Layer 3 IP CLI

clear ioam rewrite

clear ioam rewrite

This command clears all the In-band OAM (iOAM) features enabled by the set ioam rewrite command. Use show ioam summary to verify the configured settings cleared.

Example of how to clear iOAM features:

clear ioam rewrite

Declaration: ip6_clear_ioam_rewrite_cmd src/vnet/ip/ip6_hop_by_hop.c line 1268

Implementation: clear_ioam_rewrite_command_fn

disable ip6 interface

disable ip6 interface <interface>

This command is used to disable IPv6 on a given interface.

Example of how disable IPv6 on a given interface:

disable ip6 interface GigabitEthernet2/0/0

Declaration: disable_ip6_interface_command src/vnet/ip/ip6_link.c line 823

Implementation: disable_ip6_interface_cmd

enable ip6 interface

enable ip6 interface <interface>

This command is used to enable IPv6 on a given interface.

Example of how enable IPv6 on a given interface:

enable ip6 interface GigabitEthernet2/0/0

Declaration: enable_ip6_interface_command src/vnet/ip/ip6_link.c line 783

Implementation: enable_ip6_interface_cmd

ip

Internet protocol (IP) commands

Declaration: vlib_cli_ip_command src/vnet/ip/lookup.c line 534

ip container

ip container <address> <interface>

Declaration: ip_container_command_node src/vnet/ip/ip_container_proxy.c line 220

Implementation: ip_container_cmd

ip mroute

ip mroute [add|del] <dst-ip-addr>/<width> [table <table-id>] [rpf-id <ID>] [via <next-hop-ip-addr> [<interface>],

This command is used to add or delete IPv4 or IPv6 multicast routes. All IP Addresses (<dst-ip-addr>/<width>, <next-hop-ip-addr> and <adj-hop-ip-addr>) can be IPv4 or IPv6, but all must be of the same form in a single command. To display the current set of routes, use the commands show ip mfib and show ip6 mfib. The full set of support flags for interfaces and route is shown via; show mfib route flags and show mfib itf flags respectively. Example of how to add a forwarding interface to a route (and create the route if it does not exist)

ip mroute add 232.1.1.1 via GigabitEthernet2/0/0 Forward

Example of how to add an accepting interface to a route (and create the route if it does not exist)

ip mroute add 232.1.1.1 via GigabitEthernet2/0/1 Accept

Example of changing the route’s flags to send signals via the API

ip mroute add 232.1.1.1 Signal

Declaration: ip_mroute_command src/vnet/ip/lookup.c line 1002

Implementation: vnet_ip_mroute_cmd

ip punt policer

ip punt policer [add|del] <index>

set ip punt policer <INDEX>

Declaration: ip4_punt_policer_command src/vnet/ip/ip4_punt_drop.c line 305

Implementation: ip4_punt_police_cmd

ip punt redirect

ip punt redirect [add|del] rx [<interface>|all] via [<nh>] <tx_interface>

set ip punt policer

Declaration: ip4_punt_redirect_command src/vnet/ip/ip4_punt_drop.c line 408

Implementation: ip4_punt_redirect_cmd

ip route

ip route [add|del] [count <n>] <dst-ip-addr>/<width> [table <table-id>] via [next-hop-address] [next-hop-interface] [next-hop-table <value>] [weight <value>] [preference <value>] [udp-encap <value>] [ip4-lookup-in-table <value>] [ip6-lookup-in-table <value>] [mpls-lookup-in-table <value>] [resolve-via-host] [resolve-via-connected] [rx-ip4 <interface>] [out-labels <value value value>]

This command is used to add or delete IPv4 or IPv6 routes. All IP Addresses (<dst-ip-addr>/<width>, <next-hop-ip-addr> and <adj-hop-ip-addr>) can be IPv4 or IPv6, but all must be of the same form in a single command. To display the current set of routes, use the commands show ip fib and show ip6 fib.

Example of how to add a straight forward static route:

ip route add 6.0.1.2/32 via 6.0.0.1 GigabitEthernet2/0/0

Example of how to delete a straight forward static route:

ip route del 6.0.1.2/32 via 6.0.0.1 GigabitEthernet2/0/0

Mainly for route add/del performance testing, one can add or delete multiple routes by adding ‘count N’ to the previous item:

ip route add count 10 7.0.0.0/24 via 6.0.0.1 GigabitEthernet2/0/0

Add multiple routes for the same destination to create equal-cost multipath:

ip route add 7.0.0.1/32 via 6.0.0.1 GigabitEthernet2/0/0

ip route add 7.0.0.1/32 via 6.0.0.2 GigabitEthernet2/0/0

For unequal-cost multipath, specify the desired weights. This combination of weights results in 3/4 of the traffic following the second path, 1/4 following the first path:

ip route add 7.0.0.1/32 via 6.0.0.1 GigabitEthernet2/0/0 weight 1

ip route add 7.0.0.1/32 via 6.0.0.2 GigabitEthernet2/0/0 weight 3

To add a route to a particular FIB table (VRF), use:

ip route add 172.16.24.0/24 table 7 via GigabitEthernet2/0/0

Declaration: ip_route_command src/vnet/ip/lookup.c line 589

Implementation: vnet_ip_route_cmd

ip table

ip table [add|del] <table-id>

This command is used to add or delete IPv4 Tables. All Tables must be explicitly added before that can be used. Creating a table will add both unicast and multicast FIBs

Declaration: ip4_table_command src/vnet/ip/lookup.c line 610

Implementation: vnet_ip4_table_cmd

ip6

Internet protocol version 6 (IPv6) commands

Declaration: vlib_cli_ip6_command src/vnet/ip/lookup.c line 541

ip6 punt policer

ip6 punt policer [add|del] <index>

set ip punt policer <INDEX>

Declaration: ip6_punt_policer_command src/vnet/ip/ip6_punt_drop.c line 243

Implementation: ip6_punt_police_cmd

ip6 punt redirect

ip6 punt redirect [add|del] rx [<interface>|all] via [<nh>] <tx_interface>

set ip punt policer <INDEX>

Declaration: ip6_punt_redirect_command src/vnet/ip/ip6_punt_drop.c line 397

Implementation: ip6_punt_redirect_cmd

ip6 table

ip6 table [add|del] <table-id>

This command is used to add or delete IPv4 Tables. All Tables must be explicitly added before that can be used. Creating a table will add both unicast and multicast FIBs

Declaration: ip6_table_command src/vnet/ip/lookup.c line 625

Implementation: vnet_ip6_table_cmd

punt socket deregister

punt socket deregister [IPV4|ipv6] [UDP|tcp] [ALL|<port-num>]

punt socket register

Declaration: punt_socket_deregister_command src/vnet/ip/punt.c line 689

Implementation: punt_socket_deregister_cmd

punt socket register

punt socket register [IPV4|ipv6] [UDP|tcp] [ALL|<port-num>] socket <socket>

punt socket register socket punt_l4_foo.sock

Declaration: punt_socket_register_command src/vnet/ip/punt.c line 620

Implementation: punt_socket_register_cmd

set interface ip

IP4/IP6 commands

Declaration: set_interface_ip_command src/vnet/ip/ip46_cli.c line 75

set interface ip address

set interface ip address [del] <interface> <ip-addr>/<mask> | [all]

Add an IP Address to an interface or remove and IP Address from an interface. The IP Address can be an IPv4 or an IPv6 address. Interfaces may have multiple IPv4 and IPv6 addresses. There is no concept of primary vs. secondary interface addresses; they’re just addresses.

To display the addresses associated with a given interface, use the command show interface address <interface>.

Note that the debug CLI does not enforce classful mask-width / addressing constraints.

An example of how to add an IPv4 address to an interface:

set interface ip address GigabitEthernet2/0/0 172.16.2.12/24

An example of how to add an IPv6 address to an interface:

set interface ip address GigabitEthernet2/0/0 @::a:1:1:0:7/126

To delete a specific interface ip address:

set interface ip address del GigabitEthernet2/0/0 172.16.2.12/24

To delete all interfaces addresses (IPv4 and IPv6):

set interface ip address del GigabitEthernet2/0/0 all

Declaration: set_interface_ip_address_command src/vnet/ip/ip46_cli.c line 216

Implementation: add_del_ip_address

set interface ip source-and-port-range-check

set interface ip source-and-port-range-check <interface> [tcp-out-vrf <table-id>] [udp-out-vrf <table-id>] [tcp-in-vrf <table-id>] [udp-in-vrf <table-id>] [del]

Add the ‘ip4-source-and-port-range-check-rx’ or ‘ip4-source-and-port-range-check-tx’ graph node for a given interface. ‘tcp-out-vrf’ and ‘udp-out-vrf’ will add to the RX path. ‘tcp-in-vrf’ and ‘udp-in-vrf’ will add to the TX path. A graph node will be inserted into the chain when the range check is added to the first interface. It will not be removed from when range check is removed from the last interface.

By adding the range check graph node to the interface, incoming or outgoing TCP/UDP packets will be validated using the provided IPv4 FIB table (VRF).

@note ‘ip4-source-and-port-range-check-rx’ and ‘ip4-source-and-port-range-check-tx’ strings are too long, so they are truncated on the ‘show vlib graph’ output.

Example of graph node before range checking is enabled:

show vlib graph ip4-source-and-port-range-check-tx

           Name                      Next                    Previous
ip4-source-and-port-range-      ip4-drop [0]

Example of how to enable range checking on TX:

set interface ip source-and-port-range-check GigabitEthernet2/0/0 udp-in-vrf 7

Example of graph node after range checking is enabled:

show vlib graph ip4-source-and-port-range-check-tx

           Name                      Next                    Previous
ip4-source-and-port-range-      ip4-drop [0]                ip4-rewrite
                             interface-output [1]

Example of how to display the features enabled on an interface:

show ip interface features GigabitEthernet2/0/0

IP feature paths configured on GigabitEthernet2/0/0...

ipv4 unicast:
  ip4-source-and-port-range-check-rx
  ip4-lookup

ipv4 multicast:
  ip4-lookup-multicast

ipv4 multicast:
  interface-output

ipv6 unicast:
  ip6-lookup

ipv6 multicast:
  ip6-lookup

ipv6 multicast:
  interface-output

Declaration: set_interface_ip_source_and_port_range_check_command src/vnet/ip/ip4_source_and_port_range_check.c line 801

Implementation: set_ip_source_and_port_range_check_fn

set interface ip table

set interface ip table <interface> <table-id>

Place the indicated interface into the supplied IPv4 FIB table (also known as a VRF). The FIB table must be created using “ip table add” already. To display the current IPv4 FIB table, use the command show ip fib. FIB table will only be displayed if a route has been added to the table, or an IP Address is assigned to an interface in the table (which adds a route automatically).

@note IP addresses added after setting the interface IP table are added to the indicated FIB table. If an IP address is added prior to changing the table then this is an error. The control plane must remove these addresses first and then change the table. VPP will not automatically move the addresses from the old to the new table as it does not know the validity of such a change.

Example of how to add an interface to an IPv4 FIB table (where 2 is the table-id):

set interface ip table GigabitEthernet2/0/0 2

Declaration: set_interface_ip_table_command src/vnet/ip/lookup.c line 730

Implementation: ip4_table_bind_cmd

set interface ip6 table

set interface ip6 table <interface> <table-id>

Place the indicated interface into the supplied IPv6 FIB table (also known as a VRF). The FIB table must be created using “ip6 table add” already. To display the current IPv6 FIB table, use the command show ip6 fib. FIB table will only be displayed if a route has been added to the table, or an IP Address is assigned to an interface in the table (which adds a route automatically).

@note IP addresses added after setting the interface IP table are added to the indicated FIB table. If an IP address is added prior to changing the table then this is an error. The control plane must remove these addresses first and then change the table. VPP will not automatically move the addresses from the old to the new table as it does not know the validity of such a change.

Example of how to add an interface to an IPv6 FIB table (where 2 is the table-id):

set interface ip6 table GigabitEthernet2/0/0 2

Declaration: set_interface_ip6_table_command src/vnet/ip/lookup.c line 758

Implementation: ip6_table_bind_cmd

set interface reassembly

set interface reassembly <interface-name> [on|off|ip4|ip6]

Declaration: set_reassembly_command src/vnet/ip/ip46_cli.c line 298

Implementation: set_reassembly_command_fn

set ioam rewrite

set ioam [trace] [pot] [seqno] [analyse]

This command is used to enable In-band OAM (iOAM) features on IPv6. trace is used to enable iOAM trace feature. pot is used to enable the Proof Of Transit feature. ppc is used to indicate the Per Packet Counter feature for Edge to Edge processing. ppc is used to indicate if this node is an encap node (iOAM edge node where packet enters iOAM domain), a decap node (iOAM edge node where packet leaves iOAM domain) or none (iOAM node where packet is in-transit through the iOAM domain). ppc can only be set if trace or pot is enabled.

Use clear ioam rewrite to disable all features enabled by this command. Use show ioam summary to verify the configured settings.

Example of how to enable trace and pot with ppc set to encap:

set ioam rewrite trace pot ppc encap

Declaration: ip6_set_ioam_rewrite_cmd src/vnet/ip/ip6_hop_by_hop.c line 1375

Implementation: ip6_set_ioam_rewrite_command_fn

set ip classify

set ip classify intfc <interface> table-index <classify-idx>

Assign a classification table to an interface. The classification table is created using the classify table and classify session commands. Once the table is create, use this command to filter packets on an interface.

Example of how to assign a classification table to an interface:

set ip classify intfc GigabitEthernet2/0/0 table-index 1

Declaration: set_ip_classify_command src/vnet/ip/ip4_forward.c line 2962

Implementation: set_ip_classify_command_fn

set ip flow-hash

set ip flow-hash table <table-id> [src] [dst] [sport] [dport] [proto] [reverse]

Configure the set of IPv4 fields used by the flow hash.

Example of how to set the flow hash on a given table:

set ip flow-hash table 7 dst sport dport proto

Example of display the configured flow hash:

show ip fib

ipv4-VRF:0, fib_index 0, flow hash: src dst sport dport proto
0.0.0.0/0
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:0 buckets:1 uRPF:0 to:[0:0]]
    [0] [@0]: dpo-drop ip6
0.0.0.0/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:1 buckets:1 uRPF:1 to:[0:0]]
    [0] [@0]: dpo-drop ip6
224.0.0.0/8
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:3 buckets:1 uRPF:3 to:[0:0]]
    [0] [@0]: dpo-drop ip6
6.0.1.2/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:30 buckets:1 uRPF:29 to:[0:0]]
    [0] [@3]: arp-ipv4: via 6.0.0.1 af_packet0
7.0.0.1/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:31 buckets:4 uRPF:30 to:[0:0]]
    [0] [@3]: arp-ipv4: via 6.0.0.2 af_packet0
    [1] [@3]: arp-ipv4: via 6.0.0.2 af_packet0
    [2] [@3]: arp-ipv4: via 6.0.0.2 af_packet0
    [3] [@3]: arp-ipv4: via 6.0.0.1 af_packet0
240.0.0.0/8
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:2 buckets:1 uRPF:2 to:[0:0]]
    [0] [@0]: dpo-drop ip6
255.255.255.255/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:4 buckets:1 uRPF:4 to:[0:0]]
    [0] [@0]: dpo-drop ip6
ipv4-VRF:7, fib_index 1, flow hash: dst sport dport proto
0.0.0.0/0
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:12 buckets:1 uRPF:11 to:[0:0]]
    [0] [@0]: dpo-drop ip6
0.0.0.0/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:13 buckets:1 uRPF:12 to:[0:0]]
    [0] [@0]: dpo-drop ip6
172.16.1.0/24
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:17 buckets:1 uRPF:16 to:[0:0]]
    [0] [@4]: ipv4-glean: af_packet0
172.16.1.1/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:18 buckets:1 uRPF:17 to:[1:84]]
    [0] [@2]: dpo-receive: 172.16.1.1 on af_packet0
172.16.1.2/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:21 buckets:1 uRPF:20 to:[0:0]]
    [0] [@5]: ipv4 via 172.16.1.2 af_packet0: IP4: 02:fe:9e:70:7a:2b -> 26:a5:f6:9c:3a:36
172.16.2.0/24
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:19 buckets:1 uRPF:18 to:[0:0]]
    [0] [@4]: ipv4-glean: af_packet1
172.16.2.1/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:20 buckets:1 uRPF:19 to:[0:0]]
    [0] [@2]: dpo-receive: 172.16.2.1 on af_packet1
224.0.0.0/8
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:15 buckets:1 uRPF:14 to:[0:0]]
    [0] [@0]: dpo-drop ip6
240.0.0.0/8
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:14 buckets:1 uRPF:13 to:[0:0]]
    [0] [@0]: dpo-drop ip6
255.255.255.255/32
  unicast-ip4-chain
  [@0]: dpo-load-balance: [index:16 buckets:1 uRPF:15 to:[0:0]]
    [0] [@0]: dpo-drop ip6

Declaration: set_ip_flow_hash_command src/vnet/ip/ip4_forward.c line 2837

Implementation: set_ip_flow_hash_command_fn

set ip source-and-port-range-check

set ip source-and-port-range-check vrf <table-id> <ip-addr>/<mask> {port nn | range <nn> - <nn>} [del]

This command adds an IP Subnet and range of ports to be validated by an IP FIB table (VRF).

practical example.

Example of how to add an IPv4 subnet and single port to an IPv4 FIB table:

set ip source-and-port-range-check vrf 7 172.16.1.0/24 port 23

Example of how to add an IPv4 subnet and range of ports to an IPv4 FIB table:

set ip source-and-port-range-check vrf 7 172.16.1.0/24 range 23 - 100

Example of how to delete an IPv4 subnet and single port from an IPv4 FIB table:

set ip source-and-port-range-check vrf 7 172.16.1.0/24 port 23 del

Example of how to delete an IPv4 subnet and range of ports from an IPv4 FIB table:

set ip source-and-port-range-check vrf 7 172.16.1.0/24 range 23 - 100 del

Declaration: ip_source_and_port_range_check_command src/vnet/ip/ip4_source_and_port_range_check.c line 1268

Implementation: ip_source_and_port_range_check_command_fn

set ip6 classify

set ip6 classify intfc <interface> table-index <classify-idx>

Assign a classification table to an interface. The classification table is created using the classify table and classify session commands. Once the table is create, use this command to filter packets on an interface.

Example of how to assign a classification table to an interface:

set ip6 classify intfc GigabitEthernet2/0/0 table-index 1

Declaration: set_ip6_classify_command src/vnet/ip/ip6_forward.c line 3176

Implementation: set_ip6_classify_command_fn

set ip6 flow-hash

set ip6 flow-hash table <table-id> [src] [dst] [sport] [dport] [proto] [reverse] [flowlabel]

Configure the set of IPv6 fields used by the flow hash.

Example of how to set the flow hash on a given table:

set ip6 flow-hash table 8 dst sport dport proto

Example of display the configured flow hash:

show ip6 fib

ipv6-VRF:0, fib_index 0, flow hash: src dst sport dport proto
@::/0
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:5 buckets:1 uRPF:5 to:[0:0]]
    [0] [@0]: dpo-drop ip6
fe80::/10
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:10 buckets:1 uRPF:10 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::1/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:8 buckets:1 uRPF:8 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::2/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:7 buckets:1 uRPF:7 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::16/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:9 buckets:1 uRPF:9 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::1:ff00:0/104
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:6 buckets:1 uRPF:6 to:[0:0]]
    [0] [@2]: dpo-receive
ipv6-VRF:8, fib_index 1, flow hash: dst sport dport proto
@::/0
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:21 buckets:1 uRPF:20 to:[0:0]]
    [0] [@0]: dpo-drop ip6
@::a:1:1:0:4/126
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:27 buckets:1 uRPF:26 to:[0:0]]
    [0] [@4]: ipv6-glean: af_packet0
@::a:1:1:0:7/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:28 buckets:1 uRPF:27 to:[0:0]]
    [0] [@2]: dpo-receive: @::a:1:1:0:7 on af_packet0
fe80::/10
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:26 buckets:1 uRPF:25 to:[0:0]]
    [0] [@2]: dpo-receive
fe80::fe:3eff:fe3e:9222/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:29 buckets:1 uRPF:28 to:[0:0]]
    [0] [@2]: dpo-receive: fe80::fe:3eff:fe3e:9222 on af_packet0
ff02::1/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:24 buckets:1 uRPF:23 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::2/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:23 buckets:1 uRPF:22 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::16/128
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:25 buckets:1 uRPF:24 to:[0:0]]
    [0] [@2]: dpo-receive
ff02::1:ff00:0/104
  unicast-ip6-chain
  [@0]: dpo-load-balance: [index:22 buckets:1 uRPF:21 to:[0:0]]
    [0] [@2]: dpo-receive

Declaration: set_ip6_flow_hash_command src/vnet/ip/ip6_forward.c line 3009

Implementation: set_ip6_flow_hash_command_fn

set punt

set punt [IPV4|ip6|ipv6] [UDP|tcp] [del] [ALL|<port-num>]

The set of set punt commands allows specific IP traffic to be punted to the host TCP/IP stack

@em Note

UDP is the only protocol supported in the current implementation
All TCP traffic is currently punted to the host by default

Example of how to request NTP traffic to be punted

set punt udp 125

Example of how to request all ‘unknown’ UDP traffic to be punted

set punt udp all

Example of how to stop all ‘unknown’ UDP traffic to be punted

set punt udp del all

Declaration: punt_command src/vnet/ip/punt.c line 545

Implementation: punt_cli

show ioam summary

show ioam summary

This command displays the current configuration data for In-band OAM (iOAM).

Example to show the iOAM configuration:

show ioam summary

              REWRITE FLOW CONFIGS -
               Destination Address : ff02::1
                    Flow operation : 2 (Pop)
                        TRACE OPTION - 1 (Enabled)
Try 'show ioam trace and show ioam-trace profile' for more information
                        POT OPTION - 1 (Enabled)
Try 'show ioam pot and show pot profile' for more information
         EDGE TO EDGE - PPC OPTION - 1 (Encap)

Declaration: ip6_show_ioam_run_cmd src/vnet/ip/ip6_hop_by_hop.c line 1459

Implementation: ip6_show_ioam_summary_cmd_fn

show ip

Internet protocol (IP) show commands

Declaration: vlib_cli_show_ip_command src/vnet/ip/lookup.c line 548

show ip container

show ip container <address> <interface>

Declaration: show_ip_container_command src/vnet/ip/ip_container_proxy.c line 279

Implementation: show_ip_container_cmd_fn

show ip local

show ip local

Display the set of protocols handled by the local IPv4 stack.

Example of how to display local protocol table:

show ip local

Protocols handled by ip4_local
1
17
47

Declaration: show_ip_local src/vnet/ip/ip4_forward.c line 1993

Implementation: show_ip_local_command_fn

show ip pmtu

show ip path MTU

Declaration: show_fib_entry src/vnet/ip/ip_path_mtu.c line 883

Implementation: show_ip_pmtu_command

show ip punt redirect

show ip punt redirect

set ip punt redierect

Declaration: show_ip4_punt_redirect_command src/vnet/ip/ip4_punt_drop.c line 432

Implementation: ip4_punt_redirect_show_cmd

show ip source-and-port-range-check

show ip source-and-port-range-check vrf <table-id> <ip-addr> [port <n>]

Display the range of ports being validated by an IPv4 FIB for a given IP or subnet, or test if a given IP and port are being validated.

practical example.

Example of how to display the set of ports being validated for a given IPv4 subnet:

show ip source-and-port-range-check vrf 7 172.16.2.0

172.16.2.0: 23 - 101

Example of how to test to determine of a given iPv4 address and port are being validated:

show ip source-and-port-range-check vrf 7 172.16.2.2 port 23

172.16.2.2 port 23 PASS

show ip source-and-port-range-check vrf 7 172.16.2.2 port 250

172.16.2.2 port 250 FAIL

Declaration: show_source_and_port_range_check src/vnet/ip/ip4_source_and_port_range_check.c line 1394

Implementation: show_source_and_port_range_check_fn

show ip table

show ip table <table-id>

Declaration: show_ip4_table_command src/vnet/ip/lookup.c line 631

Implementation: vnet_show_ip4_table_cmd

show ip6

Internet protocol version 6 (IPv6) show commands

Declaration: vlib_cli_show_ip6_command src/vnet/ip/lookup.c line 555

show ip6 hbh

show ip6 hbh

Display the set of ip6 local hop-by-hop next protocol handler nodes

Display ip6 local hop-by-hop next protocol handler nodes

show ip6 hbh

Declaration: show_ip6_hbh src/vnet/ip/ip6_hop_by_hop.c line 1063

Implementation: show_ip6_hbh_command_fn

show ip6 interface

show ip6 interface <interface>

This command is used to display various IPv6 attributes on a given interface.

Example of how to display IPv6 settings:

show ip6 interface GigabitEthernet2/0/0

GigabitEthernet2/0/0 is admin up
        Link-local address(es):
                fe80::ab8/64
        Joined group address(es):
                ff02::1
                ff02::2
                ff02::16
                ff02::1:ff00:ab8
        Advertised Prefixes:
                prefix fe80::fe:28ff:fe9c:75b3,  length 64
        MTU is 1500
        ICMP error messages are unlimited
        ICMP redirects are disabled
        ICMP unreachables are not sent
        ND DAD is disabled
        ND advertised reachable time is 0
        ND advertised retransmit interval is 0 (msec)
        ND router advertisements are sent every 200 seconds (min interval is 150)
        ND router advertisements live for 600 seconds
        Hosts use stateless autoconfig for addresses
        ND router advertisements sent 19336
        ND router solicitations received 0
        ND router solicitations dropped 0

Example of output if IPv6 is not enabled on the interface:

show ip6 interface GigabitEthernet2/0/0

show ip6 interface: IPv6 not enabled on interface

Declaration: ip6_link_show_command src/vnet/ip/ip6_link.c line 743

Implementation: ip6_link_show

show ip6 local

show ip6 local

Display the set of protocols handled by the local IPv6 stack.

Example of how to display local protocol table:

show ip6 local

Protocols handled by ip6_local
17
43
58
115

Declaration: show_ip6_local src/vnet/ip/ip6_forward.c line 3057

Implementation: show_ip6_local_command_fn

show ip6 punt redirect

show ip6 punt redirect

set ip punt policer <INDEX>

Declaration: show_ip6_punt_redirect_command src/vnet/ip/ip6_punt_drop.c line 425

Implementation: ip6_punt_redirect_show_cmd

show ip6 table

show ip6 table <table-id>

Declaration: show_ip6_table_command src/vnet/ip/lookup.c line 637

Implementation: vnet_show_ip6_table_cmd

show ip6-ll

show ip6-ll [summary] [interface] [<ip6-addr>[/<width>]] [detail]

Declaration: ip6_show_fib_command src/vnet/ip/ip6_ll_table.c line 354

Implementation: ip6_ll_show_fib

show punt socket registrations

show punt socket registrations [l4|exception]

show punt socket ipv4

Declaration: show_punt_socket_registration_command src/vnet/ip/punt.c line 825

Implementation: punt_socket_show_cmd

test ip checksum

test ip checksum

Declaration: test_checksum src/vnet/ip/ip_checksum.c line 169

Implementation: test_ip_checksum_fn

test ip6 link

test ip6 link <mac-address>

This command converts the given MAC Address into an IPv6 link-local address.

Example of how to create an IPv6 link-local address:

test ip6 link 16:d9:e0:91:79:86

Link local address: fe80::14d9:e0ff:fe91:7986
Original MAC address: 16:d9:e0:91:79:86

Declaration: test_link_command src/vnet/ip/ip6_link.c line 559

Implementation: test_ip6_link_command_fn