Routing Convergence Wizard Functions¶
emulation rtgconvergence ingress 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 ingress port
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation rtgconvergence ingress port config
mode= {create|delete} M
port_handle= <port_handle>
handle= <handle>
sub_if_enable= <true|false>
vlan_id= <0-4095>
ipv4_addr= <a.b.c.d>
router_id= <IPV4>
dut_ipv4_addr= <a.b.c.d>
ipv4_prefix_length= <1-32>
indirect_router_id= <IPV4>
dut_ipv6_addr= <IPV6>
ipv6_addr= <IPV6>
ipv6_prefix_length= <1-128>
indirect_router_ipv6_addr= <IPV6>
Arguments:
port_handle
Specifies the ingress test port to be added to the
Routing convergence 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 ingress test port. You must specify
port_handle.
delete Deletes specified routers under the ingress port.
You must specify handle.
handle
Specifies the handle of routers created under the emulated
test port. This argument is `Mandatory` for mode delete.
sub_if_enable
Enables or disables sub interfaces on the ingress test port
Possible values are true(enables) and false(disables).
Default: false
vlan_id
Specifies the ID for the first VLAN in a block
Default: 1
ipv4_addr
Specifies the IP address of the emulated device
Default: 192.85.1.3
router_id
Specifies the router ID of the emulated device.
Default: 192.0.0.1
dut_ipv4_addr
Specifies the IP address of the DUT
Default: 192.85.1.1
ipv4_prefix_length
Specifies the prefix length of the IP address
Default: 24
indirect_router_id
Specifies the router ID of the indirectly connected router
in a Multihop BGP convergence test
Default: 192.10.0.1
indirect_router_ipv6_addr
Specifies the router ID of the indirectly connected router
in an IPv6 Multihop BGP convergence test
Default: 2001::3
dut_ipv6_addr
Specifies the IPv6 address of the DUT
Default: :::
ipv6_addr
Specifies the IPv6 address of the emulated device
Default: 2001::2
ipv6_prefix_length
Specifies the prefix length of the IPv6 address
Default: 64
- 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 rtgconvergence ingress port configfunction configures an emulated ingress 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 an ingress port:
set ingress_port_config_ret1 [emulation rtgconvergence ingress port config mode= create port_handle= $port1 sub_if_enable= true vlan_id= 1 ipv4_addr= 10.1.1.2 router_id= 1.1.1.1 dut_ipv4_addr= 10.1.1.1 ipv4_prefix_length= 24 indirect_router_id= 1.0.0.0 indirect_router_ipv6_addr= ::1 dut_ipv6_addr= 2002::1 ipv6_addr= 2002::3 ipv6_prefix_length= 64 ]Sample output:
{status 1}
emulation rtgconvergence egress 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 ingress port
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation rtgconvergence egress port config
mode= {create|delete} M
port_handle= <port_handle>
handle= <handle>
sub_if_enable= <true|false>
port_type= <primary_egress|secondary_egress>
vlan_id= <0-4095>
ipv4_addr= <a.b.c.d>
router_id= <IPV4>
dut_ipv4_addr= <a.b.c.d>
ipv4_prefix_length= <1-32>
indirect_router_id= <IPV4>
dut_ipv6_addr= <IPV6>
ipv6_addr= <IPV6>
ipv6_prefix_length= <1-128>
indirect_router_ipv6_addr= <IPV6>
Arguments:
port_handle
Specifies the egress test port to be added to the
Routing convergence 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 egress test port. You must specify
port_handle.
delete Deletes specified routers under the egress port.
You must specify handle.
handle
Specifies the handle of routers created under the emulated
test port. This argument is `Mandatory` for mode delete.
sub_if_enable
Enables or disables sub interfaces on the egress test port
Possible values are true(enables) and false(disables).
Default: false
port_type
Specifies the type of egress port
Default: primary_egress
vlan_id
Specifies the ID for the first VLAN in a block
Default: 1
ipv4_addr
Specifies the IP address of the emulated device
Default: 192.85.1.3
router_id
Specifies the router ID of the emulated device.
Default: 192.0.0.1
dut_ipv4_addr
Specifies the IP address of the DUT
Default: 192.85.1.1
ipv4_prefix_length
Specifies the prefix length of the IP address
Default: 24
indirect_router_id
Specifies the router ID of the indirectly connected router
in a Multihop BGP convergence test
Default: 192.10.0.1
indirect_router_ipv6_addr
Specifies the router ID of the indirectly connected router
in an IPv6 Multihop BGP convergence test
Default: 2001::3
dut_ipv6_addr
Specifies the IPv6 address of the DUT
Default: :::
ipv6_addr
Specifies the IPv6 address of the emulated device
Default: 2001::2
ipv6_prefix_length
Specifies the prefix length of the IPv6 address
Default: 64
- 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 rtgconvergence egress port configfunction configures an emulated egress 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 an egress port:
set egress_port_config_ret1 [emulation rtgconvergence egress port config mode= create port_handle= $port1 sub_if_enable= true port_type= primary_egress vlan_id= 1 ipv4_addr= 10.1.1.2 router_id= 1.1.1.1 dut_ipv4_addr= 10.1.1.1 ipv4_prefix_length= 24 indirect_router_id= 1.0.0.0 indirect_router_ipv6_addr= ::1 dut_ipv6_addr= 2002::1 ipv6_addr= 2002::3 ipv6_prefix_length= 64 ]Sample output:
{status 1}
emulation rtgconvergence config¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Configures two types of IPv4 and IPv6 dataplane Unicast routing convergence tests for the BGP (Single and Multihop),OSPFv2, OSPFv3, RIP (all versions) and ISIS protocols.
Capable to configure test scenarios for two and three port tests, creates emulated routers with associated protocol options, number and type of routes with route options, selects and creates the traffic that is sent between routers.
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation rtgconvergence config
mode= {create|delete} M
handle= <handle>
max_convergence_time= <NUMERIC>
ip_version= <ipv4|ipv6>
protocol= <isis|multi_hop_bgp|ospfv2|ospfv3|rip|single_hop_bgp>
test_type= <cost_change|ecmp_local_interface_failure|
ecmp_remote_interface_failure|external_script|
local_interface_failure|loss_of_adjacency|
remote_interface_failure|route_withdrawal>]
command_working_dir= <ANY>
command_arguments= <ANY>
command_line= <ANY>
perform_reversion_test= <true|false>
bgp_use_gateway_as_dut_ip_addr= <true|false>
bgp_dut_ipv4_addr= <a.b.c.d>
bgp_dut_ipv4_addr_step= <a.b.c.d>
bgp_dut_ipv6_addr= <aaaa:bbbb:cccc:dddd:eeee:ffff:gggg:hhhh>
bgp_dut_ipv6_addr_step= <aaaa:bbbb:cccc:dddd:eeee:ffff:gggg:hhhh>
bgp_mode= <ebgp|ibgp>
bgp_enable_4byte_dut_as_num= <true|false>
bgp_enable_4byte_as_num= <true|false>
bgp_dut_as_num_4byte= <string>
bgp_dut_as_num_4byte_step= <string>
bgp_dut_as= <1-65535>
bgp_dut_as_step= <1-65535>
bgp_as_num_4byte= <string>
bgp_as_num_4byte_step= <string>
bgp_as_num_step= <0-65535>
bgp_as_num= <0-65535>
bgp_graceful_restart= <true|false>
bgp_enable_sr= <true|false>
bgp_enable_bfd= <true|false>
bgp_enable_pack_routes= <true|false>
bgp_igp_protocol= <isis|ospf|rip>
bgp_authentication= <md5|none>
bgp_password= <string>
ospfv2_area_id= <a.b.c.d>
ospfv2_network_type= <broadcast|native|p2p>
ospfv2_router_priority= <0-255>
ospfv2_interface_cost= <1-65535>
ospfv2_options= <HEX>
ospfv2_enable_bfd= <true|false>
ospfv2_sr_algorithm= <string>
ospfv2_sid_label_base= <NUMERIC>
ospfv2_sid_label_range= <NUMERIC>
ospfv2_node_sid_index= <NUMERIC>
ospfv2_node_sid_index_step= <NUMERIC>
ospfv2_enable_graceful_restart= <true|false>
ospfv2_graceful_restart_type= <llsignalling|none|rfcstandard>
ospfv2_simulated_topology_type= <fully_meshed|grid|hub_and_spoke|ring tree>
ospfv2_summary_lsa_percent= <double>
ospfv2_simulated_router_id= <a.b.c.d>
ospfv2_stub_lsa_percent= <double>
ospfv2_external_lsa_percent= <double>
ospfv2_authentication= <md5|none|simple>
ospfv2_password= <string>
ospfv2_md5_key_id= <0-255>
ospfv3_area_id= <a.b.c.d>
ospfv3_enable_bfd= <true|false>
ospfv3_router_priority= <0-255>
ospfv3_network_type= <broadcast|native|p2p>
ospfv3_options= <HEX>
ospfv3_simulated_topology_type= <fully_meshed|grid|hub_and_spoke|ring tree>
ospfv3_external_route_percent= <double>
ospfv3_intra_area_route_percent= <double>
ospfv3_inter_area_route_percent= <double>
ospfv3_simulated_router_id= <a.b.c.d>
isis_level= <level1|level1_and_2|level2>
isis_network_type= <broadcast|p2p>
isis_router_priority= <0-127>
isis_area1= <string>
isis_area2= <string>
isis_area3= <string>
isis_circuit_id= <0-99>
isis_dut_system_id= <aa:bb:cc:dd:ee:ff>
isis_enable_bfd= <true|false>
isis_enable_graceful_restart= <true|false>
isis_hello_padding= <true|false>
isis_use_src_mac_as_router_system_id= <true|false>
isis_router_system_id_start= <aa:bb:cc:dd:ee:ff>
isis_router_system_id_step= <aa:bb:cc:dd:ee:ff>
isis_sr_sid_label_base= <0-16777215>
isis_sr_algorithm= <string>
isis_sr_sid_range= <1-65535>
isis_sr_node_sid_index= <0-16777215>
isis_sr_node_sid_index_step= <0-16777215>
isis_metric_mode= <narrow|narrow_and_wide|wide>
isis_l1_metric= <1-63>
isis_l2_metric= <1-68>
isis_l1_wide_metric= <0-16777214>
isis_l2_wide_metric= <0-16777214>
isis_authentication= <md5|none|simple>
isis_password= <string>
isis_md5_key_id= <0-255>
isis_simulated_topology_type= <fully_meshed|grid|hub_and_spoke|ring|tree>
isis_simulated_router_id= <a.b.c.d>
isis_internal_route_percent= <double>
isis_system_id_start= <aa:bb:cc:dd:ee:ff>
isis_external_route_percent= <double>
rip_version= <ng|v1|v2>
rip_enable_bfd= <true|false>
rip_authentication= <md5|none|simple>
rip_password= <string>
rip_md5_key_id= <0-255>
interface_type= <broadcast|point_to_point>
max_interface_per_router= <1-10000>
num_simulated_routers= <1-10000>
max_routers_per_transit_network= <2-10000>
num_of_rows= <1-10000>
grid_emulated_router_position= <attached_to_grid|member_of_grid>
attach_row_index= <1-10000>
num_of_columns= <1-10000>
attach_column_index= <1-10000>
fullmesh_num_routers= <1-100>
fullmesh_emulated_router_position= <attached_to_mesh|member_of_mesh>
ring_num_routers= <1-10000>
ring_emulated_router_position= <attached_to_ring|member_of_ring>
hubspoke_num_routers= <1-100>
hubspoke_emulated_router_position= <attached_to_hub|attached_to_spoke|member_hub|member_spoke>
route_count_per_router= <1-65535>
route_start_ipv4_addr= <a.b.c.d>
route_start_ipv6_addr= <aaaa:bbbb:cccc:dddd:eeee:ffff:gggg:hhhh>
route_ipv4_addr_step= <a.b.c.d>
route_ipv6_addr_step= <aaaa:bbbb:cccc:dddd:eeee:ffff:gggg:hhhh>
prefix_distribution_type= <custom|exponential|fixed|internet|linear>
route_end_ipv4_prefix_length= <1-32>
route_start_ipv6_prefix_length= <1-128>
route_start_ipv4_prefix_length= <1-32>
route_end_ipv6_prefix_length= <1-128>
prefix_length_distribution= <0-100>
load_percentage= <0-100>
frame_size= <0-65535>
Arguments:
handle
Specifies the Routing convergence 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 Routing convergence network configuration
delete Deletes the Routing convergence network configuration
specified by handle
max_convergence_time
Specifies the maximum number of seconds during which the DUT is expected to
converge and resume data plane traffic
Default: 70
ip_version
Specifies the IP version of the protocol
Default: ipv4
protocol
Specifies the routing protocol on which to perform the convergence test.
Default: single_hop_bgp
test_type
Specifies the type of convergence test to run.
Available when 3 ports are configured
Default: cost_change
command_working_dir
Specifies the working directory for the script.
Available when test_type is set to external_script.
command_arguments
Specifies the arguments for the script.
Available when test_type is set to external_script.
command_line
Specifies the command line for the script.
Available when test_type is set to external_script.
perform_reversion_test
After running the convergence test from ingress to egress,
run the test the other direction, and perform convergence
measurement when traffic switches from secondary egress port
to primary egress port. Only applicable for 3port tests.
Default: false
bgp_use_gateway_as_dut_ip_addr
Specifies to use the DUT as the gateway
Default: false
bgp_dut_ipv4_addr
Specifies the IPv4 address of the BGP peer for the session
Available when bgp_use_gateway_as_dut_ip_addr is true
Default: 192.85.1.1
bgp_dut_ipv4_addr_step
Specifies the IPv4 address step value of the BGP peer for the session
Available when bgp_use_gateway_as_dut_ip_addr is true
Default: 0.0.0.0
bgp_dut_ipv6_addr
Specifies the IPv6 address of the BGP peer for the session
Available when bgp_use_gateway_as_dut_ip_addr is true
Default: ::2
bgp_dut_ipv6_addr_step
Specifies the IPv6 address step value of the BGP peer for the session
Available when bgp_use_gateway_as_dut_ip_addr is true
Default: :::
bgp_mode
Specifies the BGP mode
Possible values are ebgp (external BGP), ibgp (internal BGP)
Default: ebgp
bgp_enable_4byte_dut_as_num
Enables or disables 4byte DUT autonomous system numbers
Possible values are true(enables) and false(disables).
Default: false
bgp_enable_4byte_as_num
Enables or disables 4byte autonomous system numbers
Possible values are true(enables) and false(disables).
Default: false
bgp_dut_as_num_4byte
Specifies the 4byte autonomous system number for the emulated BGP router
Default: 1.1001
bgp_dut_as_num_4byte_step
Specifies the increment value by which to create subsequent DUT 4byte autonomous system numbers
Default: 0
bgp_dut_as
Specifies the autonomous system number of the BGP peer routersession on the DUT
Default: 1001
bgp_dut_as_step
Specifies the increment value by which to create subsequent
DUT autonomous system numbers
Default: 0
bgp_as_num_4byte
Specifies the 4byte autonomous system number for the emulated BGP router
Default: 1.1
bgp_as_num_4byte_step
Specifies the increment value by which to create subsequent
4byte autonomous system numbers
Default: 0
bgp_as_num
Specifies the autonomous system number for the emulated BGP router
Default: 1
bgp_as_num_step
Increment value by which to create subsequent autonomous system numbers
Default: 0
bgp_graceful_restart
Enables or disables Graceful Restart on the emulated BGP router.
Possible values are true(enables) and false(disables).
Default: false
bgp_enable_sr
Specifies to configure BGP SR parameters
Possible values are true(enables) and false(disables).
Default: false
bgp_enable_bfd
Enables or disables BFD on the emulated BGP router.
Possible values are true(enables) and false(disables).
Default: false
bgp_enable_pack_routes
Enables or disables route packing.
Possible values are true(enables) and false(disables).
Default: false
bgp_igp_protocol
Specifies the IGP protocol.
Default: ospf
bgp_authentication
Specifies the type of authentication to be used
Default: none
bgp_password
Specifies the password when bgp_authentication is set as md5
Default: Spirent
ospfv2_area_id
Specifies the IP address indicating the area to which the
emulated router belongs.
Default: 0.0.0.0
ospfv2_network_type
Specifies the type of the network link
Default: native
ospfv2_router_priority
Specifies the router priority of the emulated router
Default: 0
ospfv2_interface_cost
Specifies the cost of the interface connecting the
emulated router to the neighbor DUT router
Default: 1
ospfv2_options
A bit mask(hex) that specifies the settings of the OSPF Options
field in Hello packets sent to the DUT
Default: 0x02 (ebit)
ospfv2_enable_bfd
Enables or disables BFD on the emulated router.
Possible values are true(enables) and false(disables).
Default: false
ospfv2_sr_algorithm
Specifies the OSPF SR algorithm
Default: 0
ospfv2_sid_label_base
Specifies the value of the SID or label
Default: 100
ospfv2_sid_label_range
Number of values ranging from the starting value defined
in the SID/Label SubTLV
Default: 100
ospfv2_node_sid_index
Specifies the SID index of the node
Default: 0
ospfv2_node_sid_index_step
Specifies the increment value by which to create subsequent SID indexes
Default: 1
ospfv2_enable_graceful_restart
Enables or disables Graceful Restart on the emulated OSPF router.
Possible values are true(enables) and false(disables).
Default: false
ospfv2_graceful_restart_type
Specifies the type of the graceful restart
Default: none
ospfv2_simulated_topology_type
Specifies the simulated topology type
Default: tree
ospfv2_summary_lsa_percent
Specifies the OSPF summary LSA percent
Default: 0.0
ospfv2_simulated_router_id
Specifies the simulated router ID
Default: 1.0.0.1
ospfv2_stub_lsa_percent
Specifies the OSPF stub LSA percent
Default: 0.0
ospfv2_external_lsa_percent
Specifies the OSPF external LSA percent
Default: 100.0
ospfv2_authentication
Specifies the type of authentication to be used
Default: none
ospfv2_password
Specifies the password when ospfv2_authentication is set as md5
Default: Spirent
ospfv2_md5_key_id
Specifies the MD5 key used for the MD5 authentication
ospfv3_area_id
Specifies the IP address indicating the area to which the
emulated router belongs.
Default: 0.0.0.0
ospfv3_enable_bfd
Enables or disables BFD on the OSPFv3 emulated router.
Possible values are true(enables) and false(disables).
Default: false
ospfv3_router_priority
Specifies the router priority of the emulated router
Default: 0
ospfv3_options
A bit mask(hex) that specifies the settings of the OSPFv3 Options
field in Hello packets sent to the DUT
Default: 13
ospfv3_network_type
Specifies the type of the network link
Default: native
ospfv3_simulated_topology_type
Specifies the simulated topology type
Default: tree
ospfv3_external_route_percent
Specifies the OSPFv3 external LSA percent
Default: 0.0
ospfv3_intra_area_route_percent
Specifies the OSPFv3 intra area route percent
Default: 100.0
ospfv3_inter_area_route_percent
Specifies the OSPFv3 inter area route percent
Default: 0.0
ospfv3_simulated_router_id
Specifies the simulated router ID
Default: 1.0.0.1
isis_level
Specifies the circuit type of the emulated router
Default: level2
isis_network_type
Specifies the type of the ISIS interface
Default: broadcast
isis_router_priority
Specifies the router priority used to determine which
router should act as the designated router
Default: 0
isis_area1
Specifies the area address. Spirent TestCenter supports up
to 3 addresses per emulated router. Area 1 address is
`Mandatory`.
Default: 000001
isis_area2
Specifies the area 2 address
Dependency: isis_area1
Default: "" (empty string)
isis_area3
Specifies the area 3 address
Dependency: isis_area2
Default: "" (empty string)
isis_circuit_id
Specifies the 1octet HEX identifier of the emulated router
interface
Default: 1
isis_enable_bfd
Enables or disables BFD for this router
Possible values are true(enables) and false(disables).
Default: false
isis_dut_system_id
Specifies DUT system id
Default: 00:00:00:00:00:01
isis_enable_graceful_restart
Enables or disables Graceful Restart on the emulated OSPF router.
Possible values are true(enables) and false(disables).
Default: false
isis_hello_padding
Determines whether to insert Hello Padding in Hello Packets
Default: true
isis_use_src_mac_as_router_system_id
Determines whether to use source mac address as router system id or not.
Default: true
isis_router_system_id_start
Specifies the first system id
Default: 00:00:00:00:00:01
isis_router_system_id_step
Increments the system id
Default: 00:00:00:00:00:01
isis_sr_algorithm
Specifies the ISIS SR algorithm
Default: 0
isis_sr_node_sid_index
Specifies the value of the first SID index
Default: 0
isis_sr_sid_label_base
Specifies the value of the first SID/Label
Default: 100
isis_sr_node_sid_index_step
Specifies the increment value by which to create subsequent indexes
Default: 1
isis_sid_range
Number of SIDs/labels to configure
Default: 100
isis_metric_mode
Specifies the length of the metric field in the LSP
narrow Router advertises routes with a narrow
(6bit) metric
narrow_and_wide Router advertises the same route with
both metrics
wide Router advertises routes with a wide
metric
Default: narrow_and_wide
isis_l1_metric
Specifies the metric of the emulated router interface
Dependency: isis_level level1
Default: 1
isis_l1_wide_metric
Specifies the 3octet traffic engineering metric of a link
from the emulated router to the SUT
Dependency: isis_level level1
Default: 1
isis_l2_metric
Specifies the metric of the emulated router interface
Dependency: isis_level level2
Default: 1
isis_l2_wide_metric
Specifies the 3octet traffic engineering metric of a link
from the emulated router to the SUT
Dependency: isis_level level2
Default: 1
isis_authentication
Specifies the authentication method to use for ISIS
Default: none
isis_password
Specifies the password used for authentication of ISIS messages
Dependency: isis_authentication simple or md5
Default: Spirent
isis_md5_key_id
Specifies the MD5 authentication key
Dependency: isis_authentication md5
isis_simulated_topology_type
Specifies the simulated topology type
Default: tree
isis_internal_route_percent
Specifies the ISIS internal route percent
Default: 100.0
isis_external_route_percent
Specifies the ISIS external route percent
Default: 0.0
isis_system_id_start
Specifies the ISIS system ID
Default: 10:00:00:00:00:01
isis_simulated_router_id
Specifies the simulated router ID
Default: 1.0.0.1
rip_version
Specifies the RIP version to be used for each emulated router
Default: v2
rip_enable_bfd
Enables or disables BFD for this router
Possible values are true(enables) and false(disables).
Default: false
rip_authentication
Specifies the authentication method to use for RIP
Default: none
rip_password
Specifies the password used for authentication of RIP messages
Dependency: rip_authentication simple or md5
Default: Spirent
rip_md5_key_id
Specifies the MD5 authentication key
Dependency: rip_authentication md5
interface_type
Specifies the interface type used to connect simulated routers.
Default: point_to_point
max_interface_per_router
Specifies the maximum number of interfaces per router.
Default: 4
num_simulated_routers
Specifies total number of simulated routers that will be
created on all emulated routers.
Default: 50
max_routers_per_transit_network
Specifies the maximum number of routers per transit network.
This attribute is valid only when the interface_type is set to broadcast.
Default: 5
num_of_rows
Specifies the number of rows in the grid.
Default: 4
grid_emulated_router_position
Specifies the location of the emulated router in the grid.
attached_to_grid Emulated router is attached to one of the
simulated routers in the grid.
member_of_grid Emulated router is a member of the grid.
Default: attached_to_grid
attach_row_index
Specifies row index
For an emulated router attached to a simulated router, the row index in the
grid of the simulated router to which the emulated router is attached.
For an emulated router that is a member of the grid, the row index in the
grid where the emulated router is located.
Default: 1
num_of_columns
Specifies the number of columns in the grid
Default: 4
attach_column_index
Specifies the column index
Default: 1
fullmesh_num_routers
Specifies the total number of routers in the full mesh topology.
Default: 10
fullmesh_emulated_router_position
Specifies the location of the emulated router in the full mesh.
attached_to_mesh Emulated router is attached to one of the
simulated routers in the full mesh.
member_of_mesh Emulated router is a member of the full mesh.
Default: attached_to_mesh
ring_num_routers
Specifies the total number of routers in the ring topology.
Default: 10
ring_emulated_router_position
Specifies the location of the emulated router in the ring.
attached_to_ring Emulated router is attached to one of the
simulated routers in the ring.
member_of_ring Emulated router is a member of the ring.
Default: attached_to_ring
hubspoke_num_routers
Specifies the total number of routers in the hubspoke topology.
Default: 10
hubspoke_emulated_router_position
Specifies the location of the emulated router in the hubspoke.
attached_to_hub Emulated router is attached to a hub simulated router.
attached_to_spoke Emulated router is attached to a spoke simulated router.
member_hub Emulated router is a member as a hub.
member_spoke Emulated router is a member as a spoke.
Default: attached_to_hub
route_count_per_router
Specifies the route count per router
Default: 1
route_start_ipv4_addr
Specifies the first IPv4 route advertised
Default: 10.1.1.0
route_start_ipv6_addr
Specifies the first IPv6 route advertised
Default: 3000:::
route_ipv4_addr_step
Identifies which part of the IPv4 address to increment for subsequent routes
Default: 0.0.1.0
route_ipv6_addr_step
Identifies which part of the IPv6 address to increment for subsequent routes
Default: 0:0:1:::
prefix_distribution_type
Specifies how network prefix lengths will be distributed
Default: fixed
prefix_length_distribution
Specifies the prefix length
Default: 0
route_start_ipv4_prefix_length
Specifies the length of the network portion of the first IPv4 route identifier
Default: 24
route_end_ipv4_prefix_length
Specifies the length of the network portion of the last IPv4 route identifier
Default: 24
route_start_ipv6_prefix_length
Specifies the length of the network portion of the last IPv6 route identifier
Default: 64
route_end_ipv6_prefix_length
Specifies the length of the network portion of the last IPv6 route identifier
Default: 64
load_percentage
Specifies the traffic rate as a percentage of bandwidth
Default: 10
frame_size
Specifies the size of frames, including CRC
Default: 128
- 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 Routing convergence 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:
ingress_router ingress router handle egress_router egress router handle secondary_egress_router secondary egress router handle convergence convergence handle ospfv2 OSPFv2 handle ospfv3 OSPFv3 handle isis ISIS handle rip RIP handle bgp BGP handle bfd BFD handle stream_id Streamblock handle
- Description:
The
emulation rtgconvergence configfunction configures or deletes a Routing convergence topology, mapping the operations of the Routing convergence wizard on the Spirent TestCenter GUI.Use the mode argument to specify the operation to perform. See the mode argument for a description of the actions.
Examples:
The following example creates a Routing convergence topology:
emulation rtgconvergence config mode= create max_convergence_time= 15 ip_version= ipv4 protocol= ospfv2 test_type= cost_change command_working_dir= E:/Logs command_arguments "a= 1" command_line= C:/Users/mkatta/Desktop/abc.key perform_reversion_test= true bgp_use_gateway_as_dut_ip_addr= true bgp_dut_ipv4_addr= 1.1.1.1 bgp_dut_ipv4_addr_step= 0.0.0.0 bgp_dut_ipv6_addr= ::2 bgp_dut_ipv6_addr_step= ::0 bgp_mode= ibgp bgp_enable_4byte_dut_as_num= true bgp_enable_4byte_as_num= true bgp_dut_as_num_4byte= 1.1001 bgp_dut_as_num_4byte_step= 0 bgp_dut_as= 1001 bgp_dut_as_step= 0 bgp_as_num_4byte= 1.1 bgp_as_num_4byte_step= 0 bgp_as_num_step= 0 bgp_as_num= 1 bgp_graceful_restart= false bgp_enable_sr= false bgp_enable_bfd= true bgp_enable_pack_routes= false bgp_igp_protocol= ospf bgp_authentication= md5 bgp_password= spirent1 ospfv2_area_id= 0.0.0.0 ospfv2_network_type= p2p ospfv2_router_priority= 0 ospfv2_interface_cost= 1 ospfv2_options= 2 ospfv2_enable_bfd= true ospfv2_sr_algorithm= 0 ospfv2_sid_label_base= 100 ospfv2_sid_label_range= 100 ospfv2_node_sid_index= 0 ospfv2_node_sid_index_step= 1 ospfv2_enable_graceful_restart= false ospfv2_graceful_restart_type= llsignalling ospfv2_simulated_topology_type= tree ospfv2_summary_lsa_percent= 0.0 ospfv2_simulated_router_id= 1.0.0.1 ospfv2_stub_lsa_percent= 0.0 ospfv2_external_lsa_percent= 100.0 ospfv2_authentication= md5 ospfv2_password= spirent1 ospfv2_md5_key_id= 1 ospfv3_area_id= 0.0.0.0 ospfv3_enable_bfd= true ospfv3_router_priority= 0 ospfv3_network_type= native ospfv3_options= 13 ospfv3_simulated_topology_type= tree ospfv3_external_route_percent= 0.0 ospfv3_intra_area_route_percent= 0.0 ospfv3_inter_area_route_percent= 0.0 ospfv3_simulated_router_id= 10.1.1.1 isis_level= level2 isis_network_type= p2p isis_router_priority= 0 isis_area1= 0001 isis_area2= 0002 isis_area3= 0003 isis_circuit_id= 1 isis_dut_system_id= 00:00:00:00:00:01 isis_enable_bfd= true isis_enable_graceful_restart= false isis_hello_padding= true isis_use_src_mac_as_router_system_id= false isis_router_system_id_start= 00:00:00:00:00:01 isis_router_system_id_step= 00:00:00:00:00:01 isis_sr_sid_label_base= 100 isis_sr_algorithm= 0 isis_sr_sid_range= 100 isis_sr_node_sid_index= 0 isis_sr_node_sid_index_step= 1 isis_metric_mode= narrow_and_wide isis_l1_metric= 1 isis_l2_metric= 1 isis_l1_wide_metric= 1 isis_l2_wide_metric= 1 isis_authentication= md5 isis_password= spirent1 isis_md5_key_id= 1 isis_simulated_topology_type= tree isis_simulated_router_id= 1.1.1.1 isis_internal_route_percent= 0.0 isis_system_id_start= 00:00:00:00:00:01 isis_external_route_percent= 0.0 rip_version= v1 rip_enable_bfd= false rip_authentication= md5 rip_password= spirent1 rip_md5_key_id= 1 route_count_per_router= 1 route_start_ipv4_addr= 10.0.0.1 route_start_ipv6_addr= 3000::2 route_ipv4_addr_step= 0.0.0.0 route_ipv6_addr_step= ::0 prefix_distribution_type= custom route_end_ipv4_prefix_length= 24 route_start_ipv6_prefix_length= 64 route_start_ipv4_prefix_length= 24 route_end_ipv6_prefix_length= 64 prefix_length_distribution= "100 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0" interface_type= point_to_point max_interface_per_router= 3 num_simulated_routers= 10 max_routers_per_transit_network= 2 num_of_rows= 3 grid_emulated_router_position= attached_to_grid attach_row_index= 1 num_of_columns= 1 attach_column_index= 1 fullmesh_num_routers= 10 fullmesh_emulated_router_position= attached_to_mesh ring_num_routers= 10 ring_emulated_router_position= attached_to_ring hubspoke_num_routers= 10 hubspoke_emulated_router_position= attached_to_spoke load_percentage= 10 frame_size= 128
]
Sample Output:
{status 1} {handle {{convergence convergencegenparams1} {ingress_router router1} {egress_router router2} {second_egress_router router3} {ospfv2 {ospfv2routerconfig1 ospfv2routerconfig2 ospfv2routerconfig3}} {ospfv3 {}} {isis {}} {rip {}} {bgp {}} {bfd {bfdrouterconfig1 bfdrouterconfig2 bfdrouterconfig3}} {stream_id streamblock1}}}
emulation rtgconvergence 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 Routing convergence topology
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation rtgconvergence 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 Routing convergence network
stop Stops the specified Routing convergence 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 rtgconvergence controlfunction controls the configured Routing convergence topology. Use the action argument to start or stop the test. - Examples:
Sample Input:
emulation rtgconvergence control port_handle= $port1 port2 action= startSample Output:
{status 1}
emulation rtgconvergence info¶
Execute Tester Command ${rt_handle} command=test_control <additional key=value arguments>
- Purpose:
Spirent Extension (for Spirent HLTAPI only).
Retrieves statistics for the Routing convergence test
Synopsis:
Note: M indicates the argument is `Mandatory`.
emulation routing mpls info
mode= {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 isis, ospfv2,
ospfv3, 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 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:
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 rip_summaryportxRouterUpCount Number of routers in Open state rip_summaryportxRouterDownCount Number of routers in NotStarted/Closed state
- Description:
- The
emulation rtgconvergence infofunction provides information about the configured Routing convergence network topology. - Examples:
The following example retrieves OSPFv2 statistics from a specified router:
emulation routing mpls info handle= $router_handles mode= ospfv2]
Sample output:
{status 1} {ospfv2_results {{port1 {{router1 {{TxHello 0} {RxHello 1} {TxDd 1} {RxDd 0} {TxRouterLsa 0} {RxRouterLsa 0} {TxNetworkLsa 0} {RxNetworkLsa 0} {TxSummaryLsa 0} {RxSummaryLsa 0} {TxAsbrSummaryLsa 0} {RxAsbrSummaryLsa 0} {TxAsExternalLsa 0} {RxAsExternalLsa 0} {TxNssaLsa 0} {RxNssaLsa 0} {TxAck 0} {RxAck 0} {TxRequest 0} {RxRequest 0} {TxUpdate 0} {RxUpdate 0} {TxTeLsa 0} {RxTeLsa 0} {TxRiLsa 0} {RxRiLsa 0} {TxEpLsa 0} {RxEpLsa 0} {TxElLsa 0} {RxElLsa 0} {SessionUpCount 0} {areaId 0.0.0.0} {ipv4SrcAddr 10.1.1.2}}}}} {port2 {{router2 {{TxHello 1} {RxHello 1} {TxDd 1} {RxDd 0} {TxRouterLsa 0} {RxRouterLsa 0} {TxNetworkLsa 0} {RxNetworkLsa 0} {TxSummaryLsa 0} {RxSummaryLsa 0} {TxAsbrSummaryLsa 0} {RxAsbrSummaryLsa 0} {TxAsExternalLsa 0} {RxAsExternalLsa 0} {TxNssaLsa 0} {RxNssaLsa 0} {TxAck 0} {RxAck 0} {TxRequest 0} {RxRequest 0} {TxUpdate 0} {RxUpdate 0} {TxTeLsa 0} {RxTeLsa 0} {TxRiLsa 0} {RxRiLsa 0} {TxEpLsa 0} {RxEpLsa 0} {TxElLsa 0} {RxElLsa 0} {SessionUpCount 0} {areaId 0.0.0.0} {ipv4SrcAddr 10.1.1.3}}}}} {port3 {{router3 {{TxHello 1} {RxHello 1} {TxDd 0} {RxDd 2} {TxRouterLsa 0} {RxRouterLsa 0} {TxNetworkLsa 0} {RxNetworkLsa 0} {TxSummaryLsa 0} {RxSummaryLsa 0} {TxAsbrSummaryLsa 0} {RxAsbrSummaryLsa 0} {TxAsExternalLsa 0} {RxAsExternalLsa 0} {TxNssaLsa 0} {RxNssaLsa 0} {TxAck 0} {RxAck 0} {TxRequest 0} {RxRequest 0} {TxUpdate 0} {RxUpdate 0} {TxTeLsa 0} {RxTeLsa 0} {TxRiLsa 0} {RxRiLsa 0} {TxEpLsa 0} {RxEpLsa 0} {TxElLsa 0} {RxElLsa 0} {SessionUpCount 0} {areaId 0.0.0.0} {ipv4SrcAddr 10.1.1.4}}}}}}}