testpmd> read txd 0 0 4
0x00000001 - 0x24C3C440 / 0x000F0000 - 0x2330003C
+ddp get list
+~~~~~~~~~~~~
+
+Get loaded dynamic device personalization (DDP) package info list::
+
+ testpmd> ddp get list (port_id)
+
+ddp get info
+~~~~~~~~~~~~
+
+Display information about dynamic device personalization (DDP) profile::
+
+ testpmd> ddp get info (profile_path)
+
show vf stats
~~~~~~~~~~~~~
testpmd> clear vf stats (port_id) (vf_id)
+show port pctype mapping
+~~~~~~~~~~~~~~~~~~~~~~~~
+
+List all items from the pctype mapping table::
+
+ testpmd> show port (port_id) pctype mapping
+
+
Configuration Functions
-----------------------
testpmd> tso show (port_id)
+set port - gro
+~~~~~~~~~~~~~~
+
+Enable or disable GRO in ``csum`` forwarding engine::
+
+ testpmd> set port <port_id> gro on|off
+
+If enabled, the csum forwarding engine will perform GRO on the TCP/IPv4
+packets received from the given port.
+
+If disabled, packets received from the given port won't be performed
+GRO. By default, GRO is disabled for all ports.
+
+.. note::
+
+ When enable GRO for a port, TCP/IPv4 packets received from the port
+ will be performed GRO. After GRO, all merged packets have bad
+ checksums, since the GRO library doesn't re-calculate checksums for
+ the merged packets. Therefore, if users want the merged packets to
+ have correct checksums, please select HW IP checksum calculation and
+ HW TCP checksum calculation for the port which the merged packets are
+ transmitted to.
+
+show port - gro
+~~~~~~~~~~~~~~~
+
+Display GRO configuration for a given port::
+
+ testpmd> show port <port_id> gro
+
+set gro flush
+~~~~~~~~~~~~~
+
+Set the cycle to flush the GROed packets from reassembly tables::
+
+ testpmd> set gro flush <cycles>
+
+When enable GRO, the csum forwarding engine performs GRO on received
+packets, and the GROed packets are stored in reassembly tables. Users
+can use this command to determine when the GROed packets are flushed
+from the reassembly tables.
+
+The ``cycles`` is measured in GRO operation times. The csum forwarding
+engine flushes the GROed packets from the tables every ``cycles`` GRO
+operations.
+
+By default, the value of ``cycles`` is 1, which means flush GROed packets
+from the reassembly tables as soon as one GRO operation finishes. The value
+of ``cycles`` should be in the range of 1 to ``GRO_MAX_FLUSH_CYCLES``.
+
+Please note that the large value of ``cycles`` may cause the poor TCP/IP
+stack performance. Because the GROed packets are delayed to arrive the
+stack, thus causing more duplicated ACKs and TCP retransmissions.
+
+set port - gso
+~~~~~~~~~~~~~~
+
+Toggle per-port GSO support in ``csum`` forwarding engine::
+
+ testpmd> set port <port_id> gso on|off
+
+If enabled, the csum forwarding engine will perform GSO on supported IPv4
+packets, transmitted on the given port.
+
+If disabled, packets transmitted on the given port will not undergo GSO.
+By default, GSO is disabled for all ports.
+
+.. note::
+
+ When GSO is enabled on a port, supported IPv4 packets transmitted on that
+ port undergo GSO. Afterwards, the segmented packets are represented by
+ multi-segment mbufs; however, the csum forwarding engine doesn't calculation
+ of checksums for GSO'd segments in SW. As a result, if users want correct
+ checksums in GSO segments, they should enable HW checksum calculation for
+ GSO-enabled ports.
+
+ For example, HW checksum calculation for VxLAN GSO'd packets may be enabled
+ by setting the following options in the csum forwarding engine:
+
+ testpmd> csum set outer_ip hw <port_id>
+
+ testpmd> csum set ip hw <port_id>
+
+ testpmd> csum set tcp hw <port_id>
+
+set gso segsz
+~~~~~~~~~~~~~
+
+Set the maximum GSO segment size (measured in bytes), which includes the
+packet header and the packet payload for GSO-enabled ports (global)::
+
+ testpmd> set gso segsz <length>
+
+show port - gso
+~~~~~~~~~~~~~~~
+
+Display the status of Generic Segmentation Offload for a given port::
+
+ testpmd> show port <port_id> gso
+
mac_addr add
~~~~~~~~~~~~
Delete an E-tag forwarding filter on a port::
testpmd> E-tag set filter del e-tag-id (value) port (port_id)
+ddp add
+~~~~~~~
+
+Load a dynamic device personalization (DDP) package::
+
+ testpmd> ddp add (port_id) (package_path[,output_path])
+
+ddp del
+~~~~~~~
+
+Delete a dynamic device personalization package::
+
+ testpmd> ddp del (port_id) (package_path)
+
ptype mapping
~~~~~~~~~~~~~
testpmd> port config (port_id|all) l2-tunnel E-tag (enable|disable)
+port config pctype mapping
+~~~~~~~~~~~~~~~~~~~~~~~~~~
+
+Reset pctype mapping table::
+
+ testpmd> port config (port_id) pctype mapping reset
+
+Update hardware defined pctype to software defined flow type mapping table::
+
+ testpmd> port config (port_id) pctype mapping update (pctype_id_0[,pctype_id_1]*) (flow_type_id)
+
+where:
+
+* ``pctype_id_x``: hardware pctype id as index of bit in bitmask value of the pctype mapping table.
+
+* ``flow_type_id``: software flow type id as the index of the pctype mapping table.
+
Link Bonding Functions
----------------------
testpmd> set bonding mon_period 5 150
+set bonding lacp dedicated_queue
+~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
+
+Enable dedicated tx/rx queues on bonding devices slaves to handle LACP control plane traffic
+when in mode 4 (link-aggregration-802.3ad)::
+
+ testpmd> set bonding lacp dedicated_queues (port_id) (enable|disable)
+
+
+set bonding agg_mode
+~~~~~~~~~~~~~~~~~~~~
+
+Enable one of the specific aggregators mode when in mode 4 (link-aggregration-802.3ad)::
+
+ testpmd> set bonding agg_mode (port_id) (bandwidth|count|stable)
+
+
show bonding config
~~~~~~~~~~~~~~~~~~~
---------------------
Control of the generic flow API (*rte_flow*) is fully exposed through the
-``flow`` command (validation, creation, destruction and queries).
+``flow`` command (validation, creation, destruction, queries and operation
+modes).
Considering *rte_flow* overlaps with all `Filter Functions`_, using both
features simultaneously may cause undefined side-effects and is therefore
flow list {port_id} [group {group_id}] [...]
+- Restrict ingress traffic to the defined flow rules::
+
+ flow isolate {port_id} {boolean}
+
Validating flow rules
~~~~~~~~~~~~~~~~~~~~~
- ``protocol {unsigned}``: protocol type.
+- ``fuzzy``: fuzzy pattern match, expect faster than default.
+
+ - ``thresh {unsigned}``: accuracy threshold.
+
+- ``gtp``, ``gtpc``, ``gtpu``: match GTPv1 header.
+
+ - ``teid {unsigned}``: tunnel endpoint identifier.
+
Actions list
^^^^^^^^^^^^
7 63 0 i- ETH IPV6 UDP VXLAN => MARK QUEUE
testpmd>
+Toggling isolated mode
+~~~~~~~~~~~~~~~~~~~~~~
+
+``flow isolate`` can be used to tell the underlying PMD that ingress traffic
+must only be injected from the defined flow rules; that no default traffic
+is expected outside those rules and the driver is free to assign more
+resources to handle them. It is bound to ``rte_flow_isolate()``::
+
+ flow isolate {port_id} {boolean}
+
+If successful, enabling or disabling isolated mode shows either::
+
+ Ingress traffic on port [...]
+ is now restricted to the defined flow rules
+
+Or::
+
+ Ingress traffic on port [...]
+ is not restricted anymore to the defined flow rules
+
+Otherwise, in case of error::
+
+ Caught error type [...] ([...]): [...]
+
+Mainly due to its side effects, PMDs supporting this mode may not have the
+ability to toggle it more than once without reinitializing affected ports
+first (e.g. by exiting testpmd).
+
+Enabling isolated mode::
+
+ testpmd> flow isolate 0 true
+ Ingress traffic on port 0 is now restricted to the defined flow rules
+ testpmd>
+
+Disabling isolated mode::
+
+ testpmd> flow isolate 0 false
+ Ingress traffic on port 0 is not restricted anymore to the defined flow rules
+ testpmd>
+
Sample QinQ flow rules
~~~~~~~~~~~~~~~~~~~~~~
+Before creating QinQ rule(s) the following commands should be issued to enable QinQ::
+
+ testpmd> port stop 0
+ testpmd> vlan set qinq on 0
+
+The above command sets the inner and outer TPID's to 0x8100.
+
+To change the TPID's the following commands should be used::
+
+ testpmd> vlan set outer tpid 0xa100 0
+ testpmd> vlan set inner tpid 0x9100 0
+ testpmd> port start 0
+
Validate and create a QinQ rule on port 0 to steer traffic to a VF queue in a VM.
::
- testpmd> flow validate 0 ingress pattern eth / vlan tpid is 0x8100 tci is 4 /
- vlan tpid is 0x8100 tci is 5 / end actions vf id 1 / queue index 0 / end
+ testpmd> flow validate 0 ingress pattern eth / vlan tci is 123 /
+ vlan tci is 456 / end actions vf id 1 / queue index 0 / end
Flow rule #0 validated
- testpmd> flow create 0 ingress pattern eth / vlan tpid is 0x8100 tci is 4 /
- vlan tpid is 0x8100 tci is 5 / end actions vf id 1 / queue index 0 / end
+ testpmd> flow create 0 ingress pattern eth / vlan tci is 4 /
+ vlan tci is 456 / end actions vf id 123 / queue index 0 / end
Flow rule #0 created
testpmd> flow list 0
::
- testpmd> flow validate 0 ingress pattern eth / vlan tpid is 0x8100 tci is 6 /
- vlan tpid is 0x8100 tci is 7 / end actions pf / queue index 0 / end
+ testpmd> flow validate 0 ingress pattern eth / vlan tci is 321 /
+ vlan tci is 654 / end actions pf / queue index 0 / end
Flow rule #1 validated
- testpmd> flow create 0 ingress pattern eth / vlan tpid is 0x8100 tci is 6 /
- vlan tpid is 0x8100 tci is 7 / end actions pf / queue index 1 / end
+ testpmd> flow create 0 ingress pattern eth / vlan tci is 321 /
+ vlan tci is 654 / end actions pf / queue index 1 / end
Flow rule #1 created
testpmd> flow list 0
ID Group Prio Attr Rule
0 0 0 i- ETH VLAN VLAN=>VF QUEUE
1 0 0 i- ETH VLAN VLAN=>PF QUEUE
-
-After creating QinQ rule(s) the following command should be issued to enable QinQ::
-
- testpmd> vlan set qinq on 0
-
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