creates an IEEE C37.94 teleprotection interface (TPIF) channel.
The no form of this command deletes the port’s TPIF channel.
n/a
This command defines the list of DS0 timeslots to be used in the TPIF channel group.
1
This command configures the associated DS3 channel as a channelized DS3 with DS1/E1 sub-channels.
The no form of this command disables channelization. The sub-channels must be deleted first before the no command is executed.
no channelized
This command specifies the clock source to be used for the link transmit timing.
The following can be configured for loop timing and node timing:
The following can be configured for adaptive timing:
The following can be configured for differential timing:
The clock source setting also determines the node sync reference if the port is configured as one of the node sync references (config>system>sync-if-timing>{ref1 | ref2}> source-port command). Refer to the 7705 SAR Basic System Configuration Guide, “Node Timing”, for more information.
Note: If a timing reference from an external BITS clock is used on a dedicated T1/E1 port, the port must be configured as loop-timed. |
node-timed
This command specifies the DS1 framing to be used for the port.
The ds1-unframed parameter allows the configuration of an unstructured DS1 channel on the following:
When an unframed DS1 channel is shut down, it sends the AIS pattern to the far-end DS1. The far end does not react to the AIS pattern if the far-end DS1 is configured as unframed. If the far-end DS1 is configured as framed, the far end declares AIS. The operational status remains up and no alarms are generated while the near end is operationally down. This is normal behavior for unframed G.703 mode.
esf
This command specifies the E1 framing to be used for the port.
The e1-unframed parameter allows the configuration of an unstructured E1 channel on the following:
When an unframed E1 channel is shut down, it sends the AIS pattern to the far-end E1. The far end does not react to the AIS pattern if the far-end E1 is configured as unframed. If the far-end E1 is configured as framed, the far end declares AIS. The operational status remains up and no alarms are generated while the near end is operationally down. This is normal behavior for unframed G.703 mode.
g704
This command configures the DS1/E1 link dampening timers in 100s of milliseconds, which guards against reporting excessive interface transitions. Once implemented, subsequent transitions of the interface from one state to another are not advertised to upper layer protocols until the configured timer has expired.
no hold-time
This command puts the specified port or channel in a loopback mode.
A line loopback loops frames received on the corresponding port or channel back towards the transmit (egress) direction before reaching the framer. The bit stream is not reframed. The electrical signal is regenerated by the Tx line interface unit (LIU) and the timing is provided by the Rx LIU.
An internal loopback loops the frames that are coming in an egress direction from the fabric towards the framer, back to the fabric. This is usually referred to as an equipment loopback. The Tx signal is looped back and received by the interface.
The fdl-ansi loopback command sends a repeating 16-bit ESF data link code word to the remote end requesting that it enter into a network line loopback. The ansi keyword enables the remote line FDL ANSI bit loopback on the T1 line, in accordance with the ANSI T1.403 specification.
The fdl-bellcore loopback command sends a repeating 16-bit ESF data link code word to the remote end requesting that it enter into a network line loopback. The bellcore keyword enables the remote line FDL Bellcore bit loopback on the T1 line, in accordance with the Bellcore TR-TSY-000312 specification.
The payload-ansi loopback command sends a repeating 16-bit ESF data link code word to the remote end requesting that it enter into a network payload loopback. A payload loopback loops frames back towards the transmit (egress) direction after reaching the framer. The bit stream is reframed. The electrical signal is regenerated by the Tx LIU and the timing is provided by the Rx LIU.
The loopback command is not saved to the system configuration.
The no form of this command disables the specified type of loopback.
Note:
|
no loopback
This command puts the specified port or channel in a loopback mode.
A line loopback loops frames received on the corresponding port or channel back towards the transmit (egress) direction before reaching the framer. The bit stream is not reframed. The electrical signal is regenerated by the Tx line interface unit (LIU) and the timing is provided by the Rx LIU.
An internal loopback loops the frames that are coming in an egress direction from the fabric towards the framer, back to the fabric. This is usually referred to as an equipment loopback. The Tx signal is looped back and received by the interface. The loopback command is not saved to the system configuration.
The no form of this command disables the specified type of loopback.
no loopback
This command configures the DS1 channel response to remote loopbacks. When enabled, the channel responds to remote loopbacks; when disabled, the channel does not respond.
Note: The 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card cannot respond to fdl-ansi, fdl-bellcore, or payload-ansi loopbacks. |
no remote-loop-respond
This command enables logging of DS1 or E1 alarms. When configured, logging is enabled for the raising and clearing of the specified alarms.
The no form of this command disables logging of the specified alarms.
This command enables or disables Channel Associated Signaling (CAS) at the port and circuit levels. When enabled, control signals (such as those for synchronizing and bounding frames) are carried in the same channels as voice and data signals.
If the signal mode for a DS1/E1 port or channel is configured for no signal-mode, all DS0/64 kb/s channels within the DS1 or E1 port will not be enabled for CAS. Individual channel groups within that DS1 or E1 port inherit this state and cannot be changed.
If the signal mode for a DS1/E1 port or channel is configured for signal-mode cas, any new channel groups default to signal-mode cas.
The signal mode must be configured for CAS before creating a Cpipe service that supports T1 or E1 with CAS. Refer to the 7705 SAR Services Guide, “Creating a Cpipe Service”, for information on configuring a Cpipe service.
This command is valid only on the following cards and platforms when DS1 framing is set to esf or sf, or E1 framing is set to g704 or no-crc-g704:
This command accesses the context to configure E1 Synchronization Status Messaging (SSM) parameters.
Note: Only g704 framing mode should be used with E1 SSM. The no-crc-g704 and e1-unframed framing modes are not compatible with E1 SSM. See the framing (E1) command for information on E1 framing. |
This command configures which Sa bit in the E1 frame to use for conveying the quality level SSM information.
8
This command enables or disables the transmission of 0xF (DUS) (do not use for synchronization) in the SSM channel. The code 0xF is transmitted but it is translated to DNU (do not use) for E1 or SDH and to DUS for SONET or T1.
no tx-dus
This command configures the line signal degradation (SD) bit error rate (BER) and line signal failure (SF) thresholds.
PCV error rates are measured and when they cross either the degradation or failure threshold, alarms are raised.
The no form of this command disables the BER-SD or BER-SF feature.
ber-sd - disabled
ber-sf - disabled
This command creates n × DS0 (64 kb/s) channel groups in a channelized DS1 or E1 circuit. Channel groups cannot be further subdivided.
The no form of this command deletes the specified DS1 or E1 channel group.
n/a
This command configures the precision of the cyclic redundancy check (CRC). Non-ATM channel groups configured under DS1 or E1 support 16-bit checksum. ATM channel groups support a 32-bit checksum.
16
This command configures the encapsulation method used for the port on the 16-port T1/E1 ASAP Adapter card, 32-port T1/E1 ASAP Adapter card, 2-port OC3/STM1 Channelized Adapter card, 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card, 4-port DS3/E3 Adapter card (DS3 ports only), or 4-port T1/E1 and RS-232 Combination module (T1/E1 ports only). This parameter can be set on both access and network ports.
For access mode, the supported encapsulation types are atm, cem, frame-relay, cisco-hdlc, hdlc, and ipcp. Table 30 lists the adapter cards and the corresponding encapsulation types.
Adapter Card | Encapsulation Type | |||||
atm | cem | frame-relay | cisco-hdlc | hdlc | ipcp | |
16-port T1/E1 ASAP Adapter card, version 1 | ✓ | ✓ | ✓ | |||
16-port T1/E1 ASAP Adapter card, version 2 | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
32-port T1/E1 ASAP Adapter card | ✓ | ✓ | ✓ | ✓ | ✓ | ✓ |
2-port OC3/STM1 Channelized Adapter card | ✓ | ✓ | ✓ | |||
4-port OC3/STM1 / 1-port OC12/STM4 Adapter card | ✓ | |||||
4-port DS3/E3 Adapter card (DS3 ports only) | ✓ | ✓ | ||||
4-port T1/E1 and RS-232 Combination module | ✓ | ✓ |
For network mode, only ppp-auto encapsulation is supported.
To change the encap-type, the channel group must first be deleted, then reconfigured with the new encap-type.
no encap-type
This command configures the value that the DS0, DS1, DS3, E1, or TDM interface transmits during idle cycles. This command is applicable only if the encapsulation type is ppp-auto.
The no form of this command changes the idle cycle flag to the default value.
flags (0x7E)
This command defines the data pattern to be transmitted (8-bit value) when the circuit emulation service is not operational or temporarily experiences underrun conditions. This command is only valid for CESoPSN services.
Note: See the 7705 SAR Services Guide for information on CESoPSN services. |
all-ones
This command defines the signaling pattern to be transmitted (4-bit value) when the circuit emulation service is not operational or temporarily experiences underrun conditions. This command is only valid for CES with CAS.
Note: See the 7705 SAR Services Guide for information on CESoPSN services. |
all-ones
This command puts the specified n × DS0 (64 kb/s) channel group in a loopback mode. For T1 ports, the channel group can have 1 to 24 channels. For E1 ports, the channel group can have 1 to 31 channels.
When a line loopback is enabled on the channel group:
When an internal loopback (usually referred to as an equipment loopback) is enabled on the channel group:
N × DS0 (64 kb/s) channel group loopbacks are only supported on the 16-port T1/E1 ASAP Adapter card, version 2, and the 32-port T1/E1 ASAP Adapter card.
no loopback
This command assigns a specific MAC address to an APS port. When the command is issued while the port is operational, IP will issue an ARP, if appropriate, and BPDUs are sent with the new MAC address. Configuring a MAC address using the mac command is only supported for APS channel groups. Physical channel groups do not support the mac command.
The no form of this command removes the configured MAC address. The physical port MAC address will be used instead.
For TDM ports, configuring the MAC address allows the same MAC address to be assigned to ports across two routers in an MC-APS pair for MEF 8.
The mac command is only supported on the 2-port OC3/STM1 Channelized Adapter card and 4-port OC3/STM1 / 1-port OC12/STM4 Adapter card.
no mac
This command configures a TDM channel for access or network mode operation.
An access port or channel is used for customer-facing traffic on which services are configured. A Service Access Point (SAP) can only be configured on an access port or channel.
When a port is configured for access mode, the appropriate encap-type must be specified to distinguish the services on the port. Once a TDM channel has been configured for access mode, multiple services can be configured on the TDM channel.
A network port or channel participates in the service provider transport or infrastructure network when a network mode is selected. When the network option is configured, only the ppp-auto encap-type can be configured for the port or channel.
The no form of this command restores the default.
access
This command configures the maximum payload MTU size for a port.
Packets received that are larger than the MTU will be fragmented or discarded, depending on whether the DF bit is set in the packet header. If the port mode or encapsulation type is changed, the MTU assumes the default values of the new mode or encapsulation type.
The no form of this command restores the default values.
The default MTU value depends on the port type, mode, and encapsulation as listed in the following table.
Port Type | Mode | Encap Type | Default (Bytes) | Max MTU (Bytes) |
TDM (PW) | Access | cem | 1514 | 1514 |
TDM (ATM PW) | Access | atm | 1524 | 1524 |
TDM (FR PW) | Access | frame-relay | 1514 | 2090 |
TDM (HDLC PW) | Access | hdlc | 1514 | 2090 |
TDM (IW PW) | Access | cisco-hdlc | 1514 | 2090 |
TDM (PPP/MLPPP) | Access | ipcp | 1502 | 2090 |
TDM (PPP/MLPPP) | Network | ppp-auto | 1572 | 2090 |
Serial V35 or X21 (FR PW) | Access | frame-relay | 1514 | 2090 |
SONET/SDH | Access | atm | 1524 | 1524 |
SONET/SDH | Network | ppp-auto | 1572 | 2090 |
This command enables access to the context to configure the LCP operational parameters for a DS1 or E1 channel or a DS0 channel.
The no form of the command removes the LCP operational parameters.
no ppp
This command enables the channel-group down on BER-SF alarm.When enabled, the channel-group will be placed out of service once BER-SF is detected.
The no form of this command disables the feature.
no ber-sf-link-down
This command sets the keepalive interval.
The no form of this command returns the interval to the default value.
keepalive 10 dropcount 3
This command enables payload scrambling on channel groups. The command is applicable only if the encapsulation type is atm.
This command enables or disables Channel Associated Signaling (CAS) at the channel group level. When enabled, control signals (such as those for synchronizing and bounding frames) are carried in the same channels as voice and data signals.
If the signal mode at the DS1/E1 port level is configured for signal-mode cas, any new channel groups default to signal-mode cas. Any existing channel groups can be individually changed from cas to no signal-mode.
The signal mode must be configured for CAS before creating a Cpipe with CAS. Refer to the 7705 SAR Services Guide, “Creating a Cpipe Service”, for information on configuring a Cpipe service.
This command is valid only on the following cards and platforms when DS1 framing is set to esf or sf, or E1 framing is set to g704 or no-crc-g704:
This command defines the list of DS0 timeslots to be used in the DS1 or E1 channel group. The timeslots do not need to be consecutive. If the encapsulation type is changed to or from atm, the timeslots are reset to the default. If the encapsulation type is set to atm, the timeslot ranges are automatically configured and cannot be changed.
If the port is configured for fractional T1/E1 (see Configuring Fractional T1/E1 Ports for PPP Encapsulation), this command is used to specify the number of timeslots to be used on the port. Only the specified timeslots can be used.
The no form of this command removes DS0 timeslots from a channel group.
no timeslots — non-ATM channel groups
1 to 24 — channel groups configured under DS1 with atm encapsulation
2 to 16, 18 to 32 — channel groups configured under E1 with atm encapsulation
2 to 32 — channel groups configured under E1 (ppp-auto)
This command specifies the clock source to be used for the link transmit timing.
The clock source setting also determines the node sync reference if the port is configured as one of the node synchronization references (config>system>sync-if-timing>{ref1 | ref2}> source-port command). Refer to the 7705 SAR Basic System Configuration Guide, “Node Timing”, for more information.
node-timed (for the 4-port DS3/E3 Adapter card)
loop-timed (for all other applicable adapter cards)
This command configures the precision of the cyclic redundancy check (CRC). Non-ATM ports support a 16-bit checksum and ATM ports support a 32-bit checksum. CRC applies to PPP applications only on the 2-port OC3/STM1 Channelized Adapter card and 4-port DS3/E3 Adapter card.
16 (non-ATM ports)
32 (ATM ports)
This command configures the encapsulation method used on the specified DS3/E3 port.
To change the encap-type, the port must first be deleted, then reconfigured with the new encap-type.
no encap-type
This command enables the DS3/E3 interface to respond to remote loop signals. The DS3/E3 far-end alarm and control (FEAC) signal is used to send alarm or status information from the far-end terminal back to the local terminal. DS3/E3 loopbacks at the far-end terminal from the local terminal are initiated.
The no form of this command prevents the DS3/E3 interface from responding to remote loop signals.
no feac-loop-respond
This command specifies DS3 framing for the associated DS3 port.
c-bit
This command specifies E3 framing for the associated E3 port.
g751 (this default cannot be changed)
This command configures the value that the DS3/E3 interface transmits during idle cycles. This command is applicable only if the encapsulation type is ppp-auto. For ATM ports, the configuration does not apply and only the no form is accepted.
The no form of this command resets the idle cycle flag to the default value.
flags (0x7E)
no idle-cycle-flag (for ATM)
This command puts the specified DS3/E3 port into a loopback mode.
A line loopback loops frames received on the corresponding port or channel back towards the transmit (egress) direction before reaching the framer.
An internal loopback loops the frames that are coming in an egress direction from the fabric towards the framer, back to the fabric. This is usually referred to as an equipment loopback.
A remote loopback sends a signal to the remote device to provide a line loopback. To configure a remote loopback, you must enable feac-loop-respond on the far-end DS3/E3 interface, then set the loopback to remote on the near-end DS3/E3 interface. Remote loopback sends a loopback code to the far-end DS3/E3 interface that results in the far end sending out a line loopback.
The loopback command is not saved to the system configuration.
The no form of this command disables loopback on the DS3/E3 port.
no loopback
This command configures the maintenance data link (MDL) message for a DS3 port or channel. This command is only applicable if the DS3 port or channel is using C-bit framing, specified using the framing (DS3) command.
The no form of this command removes the mdl-string association and stops the transmission of MDL messages.
no mdl
This command enables the transmission of an MDL message on a DS3 port or channel. This command is only applicable if the DS3 port or channel is using C-bit framing, specified using the framing (DS3) command.
The no form of this command prevents the transmission of an MDL message on the DS3 port or channel.
no mdl-transmit
This command configures a DS3/E3 port for access or network mode of operation.
SAPs can only be configured on access ports. When a DS3/E3 port is configured for access mode, the encap-type can be set to atm, cem, or frame-relay.
A network port is used as an uplink to connect to the packet network and transport the PPP services. Network mode applies to DS3 and E3 ports. When a DS3/E3 port is configured for network mode, the encap-type must be set to ppp-auto.
The mode can be changed between access and network provided that encap-type has not been configured yet. If encap-type has been configured, the DS3/E3 port must be first deleted and then reconfigured with the required encap-type.
The no form of this command reverts to the default.
access
This command configures the maximum payload MTU size for a DS3/E3 port configured for PPP. Packets that are received larger than the MTU are discarded. Packets that cannot be fragmented at egress and exceed the MTU are also discarded.
The no form of this command restores the default value.
1572 (for ppp-auto)
This command enables access to the context to configure the LCP operational parameters for a DS3/E3 port.
This command sets the interval between keepalive messages.
The no form of this command returns the interval to the default value.
keepalive 10 dropcount 3
This command enables logging of DS3 and E3 alarms for a DS3/E3 port or channel. When configured, logging is enabled for the raising and clearing of the specified alarms.
The no form of this command disables logging of the specified alarms.
This command enables the context to configure voice port parameters. This context can only be accessed on the 6-port E&M Adapter card, 8-port Voice & Teleprotection card, 8-port FXO Adapter card, and 6-port FXS Adapter card.
n/a
four-wires
This command enables the context to configure channel group parameters for a channelized E&M voice interface.
The no form of this command deletes the E&M channel group.
n/a
This command configures a voice channel for idle or seized fault signaling.
On the 6-port E&M Adapter card, this command is valid only if signaling-mode is configured for E&M signaling. The 6-port E&M Adapter card also supports configuration of the idle and seized codes.
Configuration of the idle and seized codes is not supported on the FXO and FXS channels on the 8-port Voice & Teleprotection card, or on the 8-port FXO Adapter card or 6-port FXS Adapter card. The code transmitted depends on signaling type and companding law as shown in Table 32.
Signaling Type | Companding Law | ABCD code | ||
A-Law | Mu-Law | Idle | Seized | |
3600plar (FXS only) | ✓ | 1101 | 0101 | |
3600plar (FXS only) | ✓ | 11 | 00 | |
1511plar (FXS only) | ✓ | 1101 | 0101 | |
1511profile1 (FXO, FXS) | ✓ | 1101 | 0101 | |
3600ls (FXO, FXS) | ✓ | 01 | 11 | |
3600re (FXO, FXS) | ✓ | 1101 | 0101 | |
1511sn137 (FXO, FXS) | ✓ | 1111 | 0111 |
idle
This command creates a Foreign Exchange Office (FXO) channel on a channelized voice interface. This command applies to the 8-port FXO Adapter card and the 8-port Voice & Teleprotection Card.
The no form of this command deletes the port’s FXO channel.
n/a
This command creates a Foreign Exchange Subscriber (FXS) channel on a channelized voice interface. This command applies to the 8-port Voice & Teleprotection card and 6-port FXS Adapter card.The no form of this command deletes the port’s FXS channel.
n/a
This command defines the ABCD signaling code to be transmitted when the voice channel is configured to transmit idle fault signaling. The command is also used for driving/scanning the E&M signaling leads.
This command is valid only on the 6-port E&M Adapter card and only if signaling-mode is configured for E&M signaling.
The no form of this command reverts to the default value.
0 (for Mu-Law companding)
13 (for A-Law companding)
This command configures the line balance for the FXO or FXS voice interface on the 8-port Voice & Teleprotection card, for the FXO voice interface on the 8-port FXO Adapter card, and for the FXS voice interface on the 6-port FXS Adapter card.
nominal (for both FXS and FXO)
This command puts the specified port or channel in loopback mode. The internal-digital parameter is the only valid option for FXO and FXS.
The loopback command is not saved to the system configuration between boots.
The no form of this command disables the loopback.
no loopback
This command configures the frequency of the generated ring signal for the specified FXS voice port.
This command does not apply to FXO or E&M ports.
The no form of this command reverts to the default value.
16
This command defines the ABCD signaling code to be transmitted when the channel is configured to transmit seized fault signaling. The command is also used for driving/scanning the E&M signaling leads.
This command is valid only on the 6-port E&M Adapter card and only if signaling-mode is configured for E&M signaling.
The no form of this command reverts to the default value.
0 (for Mu-Law companding)
13 (for A-Law companding)
This command configures how the signaling leads operate to establish a call. To change this parameter, the voice channel must be shut down first.
For FXO, 3600ls, 1511profile1, 3600re, and 1511sn137 are the only valid options; 1511profile1, 3600re, and 1511sn137 support A-Law companding, and 3600ls supports Mu-Law companding.
For FXS, all signaling types are supported; 3600plar supports both A-Law and Mu-Law companding, 1511plar, 1511profile1, 3600re, and 1511sn137 support A-Law companding, and 3600ls supports Mu-Law companding.
3600ls (for Mu-Law companding)
3600re (for A-Law companding)
This command enables the context to configure the input and output leads, which carry call control signals.
n/a
This command configures the output signaling lead known as the E-lead (Ear, Earth, or Exchange).
This command is valid only if signaling-mode is configured for E&M signaling.
end-to-end
This command configures the input signaling lead known as the M-lead (Mouth, Magneto, or Multiplexer).
This command is valid only if signaling-mode is configured for E&M signaling.
end-to-end
This command configures the signaling mode for the specified port or channel. This configuration is done for groups of three ports (ports 1 to 3 and ports 4 to 6). The first port to be configured in the group sets the signaling mode for the other ports in the group. For example, if port 1 is set for transmission only, ports 2 and 3 must also be set for transmission only, and if port 4 is set for E&M signaling, ports 5 and 6 must also be set for E&M signaling. To change the signaling mode of a port, all ports in the group must first be deconfigured.
em
This command configures the analog-to-digital receive transmission level point (TLP) for the specified port.
This command configures the analog-to-digital transmit transmission level point (TLP) for the specified port.
This command creates a DS0 channel group for a channelized E&M, FXO, or FXS voice interface.
Channel groups cannot be further subdivided.
The no form of this command deletes the specified channel group.
n/a
This command configures the encapsulation method used by the channel group.
no encap-type
This command configures a channelized voice interface for access mode operation. Network mode is not supported.
An access port or channel is used for customer-facing traffic on which services are configured. A Service Access Point (SAP) can only be configured on an access port or channel.
When a port or channel is configured for access mode, the encap-type must be specified (in this case, cem) to distinguish the services on the port.
access
This command enables the context in which Link Aggregation Group (LAG) attributes are defined.
A LAG groups two or more Ethernet links (ports) into one logical link. The aggregation of multiple physical links adds redundancy and improves resiliency between two network devices, and allows for load sharing.
On access ports, a LAG can have a maximum of two links and can support active/standby operation. If an active link in a LAG fails, traffic gets redistributed to the standby link.
On network ports, a LAG can have a maximum of eight links (depending on the platform or adapter card/module and the Ethernet port type) and can support active/active and active/standby operation. In active/active mode, the links are used for load sharing.
The no form of this command deletes the LAG from the configuration. A LAG can only be deleted while it is administratively shut down. Any dependencies, such as IP interface configurations, must be removed from the LAG before it can be shut down.
no lag
This command enables the context to configure access parameters.
n/a
This command specifies how active/active LAG SAP queue scheduler, SAP scheduler (H-QoS), and SAP MSS scheduler QoS rates (as specified by the SLA) are distributed to each of the active LAG ports. This command applies only to access LAGs.
link
This command enables OSPF or IS-IS costing of a LAG based on the available aggregated, operational bandwidth.
The path cost is dynamically calculated based on the interface bandwidth. OSPF path cost can be changed through the interface metric or the reference bandwidth.
If dynamic cost is configured, costing is applied based on the total number of links configured and the cost advertised is inversely proportional to the number of links available at the time. This requires that the number of links that are up exceeds the configured LAG threshold value; if the number of links that are up falls below the threshold, the configured threshold action determines whether, and at what cost, this LAG will be advertised (see port-threshold).
For example, a physical link in OSPF has a cost associated with it of 100, and the LAG consists of four physical links. The cost associated with the logical link is 25. If one link fails, the cost is automatically adjusted to 33.
If dynamic cost is not configured and OSPF auto-cost is configured, costing is applied based on the total number of links configured. This cost will remain static provided that the number of links that are up exceeds the configured LAG threshold value; if the number of links that are up falls below the threshold, the configured threshold action determines whether, and at what cost, this LAG will be advertised.
If dynamic cost is configured and OSPF auto-cost is not configured, the cost is determined by the cost configured on the OSPF metric, provided that the number of links that are up exceeds the configured LAG threshold value; if the number of links that are up falls below the threshold, the configured threshold action determines whether this LAG will be advertised.
If neither dynamic cost nor OSPF auto-cost is configured, the cost advertised is determined by the cost configured on the OSPF metric, provided that the number of links that are up exceeds the configured LAG threshold value; if the number of links that are up falls below the threshold, the configured threshold action determines whether this LAG will be advertised.
The no form of this command removes dynamic costing from the LAG.
no dynamic-cost
This command configures the encapsulation method used to distinguish customer traffic on a LAG.
The encapsulation type of a LAG must match that of its member links. If the encapsulation type of the LAG is changed, the encapsulation type of all its member links also changes.
The encapsulation type can be changed on the LAG only if there is no interface or service associated with it. If the MTU is set to a non-default value, it will be reset to the default value when the encapsulation type is changed.
The no form of this command reverts to the default encapsulation type.
null — all traffic on the link belongs to a single service or VLAN
This command specifies the delay between detecting that a LAG is down (all active ports are down) and reporting it to the upper layer protocols.
When a failure in a LAG is detected, it is immediately advertised to the rest of the system, but subsequent failures are not advertised to upper layers until the hold-time down interval has expired.
Specifying a hold time is especially useful in a 1:1 active/standby configuration because the time between detecting that the active link in the LAG is down and the time needed to activate the standby link is very short. The hold time prevents the LAG from being operationally down when switching between the active and standby link.
The no form of this command removes any hold time configured.
no hold-time
This command specifies the LACP mode of the LAG. By default, the LACP mode is not set.
Per the IEEE 802.1AX-2008 (IEEE 802.3ad) standard, the Link Aggregation Control Protocol (LACP) provides a standardized means for exchanging information between network devices using LAGs. LACP operates in two modes: passive and active. At least one partner must operate in active mode. For example, if the mode on the CE end is passive, the LACP mode on the 7705 SAR end must be active.
The no form of this command disables LACP.
no lacp
This command specifies the interval signaled to the peer and tells the peer at which rate it should transmit.
The no form of this command returns the value to the default.
fast
This command enables LACP message transmission on the standby link.
The no form of this command disables LACP message transmission on the standby link. Disable LACP message transmission on the standby link if the peer does not properly follow the IEEE 802.3ax standard regarding the LACP sync bit.
lacp-xmit-stdby
This command assigns a specific MAC address to the LAG.
The no form of this command returns the MAC address to the default value.
a default MAC address is assigned by the system
This command configures the LAG for access, network, or hybrid mode operation.
An access port is used for customer-facing traffic on which services are configured. A SAP can only be configured on an access port or channel.
A network port participates in the service provider transport or infrastructure network when network mode is selected.
A hybrid port allows a single port to operate in both access and network modes.
The no form of this command restores the default.
network
This command adds ports (links) to a LAG. Multiple ports can be added in one command as long as the maximum is not exceeded. A LAG can have up to eight links, depending on the platform or adapter card/module and the Ethernet port type.
The port configuration of the first port added to the LAG is used to compare to subsequently added ports. All ports must share the same characteristics (MTU, speed, duplex, and so on) as those of the first port; otherwise, they will not be added to the LAG.
The priority parameter sets the priority of the port, which is used by LACP. The port with the highest priority is the primary port. If two or more ports share the same priority value, the port with the lowest port ID becomes the primary port.
Any configuration changes made to the primary port apply to all member ports of a LAG. For example, port hold-time and MTU settings can be modified directly on the primary port and will be applied to all member ports. Any configuration changes made to non-primary ports are rejected.
Note: All ports in a LAG must have autonegotiation disabled or set to limited mode (recommended setting is limited). Autonegotiation can be disabled or set to limited mode using the autonegotiate command under the config>port>ethernet context. |
The no form of this command removes ports from the LAG.
n/a
Subgroups should only be configured on one side of a LAG, not both. If you configure the 7705 SAR with subgroups to handle active/standby operation, the partner system should not be configured with subgroups. Only having one side perform active/standby selection guarantees a consistent selection and fast convergence. Active/standby selection is signaled through LACP from one side of the LAG to the other.
This command sets a threshold value and controls the behavior of the LAG if the number of operational links is equal to or below the threshold value.
The no form of this command returns the value to the default.
0 action down
This command specifies which criteria is used to select the active subgroup (link) of a LAG. Every time the configuration of a link changes, the selection algorithm is applied.
The no form of this command returns the value to the default.
highest-count
A subgroup can have a maximum of one eligible member link.
It is recommended that this parameter be set.
This command specifies how the state of a member port is signaled to the remote side when the status corresponding to this member port has a standby value.
The no form of this command turns off standby signaling.
This command allows access to the context to configure the frame relay LMI operational parameters for a DS1/E1 channel group, a V.35 or X.21 SDI channel group, a DS-3/E-3 clear channel port, or a channelized DS3.
The no form of this command removes the frame relay LMI operational parameters.
This command configures the LMI type for frame relay interfaces. LMIs are sets of enhancements to the basic frame relay specification.
itu
This command sets the frame relay interface to the DCE, DTE, or bidirectional mode of LMI operation. The DTE mode causes the router to send status enquiries over the interface. The DCE mode causes the router to respond to status enquiries. In bidirectional mode, the router performs both DTE and DCE operation over the FR interface. The bidirectional mode applies to the ANSI and ITU LMI types only.
This feature is used when two routers are connected back-to-back, running frame relay encapsulation.
dce
This command configures the DTE full status polling interval for the frame relay LMI. The number specifies the frequency at which inquiries expect a full status report.
The no form of this command returns the n391dte counter to the default value.
6
This command configures the DCE error threshold for the frame relay LMI. The threshold specifies the number of errors needed to bring down a link.
The no form of this command returns the n392dce counter to the default value.
3
This command configures the DTE error threshold for the frame relay LMI. The threshold specifies the number of errors needed to bring down a link.
The no form of this command returns the n392dte counter to the default value.
3
This command configures the DCE monitored event count for the frame relay LMI.
The no form of this command returns the n393dce counter to the default value.
4
This command configures the DTE monitored event count for the frame relay LMI.
The no form of this command returns the n393dte counter to the default value.
4
This command configures the DTE keepalive timer for the frame relay LMI.
This number specifies the interval at which the DTE sends out a keepalive response request to the DCE.
The no form of this command returns the t391dte keepalive timer to the default value.
10
This command configures the DCE keepalive timer for the frame relay LMI.
This number specifies the interval at which the DCE checks for keepalive responses from the DTE.
The no form of this command returns the t392dce keepalive timer to the default value.
15
This command enables the context to configure Cisco HDLC parameters. Cisco HDLC is an encapsulation protocol that governs information transfer. The protocol specifies a data encapsulation method on synchronous serial links using frame characters and checksums.
This command configures the number of keepalive intervals that must pass without receiving a keepalive packet before the link is declared down. The nodes at the two endpoints of the cHDLC link must be provisioned with the same values.
The no form of this command returns the down-count to the default value.
3
This command configures the interval, in seconds, used to send periodic keepalive packets. The receiver process expects to receive a keepalive packet every keepalive interval. The link is declared down if the receiver process does not receive a keepalive within the time-out interval. The link is declared up when the number of continual keepalive packets received equals the up-count. The nodes at the two endpoints of the cHDLC link must be provisioned with the same values.
The no form of this command returns the keepalive interval to the default value.
10
This command configures the number of continual keepalive packets that have to be received in order to declare the link up. The nodes at the two endpoints of the cHDLC link must be provisioned with the same values.
The no form of this command returns the up-count to the default value.
1
This command configures a SCADA bridge on the Integrated Services card.
This command configures a branch that is used by the configured bridge.
The no form of the command deletes the specified branch.
This command enables the context to set gain levels for a branch.
This command sets the input gain for the branch. The input gain defines the magnitude of the increase or decrease of the signal transmitted into the bridge.
0
This command sets the output gain for the branch. The output gain defines the magnitude of the increase or decrease of the signal received from the bridge.
0
This command administratively enables the squelching function for the branch. The squelching function can only be enabled on a branch if it is enabled at the bridge level (config>scada>mddb>squelch or config>scada>pcm>squelch).
The no form of this command administratively disables the squelching function on the branch.
The command does not apply to the VCB application.
squelch (slave branches)
no squelch (master branches)
This command enables the context to configure MDDB parameters for a SCADA bridge.
This command enables the context to configure PCM multidrop bridge parameters for a SCADA bridge.
This command forces a master branch to become active. The command applies only if redundant-mode is set to manual mode.
1
This command configures the redundancy mode for the master inputs of the SCADA bridge.
In manual mode, the branch must be made active manually using the force-active command in order to receive data from the master input. The bridge always broadcasts to both master branches.
In auto mode, both the master branch inputs are received simultaneously. This requires the master input behavior to be similar to an RTU, which transmits data when active and transmits either all 1s (MDDB) or no data (PCM) when inactive.
manual
This command enables the logging of alarms.
The no form of the command disables the logging of alarms.
no report-alarm
This command configures the SCADA MDDB speed for RS-232 and X.21 interfaces. SCADA MDDB is supported only at subrate speeds (less than 64 kb/s) on X.21 interfaces.
2400
This command enables the squelching function for all branches configured on a bridge. This setting takes priority over the setting at the branch level; that is, if squelch is disabled with this command, it cannot be enabled for individual branches.
The no form of this command disables the squelching function on a bridge.
no squelch
This command configures squelch recovery attributes. When the squelch-recovery mode is configured as auto, the branch will automatically be put back into the normal state after the configured time. If the branch remains locked up, the branch will automatically be squelched again.
Configuring the squelch-recovery mode as manual disables automatic squelch recovery. To put the bridge back into the normal state, use the squelch reset command.
squelch-recovery manual
This command enables the context to configure voice conference bridge parameters for a SCADA bridge.
This command defines the ABCD signaling code to be transmitted when the E&M interface is configured to transmit idle fault signaling (see fault-signaling).
The no form of the command reverts to the default value.
This command is supported only when VCB is operating in vcb-branch-initiate mode.
0 (for Mu-Law companding)
13 (for A-Law companding)
This command defines the ABCD signaling code to be transmitted when the E&M interface is configured to transmit seized fault signaling (see fault-signaling).
The no form of the command reverts to the default value.
This command is supported only when VCB is operating in vcb-branch-initiate mode.
0 (for Mu-Law companding)
13 (for A-Law companding)