EVPN Wizard Functions¶
emulation evpn provider port config¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Configures or deletes an emulated providerside test port
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation evpn provider port config
mode= {create|delete} M
port_handle= <port_handle>
handle= <handle>
dut_interface_ipv4_addr= <a.b.c.d>
dut_interface_ipv4_addr_step= <a.b.c.d>
dut_interface_ipv4_prefix_len= <0-32>
sub_interface_enable= {true|false}
sub_interface_count= <0-255>
vlan_id= <0-4095>
vlan_id_step= <0-4095>
Arguments:
port_handle
Specifies the test port to be added to the provider side of the
EVPN network. This argument is `Mandatory` for mode create.
mode
Specifies the action to be performed. This argument is `Mandatory`.
Possible values are described below::
create Adds a providerside test port. You must specify
port_handle.
delete Deletes specified routers under the provideside port.
You must specify handle.
handle
Specifies the handle of routers created under the emulated test
port. This argument is `Mandatory` for mode delete.
dut_interface_ipv4_addr
Defines the first IPv4 address of the DUT interfaces connected to
the port. The default value is 192.85.1.1.
dut_interface_ipv4_addr_step
Specifies the step size by which the DUT IPv4 address is
incremented. The default value is 0.0.1.0. The number of times
that the step repeats is the same as the number of
subinterfaces. This argument is available when
sub_interface_enable is set to true.
dut_interface_ipv4_prefix_len
Specifies the IPv4 address prefix length of DUT interface
connected to the port. Possible values range from 0 to 32. The
default value is 24.
sub_interface_enable
Enables or disables subinterface on the DUT. Possible values are
true and false. The default value is false. When this argument is
enabled, you can specify the following arguments::
sub_interface_count
dut_interface_ipv4_addr_step
vlan_id
vlan_id_step
sub_interface_count
Defines the number of subinterfaces on the DUT interface.
Possible values range from 1 to 255. The default value is 1. This
argument is available when sub_interface_enable is set to true.
vlan_id
Specifies the starting VLAN ID of DUT interfaces. Possible values
range from 0 to 4095. The default value is 1. This argument is
available when sub_interface_enable is set to true.
vlan_id_step
Specifies the step size by which the VLAN ID is incremented.
Possible values range from 0 to 4095. The default value is 1.
This argument is available when sub_interface_enable is set to
true.
- Return Values:
Depending on the specific language that HLTAPI uses, the function returns a keyed list/dictionary/hash (See Introduction for more information on return value formats) using the following keys (with corresponding data):
status Success (1) or failure (0) of the operation log An error message (if the operation failed)
- Description:
- The
emulation evpn provider port configfunction configures an emulated providerside port, or deletes the routers under the port (specified by -handle). Use the port_handle argument to specify the port to be added. Use the -action argument to specify the action to perform.
Examples:
The following example configures a providerside= port:
set core_port_config_ret1 [emulation evpn provider port config port_handle= $port1 mode= create dut_interface_ipv4_addr= 192.85.1.1 dut_interface_ipv4_addr_step= 0.0.1.0 dut_interface_ipv4_prefix_length= 24 sub_interface_enable= true sub_interface_count= 10 vlan_id= 1 vlan_id_step= 1 ] 2Sample output:
{status 1}
emulation evpn cust port config¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Configures or deletes an emulated customerside test port
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation evpn cust port config
mode= {create|delete} M
port_handle= <port_handle>
handle= <handle>
sub_interface_enable= {true|false}
sub_interface_count= <0-255>
vlan_id= <0-4095>
vlan_id_step= <0-4095>
Arguments:
port_handle
Specifies the test port to be added to the customer side of the
EVPN network. This argument is `Mandatory` for mode create.
mode
Specifies the action to be performed. This argument is `Mandatory`.
Possible values are described below::
create Adds a customerside test port. You must specify
port_handle.
delete Deletes specified routers under the customerside port.
You must specify handle.
handle
Specifies the handle of the CE routers. This argument is
`Mandatory` for mode delete.
sub_interface_enable
Enables or disables subinterfaces on the DUT interface.
Possible values are true and false. The default value is false.
sub_interface_count
Defines the number of subinterfaces to be created for the DUT.
Possible values range from 1 to 255. The default value
is 1. This argument is available when sub_interface_enable is
set to true.
vlan_id
Specifies the starting VLAN ID. Possible values
range from 0 to 4095. The default value is 1. This argument is
available when sub_interface_enable is set to true.
vlan_id_step
Defines the step size by which to increment the VLAN ID. Possible
values range from 0 to 4095. The default value is 1. This
argument is available when sub_interface_enable is set to true.
- Return Values:
Depending on the specific language that HLTAPI uses, the function returns a keyed list/dictionary/hash (See Introduction for more information on return value formats) using the following keys (with corresponding data):
status Success (1) or failure (0) of the operation log An error message (if the operation failed)
- Description:
- The
emulation evpn cust port configfunction configures an emulated customerside port, or deletes the routers under the port (specified by -handle). Use the port_handle argument to specify the port to be added. Use the -action argument to specify the action to perform.
Examples:
The following example configures a customerside= port:
set customer_port_config_ret1 [emulation evpn cust port config port_handle= $port2 mode= create sub_interface_enable= true sub_interface_count= 10 vlan_id= 1 vlan_id_step= 1 ]Sample output:
{status 1}
emulation evpn wizard config¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Configures Ethernet VPN (EVPN, IEEE 802.1ah) network topology, creates emulated and simulated CE, P, and PE routers, specifies routing and labeling protocols, configures customer and provider side VPNs, and creates the traffic that is sent between VPNs, mapping the operations of the EVPN wizard in the Spirent TestCenter GUI.
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation evpn wizard config
handle= <handle> M
mode= {create|delete} M
Test Configurations
traffic_encapsulation= {ipv4|ipv6|no_ip}
unicast_enable= {true|false}
multicast_enable= {true|false}
pbb_enable= {true|false}
Provider Router Configurations
dut_router_id= <a.b.c.d>
dut_as= <1-65535>
dut_4byte_as_enable= {true|false}
dut_4byte_as= <integer>:<integer>
use_cust_ports= {true|false}
use_provider_ports= {true|false}
igp_protocol= {ospf|isis|rip|none}
mpls_protocol= {none|ldp|rsvp|ospf|isis}
igp_ospf_area_id= <a.b.c.d>
igp_ospf_network_type= {native|broadcast|p2p}
igp_ospf_router_priority= <0-255>
igp_ospf_interface_cost= <1-65535>
igp_ospf_options= <0 - 0x7f >
igp_ospf_auth_mode= {none|simple|md5}
igp_ospf_auth_password= <password>
igp_ospf_auth_md5_key= <0-255>
igp_ospf_graceful_restart_enable= {true|false}
igp_ospf_graceful_restart_type= {none|rfc_standard|ll_signalling}
igp_ospf_bfd_enable= {true|false}
igp_isis_level= {level1|level2|level1_and_2}
igp_isis_network_type= {broadcast|p2p}
igp_isis_router_priority= <0-127>
igp_isis_area1= <ANY>
igp_isis_area2= <ANY>
igp_isis_area3= <ANY>
igp_isis_circuit_id= <0-255>
igp_isis_auth_mode= {none|simple|md5}
igp_isis_auth_password= <ANY>
igp_isis_auth_md5_key= <0-255>
igp_isis_metric_mode= {narrow|wide|narrow_and_wide}
igp_isis_l1_metric= <1-63>
igp_isis_l1_wide_metric= <0-16777215>
igp_isis_l2_metric= <1-63>
igp_isis_l2_wide_metric= <0-16777215>
igp_isis_graceful_restart_enable= {true|false}
igp_isis_hello_padding= {true|false}
igp_isis_bfd_enable= {true|false}
mpls_rsvp_bandwidth_per_link= {1-2147483647}
mpls_rsvp_bandwidth_per_tunnel= {1-2147483647}
mpls_rsvp_egress_label= {next_available|implicit_null|explicit_null }
mpls_rsvp_transit= {accept_all|accept_configured }
mpls_rsvp_min_label= {1-65535}
mpls_rsvp_max_label= {1-65535}
mpls_rsvp_graceful_restart_enable= {true|false}
mpls_rsvp_recover_time= <0-4294967295>
mpls_rsvp_restart_time= <0-4294967295>
mpls_rsvp_bfd_enable= {true|false}
mpls_rsvp_request_conf= {true|false}
mpls_rsvp_hello_enable= {true|false}
mpls_rsvp_hello_interval= <1-2147483647>
mpls_rsvp_bundle_interval= <1-2147483647>
mpls_rsvp_bundle_mode= {manual|observation}
mpls_rsvp_summary_refresh_interval= <1-2147483647>
mpls_rsvp_inter_packet_delay= <1-2147483647>
mpls_rsvp_refresh_interval= <1-2147483647>
mpls_rsvp_reliable_delivery= {true|false}
mpls_rsvp_ack_mode= {immediate|piggyback}
mpls_rsvp_retrans_interval= <1-2147483647>
mpls_rsvp_retrans_limit= <0-10>
mpls_rsvp_retrans_delta= <0-3>
mpls_ldp_hello_type= { direct|targeted}
mpls_ldp_transport_mode= { none|tester_ip|router_id }
mpls_ldp_hello_interval= <1-21845>
mpls_ldp_keepalive_interval= <1-21845>
mpls_ldp_egress_label= { next_available|implicit_null|explicit_null }
mpls_ldp_min_label= <1-65535>
mpls_ldp_graceful_restart_enable= {true|false}
mpls_ldp_recover_time= <0-4294967>
mpls_ldp_reconnect_time= <0-4294967>
mpls_ldp_bfd_enable= {true|false}
mpls_ldp_label_adv_mode= {downstream_unsolicited|downstream_on_demand}
mpls_ldp_auth_mode= {none|md5}
mpls_ldp_auth_password= <ANY>
mpls_ospf_sr_algorithms= <0-4294967295>
mpls_ospf_sid_base= <0-4294967295>
mpls_ospf_sid_range= <0-65535>
mpls_ospf_node_sid_index= <0-4294967295>
mpls_ospf_node_sid_index_step= <0-4294967295>
mpls_isis_sr_algorithm= <0-4294967295>
mpls_isis_sid_base= <0-4294967295>
mpls_isis_sid_range= <0-65535>
mpls_isis_node_sid_index= <0-4294967295>
mpls_isis_node_sid_index_step= <0-4294967295>
p_router_enable= {true|false}
p_router_num_per_subif= <1-65535>
p_router_topology_type= {tree|grid}
p_router_id_start= <a.b.c.d>
p_router_id_step= <a.b.c.d>
p_router_ipv4_addr= <a.b.c.d>
p_router_ipv4_prefix_len= <0-32>
pe_router_num_per_subif= <1-10000>
pe_router_id_start= <a.b.c.d>
pe_router_id_step= <a.b.c.d>
bgp_route_reflector_enable= {true|false}
bgp_route_reflector_ids= <a.b.c.d>
EVI Generation Parameters
vrf_count= <1-65535>
vrf_rd_assignment= {use_rt|manual}
vrf_route_target_start= <ANY>
vrf_route_target_step= <ANY>
cust_ce_vrf_assignment= {round_robin|sequential}
cust_rd_start= <ANY>
cust_rd_step_per_vrf_enable= {true|false}
cust_rd_step_per_vrf= <ANY>
cust_rd_step_per_ce_enable= {true|false}
cust_rd_step_per_ce= <ANY>
provider_pe_vrf_assignment= {vpn_per_pe|pe_per_vpn}
provider_pe_vrf_count= <integer>
provider_pe_vrf_all_assign= {true|false}
provider_ce_bgp_as_enable= {true|false}
provider_ce_bgp_as= <1-65535>
provider_ce_bgp_as_step_per_ce_enable= {true|false}
provider_ce_bgp_as_step_per_ce= <1-65535>
provider_ce_bgp_as_step_per_vrf_enable= {true|false}
provider_ce_bgp_as_step_per_vrf= <1-65535>
provider_ce_bgp_4byte_as_enable= {true|false}
provider_ce_bgp_4byte_as= <ANY>
provider_ce_bgp_4byte_as_step_per_ce_enable= {true|false}
provider_ce_bgp_4byte_as_step_per_ce= <1-65535>
provider_ce_bgp_4byte_as_step_per_vrf_enable= {true|false}
provider_ce_bgp_4byte_as_step_per_vrf= <1-65535>
provider_rd_start= <ANY>
provider_rd_step_per_vrf_enable= {true|false}
provider_rd_step_per_vrf= <ANY>
provider_rd_step_per_ce_enable= {true|false}
provider_rd_step_per_ce= <ANY>
EVPN Parameters
provider_ethernet_tags_per_evi= <1-2147483647>
provider_ethernet_start_tag= <1-2147483647>
provider_ethernet_step_tag= <1-2147483647>
ethernet_segment_type= {type0|type1|type2|type3|type4|type5}
ethernet_segment_id= <ANY>
ethernet_segment_id_step= <ANY>
ethernet_segment_route= {true|false}
MAC Blocks Parameters
host_mac_start= <MAC>
host_mac_step= <NUMERIC>
host_mac_prefix= <0-48>
host_overlap= {true|false}
route_mpls_label_type= <route|site>
route_mpls_label_start= <0-1048575>
vlan_enable= {true|false}
host_vlan_id= <0-4095>
host_vlan_id_step_per_evi= <0-4095>
host_vlan_id_step_per_host= <0-4095>
host_num_cust_vlans= <0-9>
host_num_core_vlans= <0-9>
vpn_host_assignment= {hosts_per_ce|hosts_per_vpn|total_hosts}
total_hosts= <1-2147483647>
cust_hosts_per_ce= <1-2147483647>
core_hosts_per_ce= <1-2147483647>
ipv4_route_start= <a.b.c.d>
ipv4_route_step= <integer>
ipv4_route_prefix= <1-32>
ipv6_route_start= <aaaa:bbbb:cccc:dddd:eeee:ffff:gggg:hhhh>
ipv6_route_step= <integer>
ipv6_route_prefix= <1-128>
PBB EVPN Parameters
isid_start= <1-2147483647>
isid_step= <NUMERIC>
isid_count= <1-2147483647>
bmac_assignment= {per_ce|per_evi|per_pe}
cust_mac_addr= <MAC>
cust_mac_addr_step= <NUMERIC>
cust_mac_addr_prefix= <0-48>
cust_cmac_count= <1-2147483647>
provider_mac_addr= <MAC>
provider_mac_addr_step= <NUMERIC>
provider_mac_addr_prefix= <0-48>
provider_mac_addr_prefix= <0-48>
provider_cmac_count= <1-2147483647>
Traffic Generation Parameters
traffic_flow_direction= {none|fully_meshed|cust_to_core|core_to_customer|bidrectional}
traffic_stream_group_method= {aggregate|vpn }
traffic_use_single_stream_per_endpoint_pair= {true|false}
traffic_load_percent_provider= <0-100>
traffic_load_percent_cust= <0-100>
Arguments:
handle
Specifies the EVPN network configuration handle. This
argument is required for mode delete.
mode
Specifies the action to be performed. This argument is `Mandatory`.
Possible values are described below::
create Creates a EVPN network configuration
delete Deletes the EVPN network configuration specified by
handle
traffic_encapsulation
Specifies the traffic encapsulation mode. Possible values are::
ipv4 IPv4
ipv6 IPv6
no_ip Ethernet
The default value is no_ip.
unicast_enable
Enables or disables unicast
Values: true, false
Default: true
multicast_enable
Enables or disables multicast
Values: true, false
Default: false
pbb_enable
Enables or disables Provider Backbone Bridge (PBB) traffic
Values: true, false
Default: false
dut_router_id
Specifies the router ID for the DUT. The value must be in IPv4
format. The default value is 10.0.0.1.
dut_as
The Autonomous System (AS) number of the DUT. Possible values
range from 1 to 65535. The default value is 1.
dut_4byte_as_enable
Enables or disables the 4byte AS number on the DUT. Possible
values are true (enable) and false (disable). The default value
is false.
dut_4byte_as
Specifies the 4byte AS number of the DUT, in the format of
<integer>:<integer>. The integer must be less than 65535.
The default value is 1:1.
use_cust_ports
Determines whether to set the DUT to port connection for customer
ports. Possible values are true and false. Set it to false if the
test does not use customerside ports. The default value is true.
use_provider_ports
Determines whether to set the DUT to port connection for provider
ports. Possible values are true and false. Set it to false if the
test does not use providerside ports. The default value is true.
igp_protocol
Specifies the Interior Gateway Protocol (IGP) to be used by the
DUT. Possible values are::
OSPF OSPF
ISIS ISIS
RIP RIP
NONE No IGP protocol
The default value is OSPF.
mpls_protocol
Specifies the MPLS protocol to be used by the DUT. Possible
values are::
NONE No MPLS protocol
LDP LDP
RSVP RSVPTE
OSPF OSPF SR
ISIS ISIS SR
The default value is LDP.
igp_ospf_area_id
Specifies the IP address that indicates the customerside area to
which the emulated router belongs. The default value is 0.0.0.0.
This argument is available when igp_protocol is set to OSPF.
igp_ospf_network_type
Specifies the network link type to use.
Possible values are::
native Use the adjacency specified by the porttype
broadcast Use a Broadcast adjacency
p2p Use a P2P adjacency
The default value is native. This argument is available when
igp_protocol is set to OSPF.
igp_ospf_router_priority
Specifies the router priority of the emulated router. Possible
values range from 0 to 255. The default value is 0. This argument
is available when igp_protocol is set to OSPF.
igp_ospf_interface_cost
Specifies the cost of the interface connecting the emulated
router to the neighbor DUT router. Possible values range from 1
to 65535. The default value is 1. This argument is available when
igp_protocol is set to OSPF.
igp_ospf_options
Specifies the Options field that describes the optional OSPF
capabilities of the router. Possible values range from 0 to 0x7f.
The values are described below::
tbit Type of Service (TOS) (T,0).
ebit Specifies the way ASexternal-LSAs are flooded (E,1)
mcbit Specifies whether IP multicast datagrams are forwarded (MC,2)
npbit Specifies the handling of Type-7 LSAs (NSSA) (N/P,3)
eabit Specifies the router's willingness to receive and
forward ExternalAttributes-LSAs (EA,4)
dcbit Specifies the router's handling of demand circuits (DC,5)
obit Specifies the router's willingness to receive and forward
Opaque LSAs as specified in RFC 2370 (O,6)
unused7 This bit is not used
The default for OSPFv2 is 0x02, which sets the Ebit.
igp_ospf_auth_mode
Specifies the type of OSPFv2 authentication to be used.
Possible values are::
none No authentication
simple Use simple authentication
md5 Use MD5 authentication
The default value is none. This argument is available when
igp_protocol is set to OSPF.
igp_ospf_auth_password
Specifies the password used for OSPFv2 authentication. This
argument is available when igp_ospf_auth_mode is set to simple
or md5. When you specify igp_ospf_auth_mode simple, the value
must be of 1-8 alphanumeric characters. When you specify
igp_ospf_auth_mode md5, the value must be of 1-16 alphanumeric
characters. The default value is "spirent".
igp_ospf_auth_md5_key
Specifies the MD5 key used for OSPFv2 authentication. Possible
values range from 0 to 255. The default value is 1. This argument
is available when igp_ospf_auth_mode is set to md5.
igp_ospf_graceful_restart_enable
Enables or disables graceful restart for OSPF sessions. Possible
values are true (enable) and false (disable). The default value
is false. This argument is available when igp_protocol is set to
OSPF.
igp_ospf_graceful_restart_type
Specifies the type of graceful restart to be used by the OSPF
session. Possible values are::
none No graceful restart
rfc_standard RFC3623
ll_signalling LinkLayer Signaling
The default value is none.
igp_ospf_bfd_enable
Enables or disables Bidirectional Forwarding Detection (BFD) on
the OSPF interface. Possible values are true (enable) and false
(disable). The default value is false. This argument is available
when igp_protocol is set to OSPF.
igp_isis_level
Specifies the ISIS level to be used on the customer side. It
defines the type of adjacency that Spirent HLTAPI establishes
with the DUT. Possible values are described below::
level1 Level 1 (intraarea)
level2 Level 2 (interarea)
level1_and_2 Both Level 1 and Level 2
The default value is level2. This argument is available when
igp_protocol is set to ISIS.
igp_isis_network_type
Specifies the ISIS network type on the customer side. Possible
values are::
broadcast Broadcast network
p2p P2P network
The default value is broadcast. This argument is available when
igp_protocol is set to ISIS.
igp_isis_router_priority
Specifies the priority for the emulated ISIS router. Possible
values range from 0 to 127. The default value is 0. This argument
is available when igp_protocol is set to ISIS.
igp_isis_area1
Specifies the `Mandatory` area address 1. You must specify at least
one address. Spirent HLTAPI supports up to three addresses per
emulated router. This argument is available when igp_protocol is
set to ISIS.
igp_isis_area2
Specifies the optional area address 2. This argument is available
when igp_protocol is set to ISIS. The default value is "".
igp_isis_area3
Specifies the optional area address 3. This argument is available
when igp_protocol is set to ISIS. The default value is "".
igp_isis_circuit_id
Specifies the circuit ID for the ISIS session. Possible values
range from 0 to 255. The default value is 1. This argument is
available when igp_protocol is set to ISIS.
igp_isis_auth_mode
Specifies the type of ISIS authentication to be used. Possible
values are::
none No authentication
simple Use simple authentication
md5 Use the MD5 key ID
The default value is none. This argument is available when
igp_protocol is set to ISIS.
igp_isis_auth_password
Specifies the password used for ISIS authentication. This
argument is available when igp_isis_auth_mode is set to simple
or md5. When you specify igp_isis_auth_mode simple, the value
must be of 1-8 alphanumeric characters. When you specify
igp_isis_auth_mode md5, the value must be of 1-16 alphanumeric
characters. The default value is "spirent".
igp_isis_auth_md5_key
Specifies the MD5 key used in ISIS authentication. Possible
values range from 0 to 255. The default value is 1. This argument
is available when igp_isis_auth_mode is set to md5.
igp_isis_metric_mode
Specifies the length of the metric field in the Link State Path
(LSP) packet. This argument is available when igp_protocol is
set to ISIS. Possible values are described below::
narrow Router advertises routes with a
narrow (6bit) metric
wide Router advertises routes with a wide
(24 or 32bit) metric (required for IS-IS TE)
narrow_and_wide Router advertises the same route with both
metrics
The default value is narrow_and_wide.
igp_isis_l1_metric
Specifies the metric of the emulated router interface. It is
blank and disabled if igp_isis_level is set to level2 or if
igp_isis_metric_mode is set to wide. Possible values range from
1 to 63. The default value is 1.
igp_isis_l1_wide_metric
Indicates the 3octet metric of a link from the emulated ISIS
router to the DUT. It is blank and disabled if igp_isis_level is
set to level2 or if igp_isis_metric_mode is set to narrow.
Possible values range from 0 to 16777215. The default value is 1.
igp_isis_l2_metric
Indicates the metric of the emulated ISIS router interface. It is
blank and disabled if igp_isis_level is set to level1 or if
igp_isis_metric_mode is set to wide. Possible values range from
1 to 63. The default value is 1.
igp_isis_l2_wide_metric
Indicates the 3octet traffic engineering metric of a link from
the emulated ISIS router to the DUT. It is blank and disabled if
igp_isis_level is set to level1 or if igp_isis_metric_mode is
set to narrow. Possible values range from 0 to 16777215. The
default is 1.
igp_isis_graceful_restart_enable
Enables or disables the ISIS graceful restart. Possible values
are false (disable) and true (enable). The default value is
false.
igp_isis_hello_padding
Enables or disables Hello padding for ISIS sessions. Possible
values are true (enable) and false (disable). The default value
is true. This argument is available when you specify
igp_protocol ISIS.
igp_isis_bfd_enable
Enables or disables BFD on ISIS interfaces. Possible values are
true (enable) and false (disable). The default value is false.
mpls_rsvp_bandwidth_per_link
Specifies the maximum bandwidth per ISIS/OSPFv2 TE link, in bytes
per second, for simulated provider router topology links.
Possible values range from 1 to 2147483647. The default value is
100000. This argument is available when you specify
mpls_protocol RSVP.
mpls_rsvp_bandwidth_per_tunnel
Specifies the RSVPTE bandwidth rate, in bytes per second, for
provider tunnels. Possible values range from 1 to 2147483647. The
default value is 0. This argument is available when you specify
mpls_protocol RSVP.
mpls_rsvp_egress_label
Specifies the label to be advertised when emulated router is at the
tailend of the tunnel. This argument is available when you
specify mpls_protocol rsvp. The values are described below::
next_available Advertises the next available label
implicit_null Advertises label 3, the implicit null label
explicit_null Advertise label 9, the explicit null label
The default value is next_available.
mpls_rsvp_transit
Defines the RESV message sent when emulated router is not the
tailend router for PATH messages it receives. This argument is
available when you specify mpls_protocol rsvp. Possible values
are described below::
accept_all The router sends an RESV message with
the next available label for every PATH
message received by the unique MAC/VLAN
combination on the port
accept_configured The router sends an RESV message with
the next available label in response to PATH
messages that match one of its egress
tunnels
The default value is accept_configured.
mpls_rsvp_min_label
Defines the minimum label number used by the RSVP session.
Possible values range from 1 to 65535. The default value is 16.
This argument is available when you specify mpls_protocol RSVP.
mpls_rsvp_max_label
Defines the maximum label number used by the RSVP session.
Possible values range from 1 to 65535. The default value is
65535. This argument is available when you specify mpls_protocol
RSVP.
mpls_rsvp_graceful_restart_enable
Enables or disables graceful restart for RSVP. Possible values
are false (disable) and true (enable). The default value is false.
mpls_rsvp_recover_time
Specifies the length of time (in milliseconds) that the sender
wants the recipient to resynchronize RSVP and MPLS forwarding
state with the sender, after the reestablishment of Hello
synchronization. Possible values range from 0 to 4294967295. The
default value is 0. This argument is available when
mpls_rsvp_graceful_restart_enable is set to true.
mpls_rsvp_restart_time
Specifies the amount of time (in milliseconds) it takes the
sender of the object to restart its RSVP component and the
communication channel used for RSVP communication. Possible
values are 0 to 4294967295. The default value is 3000. This
argument is available when mpls_rsvp_graceful_restart_enable is
set to true.
mpls_rsvp_bfd_enable
Enables or disables BFD on RSVP interfaces. Possible values are
true (enable) and false (disable). The default value is false.
mpls_rsvp_request_conf
Determines whether to include an RESV_CONFIRM object in the RESV
message. Possible values are true and false. When it is set to
true, an RESV_CONFIRM object will be included in the RESV
message. The default value is false.
mpls_rsvp_hello_enable
Enables or disables Hello packets for RSVP sessions. Possible
values are true (enable) and false (disable). The default value is
false.
mpls_rsvp_hello_interval
Specifies the interval between RSVP Hello packets. Possible
values range from 1 to 2147483647. The default value is 1000.
This argument is available when mpls_rsvp_hello_enable is set to
true.
mpls_rsvp_bundle_mode
Specifies the bundle mode. Possible values are::
observation Start bundling only after receiving a bundled message
manual Start bundling immediately
The default value is observation.
mpls_rsvp_bundle_interval
Specifies the time interval (in milliseconds) to wait before
sending queued messages. Messages are held in a buffer and are
sent out as a bundle after the interval (in ms) expires or when
message size exceeds the MTU. Possible values range from 1 to
2147483647. The default value is 1000.
mpls_rsvp_summary_refresh_interval
Specifies the time interval (in milliseconds) to gather refresh
messages that would have been sent out individually. Possible
values range from 1 to 2147483647. The default value is 9000.
mpls_rsvp_inter_packet_delay
Specifies the time delay (in milliseconds) between transmitted
RSVP packets. Possible values range from 0 to 2147483647. The
default value is 30.
mpls_rsvp_refresh_interval
Specifies the time interval for a PATH and RESV message to be
sent out to the path receiver to refresh the PATH/RESV state
along each hop of the path. Possible values range from 1 to
2147483647. The default value is 30000.
mpls_rsvp_reliable_delivery
Enables or disables reliable delivery for RSVP sessions. Possible
values are true (enable) and false (disable). The default value is
false.
mpls_rsvp_ack_mode
Specifies the ACK message transmission mode
Values::
immediate Send ACK immediately
piggyback Send multiple message IDs in one ACK when the
ACK timer expires
Default: immediate
mpls_rsvp_retrans_interval
Specifies the initial retransmission interval (in milliseconds)
for unacknowledged messages. Possible values range from 1 to
2147483647. The default value is 500.
mpls_rsvp_retrans_limit
Specifies the maximum number of times a message is transmitted
without being acknowledged. Possible values range from 0 to 10.
The default value is 3.
mpls_rsvp_retrans_delta
Specifies the multiplier by which the retransmission interval is
increased each time an unacknowledged message is retransmitted.
Possible values range from 0 to 3. The default value is 1.
mpls_ldp_hello_type
Specifies the type of Hello packets for LDP. Possible values are::
direct The Peer IP address is the DUT interface address.
Used to locate directly connected neighbors.
targeted The Peer IP address is the DUT loopback address.
Used to locate neighbors which are not directly connected.
This argument is available when you specify mpls_protocol LDP.
mpls_ldp_transport_mode
Specifies the mode of the LDP Transport Address TLV. Possible
values are::
none The Transport Address TLV will not be included in
LDP Hello messages
tester_ip The LSR will take the emulated router interface
address as the transport address and include
the Transport Address TLV in LDP Hello messages
router_id The LSR will take the emulated router ID, that is,
the loopback address as the transport address and
include the Transport Address TLV in LDP Hello
messages.
The default value is tester_ip. This argument is available when
you specify mpls_protocol LDP.
mpls_ldp_hello_interval
Specifies the amount of time, in seconds, between Hello messages
in an LDP session. Possible values range from 1 to 21845. The
default value is 5. This argument is available when you specify
mpls_protocol LDP.
mpls_ldp_keepalive_interval
Specifies the amount of time, in seconds, between KEEPALIVE
messages. Possible values range from 1 to 21845. The default value is
60. This argument is available when you specify mpls_protocol
LDP.
mpls_ldp_egress_label
Specifies the emulated label to be advertised by the emulated peer.
Possible values are described below::
next_available Advertises the next available label
implicit_null Advertises label 3, the implicit null label
explicit_null Advertise label 9, the explicit null label
The default value is next_available. This argument is available when
you specify mpls_protocol LDP.
mpls_ldp_min_label
Defines the minimum label number used by the LDP session.
Possible values range from 1 to 65535. The default value is 16.
This argument is available when you specify mpls_protocol LDP.
mpls_ldp_graceful_restart_enable
Enables or disables graceful restart for LDP sessions. Possible
values are true (enable) and false (disable). The default value
is false. This argument is available when you specify
mpls_protocol LDP.
mpls_ldp_recover_time
Specifies the length of time (in milliseconds) that the sender
desires for the recipient to resynchronize LDP and MPLS
forwarding state with the sender, after the reestablishment of
Hello synchronization. Possible values are 0 to 4294967. The
default value is 140. This argument is available when
mpls_ldp_graceful_restart_enable is set to true.
mpls_ldp_reconnect_time
Specifies the amount of time, in seconds, it takes Spirent HLTAPI
to reconnect after a graceful restart. To use this argument, you
must set mpls_ldp_graceful_restart_enable to true and specify a
value for the mpls_ldp_recover_time argument. Possible values
range from 0 to 4294967. The default value is 60.
mpls_ldp_bfd_enable
Enables or disables BFD on LDP interfaces. Possible values are
true (enable) and false (disable). The default value is false.
This argument is available when mpls_protocol is set to LDP.
mpls_ldp_label_adv_mode
Specifies the label advertisement mode for LDP sessions.
Possible values are downstream_unsolicited and
downstream_on_demand. The default value is downstream_on_demand.
mpls_ldp_auth_mode
Specifies the authentication type for LDP.
Possible values are::
none No authentication
md5 MD5 authentication
The default value is none.
mpls_ldp_auth_password
Specifies the password used for LDP authentication. This
argument is available when mpls_ldp_auth_mode is set to md5.
The default value is "Spirent".
mpls_ospf_sr_algorithms
A commaseparated list of integers to specify the algorithm to
calculate the reachability to other nodes or to prefixes attached
to these nodes. Possible values range from 0 to 255. The default
value is 0. This argument is available when mpls_protocol is set
to OSPF.
mpls_ospf_sid_base
Specifies the base value for the SID/Label range. Possible values
range from 0 to 4294967295. The default value is 100. This
argument is available when mpls_protocol is set to OSPF.
mpls_ospf_sid_range
Specifies the size of the SID/Label range for OSPF SR. Possible
values range from 0 to 65535. The default value is 100. This
argument is available when mpls_protocol is set to OSPF.
mpls_ospf_node_sid_index
Specifies the index value for the SID subTLV of OSPF SR.
Possible values range from 0 to 4294967295. The default value is
0. This argument is available when mpls_protocol is set to OSPF.
mpls_ospf_node_sid_index_step
Specifies the increment value with which to create subsequent SID
indexes of ISIS SR. Possible values range from 0 to
4294967295. The default value is 1. This argument is available
when mpls_protocol is set to OSPF.
mpls_isis_sr_algorithm
Specifies the ISIS SR algorithm, in string format. The default
value is 0. This argument is available when mpls_protocol is set
to ISIS.
mpls_isis_sid_base
Specifies the base value for the SID/Label range of OSPF SR.
Possible values range from 0 to 4294967295. The default value is
100. This argument is available when mpls_protocol is set to
ISIS.
mpls_isis_sid_range
Specifies the size of the SID/Label range for OSPF SR.
Possible values range from 0 to 65535. The default value is 100.
This argument is available when mpls_protocol is set to ISIS.
mpls_isis_node_sid_index
Specifies the index value for the SID subTLV of ISIS SR.
Possible values range from 0 to 4294967295. The default value is
0. This argument is available when mpls_protocol is set to ISIS.
mpls_isis_node_sid_index_step
Specifies the increment value with which to create subsequent SID
indexes of the ISIS SR. Possible values range from 0 to
4294967295. The default value is 1. This argument is available when
mpls_protocolo is set to ISIS.
p_router_enable
Enables or disables the emulation of provider (P) routers in the
test. Possible values are true and false. When it is set to
false, only provider edge routers will be emulated or simulated.
The default value is true.
p_router_num_per_subif
Specifies the number of P routers per subinterface on the
provider side. Only one emulated P router can be created per
subinterface. If this number is greater than 1, the additional P
routers are simulated through the IGP protocol routes. The
topology for the additional P routers is determined by the
p_router_topology_type option. Possible values range from 1 to
65535. The default value is 1. This argument is available when
p_router_enable is set to true.
p_router_topology_type
Defines the topology of the provider network. Possible
values are tree and grid. The default value is tree.
p_router_id_start
Defines the first loopback address of emulated P routers. The
value must be in IPv4 format. The default value is 192.0.1.1.
This argument is available when p_router_enable is set to true.
p_router_id_step
Specifies the step value by which to generate additional loopback
addresses for the emulated P routers. The value must be in IPv4
format. The default value is 0.0.1.0. This argument is available
when p_router_enable is set to true.
p_router_ipv4_addr
Specifies the starting IPv4 interface address of the emulated P
routers. The default value is 1.0.0.1. This argument is available
when p_router_enable is set to true.
p_router_ipv4_prefix_len
Specifies the IP prefix length on the simulated P router.
Possible values range from 0 to 32. The default value is 24. This
argument is available when p_router_enable is set to true.
pe_router_num_per_subif
Defines the number of PE routers created on each
provider subinterface. Possible values range from 1 to
65535. The default value is 1. This argument is available when
p_router_enable is set to true.
pe_router_id_start
Specifies the starting IPv4 address for the PE router. The
default is 10.0.0.2. This argument is available when
p_router_enable is set to true.
pe_router_id_step
Defines the step size by which the providerside PE router is
incremented. The default value is 0.0.0.1. This argument is
available when p_router_enable is set to true.
bgp_route_reflector_enable
Enables or disables route reflectors on the core side. Possible
values are true (enable) and false (disable). The default value
is false.
bgp_route_reflector_ids
Specifies the BGP route reflector ID. The value must be in IPv4
format. The default value is 0.0.0.0.
vrf_count
Specifies the number of VPN Routing and Forwarding tables (VRFs)
to be configured. Possible values range from 1 to 65535. The
default is 1.
vrf_rd_assignment
Specifies the route distinguisher assignment mode. Possible
values are::
use_rt Use the route target field for all
route distinguishers in the VPN
manual Manually configure route distinguishers
The default value is use_rt.
vrf_route_target_start
Specifies the starting route target for the VPN, in the format of
ASNumber:Value or IPv4-Address:Value. The default value is 1:00.
vrf_route_target_step
Specifies the step size by which the route target is incremented.
The value must be in the format of ASNumber:Value or
IPv4Address:Value. The default value is 1:00.
cust_ce_vrf_assignment
Determines how VRFs are assigned to CE routers on the customer
side. Possible values are::
round_robin The first CE created is assigned to
the first VRF. The second CE created
is assigned to the second VRF, and so forth.
When the specified number of VRFs is reached,
the VRF assignment repeats from the first
VRF.
sequential CEs created are assigned to the
first VRF until the calculated number of CEs
per VRF is reached. Additional CEs are
assigned to the second and subsequent VRFs in
the same fashion.
cust_rd_start
Specifies the starting route distinguisher on the customer side.
This argument is available when vrf_rd_assignment is set to
MANUAL. The default value is 1:0.
cust_rd_step_per_vrf_enable
Enables or disables the step value for additional customerside
route distinguishers per VPN. Possible values are true and false.
The default value is true.
cust_rd_step_per_vrf
Specifies the step value by which to generate additional
customerside route distinguishers per VPN. The default value is
1:0.
cust_rd_step_per_ce_enable
Enables or disables the step value for additional customerside
route distinguishers per CE. Possible values are true and false.
The default value is false.
cust_rd_step_per_ce
Specifies the step value by which to generate additional
customerside route distinguishers per CE. The default value is
0:0. This argument is available when cust_rd_step_per_ce_enable
is set to true.
cust_route_count_per_ce
Specifies the number of routes that will be added to each
customerside CE. The default value is 1.
provider_pe_vrf_assignment
Specifies how VPNs are assigned to PE routers. Possible values
are::
vpn_per_pe VPNs will be distributed across a set of PEs
pe_per_vpn PEs will be distributed across a set of VPNs
The default value is vpn_per_pe.
provider_pe_vrf_count
Specifies the number of items (VPNs or PEs) assigned to each
target (VPN or PE). When provider_pe_vrf_assignment is set to
vpn_per_pe, this argument indicates the number of VPNs assigned
to each PE, and possible values range from 1 to the number of
VPNs. When provider_pe_vrf_assignment is set to pe_per_vpn, this
argument indicates the number of PEs assigned to each VPN, and
possible values range from 1 to the number of PEs. The default
value is 1.
If the value is less than the maximum number of items, and there
is more than one target, the specified number of items are
assigned in a roundrobin fashion to each target. This argument
is available when provider_pe_vrf_all_assign is set to false.
provider_pe_vrf_all_assign
Determines whether each PE uses all VPNs. Possible values are
true and false. If it is set to false, you can manually set the
number of VPNs that each PE will advertise routes for. The
default value is false.
provider_ce_bgp_as_enable
Enables or disables BGP AS numbers for CEs on the provider side.
Possible values are true (enable) and false (disable). The
default value is false.
provider_ce_bgp_as
Specifies the starting BGP AS number on the provider side.
Possible values range from 1 to 65535. The default value is 1.
This argument is available when provider_ce_bgp_as_enable is set
to true.
provider_ce_bgp_as_step_per_ce_enable
Enables or disables the step value for additional CE BGP AS
numbers across CEs on the provider side. Possible values are true
(enable) and false (disable). The default value is false.
provider_ce_bgp_as_step_per_ce
Specifies the step value by which to generate additional CE BGP
AS numbers across CEs on the provider side. Possible values range
from 1 to 65535. The default value is 1. This argument is
available when provider_ce_bgp_as_step_per_ce_enable is set to
true.
provider_ce_bgp_as_step_per_vrf_enable
Enables or disables the step value for additional CE BGP AS
numbers across VPNs on the provider side. Possible values are
true (enable) and false (disable). The default is true.
provider_ce_bgp_as_step_per_vrf
Specifies the step value by which to generate additional CE BGP
AS numbers across VPNs on the provider side. Possible values
range from 1 to 65535. The default value is 1.
provider_ce_bgp_4byte_as_enable
Enables or disables 4byte AS numbers for CE routers on the
provider side. Possible values are true (enable) and false
(disable). The default value is false.
provider_ce_bgp_4byte_as
Defines the first 4byte AS number for CEs on the provider side.
The default value is 1:01. This argument is available when
provider_ce_bgp_4byte_as_enable is set to true.
provider_ce_bgp_4byte_as_step_per_ce_enable
Enables or disables the step value for additional CE 4byte AS
numbers across CEs on the provider side. Possible values are true
(enable) and false (disable). The default value is false.
provider_ce_bgp_4byte_as_step_per_ce
Specifies the step value by which to generate additional CE
4byte AS numbers across CEs on the provider side. Possible
values range from 1 to 65535. The default value is 1. This
argument is available when provider_ce_bgp_4byte_as_step_per_ce_enable
is set to true.
provider_ce_bgp_4byte_as_step_per_vrf_enable
Enables or disables the step value for additional CE 4byte AS
numbers per VPN on the provider side. Possible values are true
(enable) and false (disable). The default value is true.
provider_ce_bgp_4byte_as_step_per_vrf
Specifies the step value by which to generate additional CE
4byte AS numbers across VPNs on the provider side. Possible
values range from 1 to 65535. The default value is 1.
provider_rd_start
Specifies the starting route distinguisher for provider sites.
The default value is 1:0.
provider_rd_step_per_vrf_enable
Enables or disables the step value for additional route
distinguishers per VPN on the provider side. Possible values are
true (enable) and false (disable). The default value is true.
provider_rd_step_per_vrf
Specifies the step value by which to generate additional route
distinguishers across VPNs on the provider side. The default
value is 1:0.
provider_rd_step_per_ce_enable
Enables or disables the step value for additional route
distinguishers across CE routers on the provider side. Possible
values are true (enable) and false (disable). The default value
is false.
provider_rd_step_per_ce
Specifies the step value by which to generate additional route
distinguishers across CE routers on the provider side. The
default value is 0:0.
provider_route_count_per_ce
Specifies the number of routes that will be added to each CE
router on the provider side. The default value is 1.
provider_ethernet_tags_per_evi
Number of provider side tags to create per EVI
Values: 1-2147483647
Default: 1
provider_ethernet_start_tag
Specifies the value of the first Ethernet tag
Values: 1-2147483647
Default: 1
provider_ethernet_step_tag
Increment value by which to create subsequent tags
Values: 1-2147483647
Default: 1
ethernet_segment_type
Specifies the Ethernet segment type
Values::
type0 Operator
type1 IEEE 802.1AX LACP
type2 Bridged LAN
type3 MAC Based
type4 Router ID
type5 Autonomous System
Default: type0
ethernet_segment_id
Specifies the segment ID to identify the link between the CE and a PE
Values: 10byte hexadecimal
Default: 00:00:00:00:00:00:00:00:00
ethernet_segment_id_step
Increment value by which to create subsequent segment IDs
Values: 10byte hexadecimal
Default: 00:00:00:00:00:00:00:00:00
ethernet_segment_route
Enables or disables Ethernet segment routes
Values: true, false
Default: false
host_mac_start
Specifies the MAC address of first host
Values: MAC
Default: 0.0.1.0.0.1
host_mac_step
Increment value by which to create subsequent MAC addresses
Values: integer
Default: 1
host_mac_prefix
Specifies the prefix for the host MAC address
Values: 0-48
Default: 48
host_overlap
Determines whether to allow host overlap when starting a new CE
host block
Values:
true
Restart the numbering of the emulated CE host block's MAC
address at the host_mac_start value
false
Continue incrementing the MAC address
Default: false
route_mpls_label_type
Specifies the MPLS label type for the VPN route
Values:
route Label per Site
site Label per Route
Default: site
route_mpls_label_start
Specifies the value of the first MPLS label
Default: 16
vlan_enable
Enables or disables host VLANs
Values: true, false
Default: false
host_vlan_id
Specifies the ID of the first VLAN
Values: 0-4095
Default: 100
host_vlan_id_step_per_host
Increment value by which to create subsequent VLAN IDs per host
Values: 0-4095
Default: 0
host_vlan_id_step_per_evi
Increment value by which to create subsequent VLAN IDs per VPN
Values: 0-4095
Default: 0
host_num_cust_vlans
Number of VLAN headers on the customer side
Values: 1-9
Default: 1
host_num_core_vlans
Number of VLAN headers on the provider side
Values: 1-9
Default: 1
vpn_host_assignment
Specifies how hosts or MAC addresses are assigned
Values::
hosts_per_ce Hosts/MACs per CE
hosts_per_vpn Hosts/MACs per VPN
total_hosts Total Hosts/MACs
Default: hosts_per_ce
total_hosts
Specifies the total number of hosts
Default: 100
cust_hosts_per_ce
Number of hosts per customer CE
Values: 1-2147483647
Default: 1
core_hosts_per_ce
Number of hosts per provider CE
Values: 1-2147483647
Default: 1
ipv4_route_start
Specifies the first IP address assigned to the route
Values: IPv4
Default: 110.1.1.0
ipv4_route_step
Increment value by which to create subsequent IP addresses
Values: integer
Default: 1
ipv4_route_prefix
Specifies the IPv4 prefix length
Values: 1-32
Default: 32
ipv6_route_start
Specifies the first IP address assigned to the route
Values: IPv6
Default: 2001:::
ipv6_route_step
Increment value by which to create subsequent IPv6 addresses
Values: integer
Default: 1
ipv6_route_prefix
Specifies the IPv6 prefix length
Values: 1-128
Default: 128
isid_start
Specifies the value of the first Backbone Service Instance
Identifier (ISID)
Values: 1-16777215
Default: 1
isid_step
Increment value by which to create additional ISIDs
Values: 1-16777215
Default: 1
isid_count
Specifies the number of service instance tags to create
Values: 1-16777215
Default: 1
bmac_assignment
Specifies how the MAC address of the backbone router is assigned
Values:
per_ce Per CE
per_evi Per EVI
per_pe Per PE
Default: per_evi
cust_mac_addr
Specifies the first MAC address of the customer side router
Default: 0.0.1.0.0.1
cust_mac_addr_step
Increment value by which to create subsequent MAC addresses for
customer side routers
Default: 1
cust_mac_addr_prefix
Specifies the MAC prefix for the customer side router
Values: 0-48
Default: 48
cust_cmac_count
Specifies the number of MAC addresses to create for customer side
routers
Values: 1-2147483647
Default: 1
provider_mac_addr
Specifies the first MAC address of the provider side router
Values: Integer
Default: 0.0.1.0.0.1
provider_mac_addr_step
Increment value by which to create subsequent MAC addresses for
provider side routers
Default: 1
provider_mac_addr_prefix
Specifies the MAC prefix for the provider side router
Values: 0-48
Default: 48
provider_cmac_count
Specifies the number of MAC addresses to create for provider side
routers
Values: 1-2147483647
Default: 1
traffic_flow_direction
Specifies the type of traffic flows to create. This argument is
available when traffic_enable is set to true. Possible
values are described below::
cust_to_core Traffic is created from the customer side to
the core side
core_to_cust Traffic is created from the core side to
the customer side
bidirectional Traffic is created from both directions
fully_meshed Traffic is created in a fully meshed pattern
none None
The default value is bidirectional.
traffic_stream_group_method
Determines how to aggregate streams in a streamblock.
Possible values are::
aggregate Aggregates all streams into a single streamblock
vpn Aggregates all streams for a single VPN into a
single streamblock
traffic_use_single_stream_per_endpoint_pair
Determines whether Spirent HLTAPI will assign a single stream ID
to each endpoint pair. Possible values are true and false. The
default value is false.
traffic_load_percent_provider
Specifies the load percentage for test traffic from each
providerside port. Possible values range from 0 to 100. The
default value is 10.
traffic_load_percent_cust
Specifies the load percentage for test traffic from each
customerside port. Possible values range from 0 to 100. The
default value is 10.
- Return Values:
Depending on the specific language that HLTAPI uses, the function returns a keyed list/dictionary/hash (See Introduction for more information on return value formats) using the following keys (with corresponding data):
handle EVPN network configuration handle created by this function status Success or Failure of the operation log Error message if command returns {status 0}
The following keys are returned when you specify mode create:
ce_router CE router handle p_router P router handle rr_router RR router handle pe_router PE router handle vpn VPN handle ospf OSPF SR handle isis ISIS SR handle ldp LDP handle rsvp RSVPTE handle bgp BGP handle bfd BFD handle rip RIP handle stream_id Streamblock handle
- Description:
The
emulation evpn wizard configfunction creates or deletes EVPN network topologies, mapping the operations of the EVPN Wizard in the Spirent TestCenter GUI. Use the mode argument to specify the action to perform.Before you use the function, you must configure customer and provider test ports using the emulation evpn provider port config and
emulation evpn cust port configfunctions.If the operation fails, Spirent HLTAPI returns an error message.
Examples:
The following example creates a EVPN network topology:
set evpn_config_isis_ret1 [emulation evpn wizard config mode= create dut_router_id= 10.0.0.1 dut_as= 1 dut_4byte_as_enable= false dut_4byte_as= 1:1 use_provider_ports= true use_cust_ports= true igp_protocol= isis mpls_protocol= isis igp_isis_level= level2 igp_isis_network_type= broadcast igp_isis_area1= 00001 igp_isis_circuit_id= 1 igp_isis_auth_mode= none igp_isis_auth_password= Spirent igp_isis_auth_md5_key= 1 igp_isis_metric_mode= narrow_and_wide igp_isis_l1_metric= 1 igp_isis_l1_wide_metric= 1 igp_isis_l2_metric= 1 igp_isis_l2_wide_metric= 1 igp_isis_graceful_restart_enable= false igp_isis_hello_padding= true igp_isis_bfd_enable= false mpls_isis_sr_algorithm= 0 mpls_isis_sid_base= 100 mpls_isis_sid_range= 100 mpls_isis_node_sid_index= 0 mpls_isis_node_sid_index_step= 1 p_router_enable= false p_router_num_per_subif= 1 p_router_topology_type= tree p_router_id_start= 192.0.1.1 p_router_id_step= 0.0.1.0 p_router_ipv4_addr= 1.0.0.1 p_router_ipv4_prefix_len= 24 pe_router_num_per_subif= 1 pe_router_id_start= 10.0.0.2 pe_router_id_step= 0.0.0.1 bgp_route_reflector_enable= false bgp_route_reflector_ids= 0.0.0.0 vrf_count= 10 vrf_rd_assignment= manual vrf_route_target_start= 1:1 vrf_route_target_step= 1:1 cust_ce_vrf_assignment= round_robin provider_pe_vrf_assignment= vpn_per_pe provider_pe_vrf_all_assign= true traffic_flow_direction= bidirectional traffic_stream_group_method= aggregate traffic_use_single_stream_per_endpoint_pair= false traffic_load_percent_provider= 10 traffic_load_percent_cust= 10 traffic_encapsulation= no_ip unicast_enable= true multicast_enable= false pbb_enable= false provider_ethernet_tags_per_evi= 1 provider_ethernet_start_tag= 1 provider_ethernet_step_tag= 1 ethernet_segment_type= type0 ethernet_segment_id= "00:00:00:00:00:00:00:00:00" ethernet_segment_id_step= "00:00:00:00:00:00:00:00:00" ethernet_segment_route= false host_mac_start= "00:00:01:00:00:01" host_mac_step= 1 host_mac_prefix= 48 host_overlap= false route_mpls_label_type= site route_mpls_label_start= 16 vlan_enable= false host_vlan_id= 100 host_vlan_id_step_per_evi= 1 host_vlan_id_step_per_host= 0 host_num_cust_vlans= 1 host_num_core_vlans= 1 vpn_host_assignment= hosts_per_ce total_hosts= 2 cust_hosts_per_ce= 1 core_hosts_per_ce= 1 isid_start= 1 isid_step= 1 isid_count= 1 bmac_assignment= per_evi cust_mac_addr= "00:00:01:00:00:01" cust_mac_addr_step= 1 cust_mac_addr_prefix= 48 cust_cmac_count= 1 provider_mac_addr= "00:00:01:00:00:01" provider_mac_addr_step= 1 provider_mac_addr_prefix= 48 provider_cmac_count= 1Sample output:
{status 1} {handle {{vpn {vpnidgroup1 vpnidgroup2 vpnidgroup3 vpnidgroup4 vpnidgroup5 vpnidgroup6 vpnidgroup7 vpnidgroup8 vpnidgroup9 vpnidgroup10}} {ce_router {emulateddevice21 emulateddevice22 emulateddevice23 emulateddevice24 emulateddevice25 emulateddevice26 emulateddevice27 emulateddevice28 emulateddevice29 emulateddevice30}} {p_router {}} {rr_router {}} {pe_router {emulateddevice1 emulateddevice2 emulateddevice3 emulateddevice4 emulateddevice5 emulateddevice6 emulateddevice7 emulateddevice8 emulateddevice9 emulateddevice10 emulateddevice11 emulateddevice12 emulateddevice13 emulateddevice14 emulateddevice15 emulateddevice16 emulateddevice17 emulateddevice18 emulateddevice19 emulateddevice20}} {ospfv2 {}} {ospfv3 {}} {isis {isisrouterconfig1 isisrouterconfig2 isisrouterconfig3 isisrouterconfig4 isisrouterconfig5 isisrouterconfig6 isisrouterconfig7 isisrouterconfig8 isisrouterconfig9 isisrouterconfig10}} {ldp {}} {rsvp {}} {bgp {bgprouterconfig1 bgprouterconfig2 bgprouterconfig3 bgprouterconfig4 bgprouterconfig5 bgprouterconfig6 bgprouterconfig7 bgprouterconfig8 bgprouterconfig9 bgprouterconfig10}} {bfd {}} {stream_id {streamblock1 streamblock2}}}}
emulation evpn control¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Starts or stops the specified EVPN topology
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation evpn control
action= {start|stop} M
port_handle= <port_handle>
handle= <handle>
Arguments:
port_handle
Specifies the port on which routers will start or stop. You must
specify either handle or -port_handle, but not both.
handle
Specifies the routers to start or stop. You must specify either
handle or -port_handle, but not both.
action
Specifies the action to performed. This argument is `Mandatory`.
Possible values are described below::
start Starts the specified EVPN network
stop Stops the specified EVPN network
- Return Values:
Depending on the specific language that HLTAPI uses, the function returns a keyed list/dictionary/hash (See Introduction for more information on return value formats) using the following keys (with corresponding data):
status Success (1) or failure (0) of the operation log An error message (if the operation failed)
- Description:
- The
emulation evpn controlfunction controls the configured EVPN topology. Use the action argument to start or stop the test. - Examples:
Sample Input:
emulation evpn control port_handle= $port1 port2 action= startSample Output:
{status 1}
emulation evpn info¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Retrieves statistics for the EVPN test
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation routing mpls info
mode= {rsvp|ldp|isis|ospfv2|ospfv3|bgp|rip|bfd|summary} M
handle= <handle>
port_handle= <port_handle>
Arguments:
handle
Specifies the router from which to retrieve statistics. You
must specify either handle or -port_handle, but not both.
port_handle
Specifies the port from which to retrieve statistics
mode
Determines the protocol for which statistics will be retrieved.
This argument is `Mandatory`. Possible values are rsvp, ldp, isis,
ospfv2, bgp, rip, bfd, and summary.
- Return Values:
Depending on the specific language that HLTAPI uses, the function returns a keyed list/dictionary/hash (See Introduction for more information on return value formats) using the following keys (with corresponding data):
status Success (1) or failure (0) of the operation log An error message (if the operation failed)
The following keys are returned when you specify mode rsvp:
EventInProgress Event in progress TxPath Number of PATH messages sent RxPath Number of PATH messages received TxReservation Number of Reservation messages sent RxReservation Number of Reservation messages received TxPathError Number of PATH Error messages sent RxPathError Number of PATH Error messages received TxReservationError Number of Reservation Error messages sent RxReservationError Number of Reservation Error messages received TxReservationConfirmation Number of Reservation Confirm messages sent RxReservationConfirmation Number of Reservation Confirm messages received TxPathTeardown Number of PATH Tear Down messages sent RxPathTeardown Number of PATH Tear Down messages received TxReservationTeardown Number of Reservation Tear Down messages sent RxReservationTeardown Number of Reservation Tear Down messages received LspUpCount Number of LSPs in Up state LspDownCount Number of LSPs in Down state LspConnectingCount Number of LSPs in Connecting state MinLspSetupTime Minimum time (in ms) to set up an LSP on the session MaxLspSetupTime Maximum time (in ms) to set up an LSP on the session AvgLspSetupTime Average time (in ms) to set up an LSP on the session LastTxReservationErrorCode Reports the last Reservation Error message code sent LastRxReservationErrorCode Reports the last Reservation Error message code received LastTxPathErrorCode Reports the last PATH Error message code sent LastRxPathErrorCode Reports the last PATH Error message code received TxHello Number of Hello packets sent RxHello Number of Hello packets received TxPathRecovery Number of PATH Recovery packets sent RxPathRecovery Number of PATH Recovery packets received EgressLspUpCount Number of egress LSPs in Up state TxNotify Number of Notify packets sent RxNotify Number of Notify packets received Timestamp Timestamp of the results
The following keys are returned when you specify mode ldp:
TxDirectHellosCount Number of direct Hellos sent TxIpv4DirectHellosCount Number of IPv4 direct Hellos sent TxIpv6DirectHellosCount Number of IPv6 direct Hellos sent RxDirectHellosCount Number of direct Hellos received RxIpv4DirectHellosCount Number of IPv4 direct Hellos received RxIpv6DirectHellosCount Number of IPV6 direct Hellos received TxTargetedHellosCount Number of targeted Hellos sent TxIpv4TargetedHellosCount Number of IPv4 targeted Hellos sent TxIpv6TargetedHellosCount Number of IPv6 targeted Hellos sent RxTargetedHellosCount Number of targeted Hellos received RxIpv4TargetedHellosCount Number of IPv4 targeted Hellos received RxIpv6TargetedHellosCount Number of IPv6 targeted Hellos received LspUpCount Number of LSPs in Up state NumLspDownCount Number of LSPs in Down state TxKeepAliveCount Number of Keepalives sent RxKeepAliveCount Number of Keepalives received TxLabelRequestsCount Number of Label Requests sent RxLabelRequestsCount Number of Label Requests received TxLabelMappingCount Number of Label Mapping messages sent RxLabelMappingCount Number of Label Mapping messages received TxLabelAbortCount Number of Label Abort requests sent RxLabelAbortCount Number of Label Abort requests received TxLabelWithdrawCount Number of Label Withdraw messages sent RxLabelWithdrawCount Number of Label Withdraw messages received TxLabelReleaseCount Number of Label Release messages sent RxLabelReleaseCount Number of Label Release messages received TxNotificationCount Number of Notification messages sent RxNotificationCount Number of Notification messages received TxAddrWithdrawCount Number of Address Withdraw messages sent RxAddrWithdrawCount Number of Address Withdraw messages received TxNotifyCode Notification code sent in string format RxNotifyCode Notification code received in string format LdpSessionVersion LDP session version
The following keys are returned when you specify mode isis:
TxPtpHelloCount Number of pointto-point Hellos sent to the SUT RxPtpHelloCount Number of pointto-point Hellos received from the SUT TxL1LanHelloCount Number of L1 Tx LAN Hellos sent to the SUT RxL1LanHelloCount Number of L1 Rx LAN Hellos received from the SUT TxL1LspCount Number of L1 Tx LSPs sent to the SUT RxL1LspCount Number of L1 Rx LSPs received from the SUT TxL1CsnpCount Number of L1 Tx CSNPs sent to the SUT RxL1CsnpCount Number of L1 Rx CSNPs received from the SUT TxL1PsnpCount Number of L1 Tx PSNPs sent to the SUT RxL1PsnpCount Number of L1 Rx PSNPs received from the SUT TxL2LanHelloCount Number of L2 Tx LAN Hellos sent to the SUT RxL2LanHelloCount Number of L2 Rx LAN Hellos received from the SUT TxL2LspCount Number of L2 Tx LSPs sent to the SUT RxL2LspCount Number of L2 Rx LSPs received from the SUT TxL2CsnpCount Number of L2 Tx CSNPs sent to the SUT RxL2CsnpCount Number of L2 Rx CSNPs received from the SUT TxL2PsnpCount Number of L2 Tx PSNPs sent to the SUT RxL2PsnpCount Number of L2 Rx PSNPs received from the SUT AdjacencyLevel Adjacency level
The following keys are returned when you specify mode ospfv2:
TxHello Number of Hello packets sent RxHello Number of Hello packets received TxDd Number of Database Description packets sent RxDd Number of Database Description packets received TxRouterLsa Number of Router LSAs sent RxRouterLsa Number of Router LSAs received TxNetworkLsa Number of Network LSAs sent RxNetworkLsa Number of Network LSAs received TxSummaryLsa Number of Summary LSAs sent RxSummaryLsa Number of Summary LSAs received TxAsbrSummaryLsa Number of ASBRSummary LSAs sent RxAsbrSummaryLsa Number of ASBRSummary-LSAs received TxAsExternalLsa Number of External LSAs sent RxAsExternalLsa Number of External LSAs received TxNssaLsa Number of NSSA LSAs sent RxNssaLsa Number of NSSA LSAs received TxAck Number of LSA packets sent RxAck Number of LSA packets received TxRequest Number of LS Request packets sent RxRequest Number of LS Request packets received TxUpdate Number of Update messages sent RxUpdate Number of Update messages received TxTeLsa Number of TELSAs sent RxTeLsa Number of TELSAs received TxRiLsa Number of Router Info LSAs sent RxRiLsa Number of Router Info LSAs received TxEpLsa Number of Extended Prefix LSAs sent RxEpLsa Number of Extended Prefix LSAs received TxElLsa Number of Extended Link LSAs sent RxElLsa Number of Extended Link LSAs received SessionUpCount Session up count areaId Area ID ipv4SrcAddr IPv4 source address
The following keys are returned when you specify mode ospfv3:
TxHello Number of Hello packets sent RxHello Number of Hello packets received TxDd Number of Database Description packets sent RxDd Number of Database Description packets received TxRouterLsa Number of Router LSAs sent RxRouterLsa Number of Router LSAs received TxNetworkLsa Number of Network LSAs sent RxNetworkLsa Number of Network LSAs received TxSummaryLsa Number of Summary LSAs sent RxSummaryLsa Number of Summary LSAs received TxAsbrSummaryLsa Number of ASBRSummary LSAs sent RxAsbrSummaryLsa Number of ASBRSummary-LSAs received TxAsExternalLsa Number of External LSAs sent RxAsExternalLsa Number of External LSAs received TxNssaLsa Number of NSSA LSAs sent RxNssaLsa Number of NSSA LSAs received TxAck Number of LSA packets sent RxAck Number of LSA packets received TxRequest Number of LS Request packets sent RxRequest Number of LS Request packets received TxUpdate Number of Update messages sent RxUpdate Number of Update messages received RxIntraAreaPrefixLsa Number of IntraArea-Prefix LSAs received TxIntraAreaPrefixLsa Number of IntraArea-Prefix LSAs sent RxInterAreaPrefixLsa Number of interarea-prefix LSAs received TxInterAreaPrefixLsa Number of interarea-prefix LSAs sent RxInterAreaRouterLsa Number of interarea-router LSAs received TxInterAreaRouterLsa Number of interarea-router LSAs sent RxLinkLsa Number of link LSAs received TxLinkLsa Number of link LSAs sent TxNssaLsa Number of NSSA LSAs sent RxNssaLsa Number of Link LSAs received RxERouterLsa Number of Extended Router LSAs received TxERouterLsa Number of Extended Router LSAs sent RxENetworkLsa Number of Extended Network LSAs received TxENetworkLsa Number of Extended Network LSAs sent RxEIntraAreaPrefixLsa Number of Extended IntraArea Prefix LSAs received TxEIntraAreaPrefixLsa Number of Extended IntraArea Prefix LSAs sent RxEInterAreaPrefixLsa Number of Extended InterArea Prefix LSAs received TxEInterAreaPrefixLsa Number of Extended InterArea Prefix LSAs sent RxEInterAreaRouterLsa Number of Extended InterArea Router LSAs received TxEInterAreaRouterLsa Number of Extended InterArea Router LSAs sent RxELinkLsa Number of Extended Link LSAs received TxELinkLsa Number of Extended Link LSAs sent
The following keys are returned when you specify mode bgp:
TxAdvertisedRouteCount Total cumulative feasible routes sent in all UPDATE packets RxAdvertisedRouteCount Total cumulative feasible routes received TxWithdrawnRouteCount Total number of unfeasible routes sent in all UPDATE packets RxWithdrawnRouteCount Total cumulative unfeasible routes received TxNotificationCount Number of Notification packets sent RxNotificationCount Number of Notification packets received TxAdvertisedUpdateCount Total number of UPDATE packets with feasible routes sent RxAdvertisedUpdateCount Number of Update packets received from DUT TxWithdrawnUpdateCount Total number of UPDATE packets with unfeasible routes sent TxKeepAliveCount Total number of KEEPALIVE packets sent to the DUT RxKeepAliveCount Total number of KEEPALIVE packets received from the DUT TxOpenCount Total number of OPEN packets sent to the DUT RxOpenCount BGP Open messages received from DUT TxRouteRefreshCount Number of advertised Route Refresh messages transmitted RxRouteRefreshCount Number of advertised Route Refresh messages received OutstandingRouteCount Number of routes that should be in the DUT's current route table LastRxUpdateRouteCount Number of routes in the lastreceived UPDATE message TxNotifyCode Last Notification code the emulated router sent to the DUT TxNotifySubCode Subcode for the last Notification sent to the DUT RxNotifyCode Last Notification code the emulated router received from the DUT RxNotifySubCode Subcode for the last Notification received from the DUT TxRtConstraintCount Number of RTConstraint routes sent for this router RxRtConstraintCount Number of RTConstraint routes received for this router SessionUpCount Number of router sessions in Established state
The following keys are returned when you specify mode rip:
TxAdvertisedUpdateCount Number of advertised routes sent RxAdvertisedUpdateCount Number of advertised routes TxWithdrawnUpdateCount Number of unreachable (metric 16) routes RxWithdrawnUpdateCount Number of unreachable (metric 16) routes received
The following keys are returned when you specify mode bfd:
TimeoutCount Number of timeout conditions detected by BFD FlapCount Number of times a flap event was detected by BFD TxCount Number of BFD packets sent on this router RxCount Number of BFD packets received on this router
The following keys are returned when you specify mode summary:
ldp_summaryportxRouterUpCount Number of LDP routers in Up state ldp_summaryportxRouterDownCount Number of LDP routers in Down state ldp_summaryportxSessionDownCount Number of LDP routers in SessionDown state ldp_summaryportxSessionUpCount Number of LDP routers in SessionUp state ldp_summaryportxSessionFailedCount Number of LDP routers in SessionFailed state ldp_summaryportxSessionOpenCount Number of LDP routers in SessionOpen state ldp_summaryportxSessionConnectCount Number of LDP routers in SessionConnect state ldp_summaryportxSessionRestartCount Number of LDP routers in SessionRestart state ldp_summaryportxSessionHelperCount Number of LDP routers in SessionHelper state bgp_summaryportxRouterUpCount Number of BGP routers in Up state bgp_summaryportxRouterDownCount Number of BGP routers in Down state bgp_summaryportxIdleCount Number of BGP routers in Idle state bgp_summaryportxConnectCount Number of BGP routers in Connect state bgp_summaryportxActiveCount Number of BGP routers in Active state bgp_summaryportxOpenSentCount Number of BGP routers in Open Sent state bgp_summaryportxOpenConfirmCount Number of BGP routers in Open Confirm state bgp_summaryportxEstablishedCount Number of BGP routers in Established state bfd_summaryportxRouterUpCount Number of routers in Up state bfd_summaryportxRouterDownCount Number of routers in Down state bfd_summaryportxSessionsUpCount Number of BFD sessions in Up state bfd_summaryportxSessionsDownCount Number of BFD sessions in Down and AdminDown state bfd_summaryportxMicroBfdSessionsUpCount Number of MicroBFD sessions in Up state bfd_summaryportxMicroBfdSessionsDownCount Number of MicroBFD sessions in Down and AdminDown state ospf_summaryportxRouterUpCount Number of OSPFv2 routers in Up state ospf_summaryportxRouterDownCount Number of OSPFv2 routers in Down state ospf_summaryportxWaitingCount Number of OSPFv2 routers in Waiting state ospf_summaryportxP2PCount Number of OSPFv2 routers in P2P state ospf_summaryportxDrOtherCount Number of OSPFv2 routers in DrOther state ospf_summaryportxBackupCount Number of OSPFv2 routers in Backup state ospf_summaryportxDrCount Number of OSPFv2 routers in Dr state ospfv3_SummaryPortxRouterUpCount Number of OSPFv3 routers in Up state ospfv3_SummaryPortxRouterDownCount Number of OSPFv3 routers in Down state ospfv3_SummaryPortxWaitingCount Number of OSPFv3 routers in Waiting state ospfv3_SummaryPortxP2PCount Number of OSPFv3 routers in P2P state ospfv3_SummaryPortxDrOtherCount Number of OSPFv3 routers in Dr Other state ospfv3_SummaryPortxBackupCount Number of OSPFv3 routers in Backup state ospfv3_SummaryPortxDrCount Number of OSPFv3 routers in Dr state isis_summaryportxRouterUpCount Number of ISIS routers in Up state isis_summaryportxRouterDownCount Number of ISIS routers in Down state isis_summaryportxIdleCount Number of ISIS routers in Idle state isis_summaryportxInitCount Number of ISIS routers in INIT state isis_summaryportxGrCount Number of ISIS routers in GR state isis_summaryportxGrHelperCount Number of ISIS routers in GR Helper state rsvp_summaryportxRouterUpCount Number of routers in Up state rsvp_summaryportxRouterDownCount Number of routers in Down state rsvp_summaryportxInitCount Number of routers in INIT state rsvp_summaryportxUpCount Number of routers in Up state rip_summaryportxRouterUpCount Number of routers in Open state rip_summaryportxRouterDownCount Number of routers in NotStarted/Closed state
- Description:
- The
emulation evpn infofunction provides information about the configured EVPN network topology. - Examples:
The following example retrieves OSPFv2 statistics from a specified router:
emulation evpn info handle= $router_handles mode= isis]
Sample output:
{status 1} {isis_results {{port1 {{emulateddevice1 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice3 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice5 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice7 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice9 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 3} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice11 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice13 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice15 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice17 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}} {emulateddevice19 {{TxPtpHelloCount 0} {RxPtpHelloCount 0} {TxL1LanHelloCount 0} {RxL1LanHelloCount 0} {TxL1LspCount 0} {RxL1LspCount 0} {TxL1CsnpCount 0} {RxL1CsnpCount 0} {TxL1PsnpCount 0} {RxL1PsnpCount 0} {TxL2LanHelloCount 2} {RxL2LanHelloCount 0} {TxL2LspCount 0} {RxL2LspCount 0} {TxL2CsnpCount 0} {RxL2CsnpCount 0} {TxL2PsnpCount 0} {RxL2PsnpCount 0} {AdjacencyLevel {Level 2}}}}}}}}