Syntax
display protocol-priority
View
Any view
Parameter
None
Description
Use the display protocol-priority
command to display the priority of the protocol packet.
Example
# Display the priority of the protocol
packet.
<H3C> display protocol-priority
Protocol: telnet
DSCP: be(0)
1.1.2 display qos cos-local-precedence-map
Syntax
display qos cos-local-precedence-map
View
Any view
Parameter
None
Description
Use the display qos cos-local-precedence-map
command to display the “COS-to-local-precedence” mapping table.
Example
# Display the
“COS-to-local-precedence” mapping table.
<H3C> display qos cos-local-precedence-map
cos-local-precedence-map:
cos(802.1p) : 0
1 2 3 4 5 6 7
------------------------------------------------------------------------
local precedence(queue) : 0 1
2 3 4 5 6 7
Syntax
display qos-interface { interface-type interface-number | unit-id } all
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface all command
to display all the QoS configuration of the ports. If you do not input port
parameters, this command will display the QoS parameter configuration of all
the ports of the switch, including priority remark, queue scheduling, rate
limit, etc; if you input port parameters, this command will display QoS
parameter configuration of the port, including priority remark, queue
scheduling, rate limit, etc.
When the IRF feature is enabled, the interface-type
interface-number argument or the unit-id argument must be input.
Example
# Display all the QoS parameter
configuration on Ethernet1/0/1.
<H3C> display qos-interface
Ethernet 1/0/1 all
Ethernet1/0/1: traffic-limit
Inbound:
Matches: Acl 3001 rule 1 running
Target rate: 640 kbps
Exceed action: remark-dscp 4
Ethernet1/0/1: traffic-priority
Inbound:
Matches: Acl 2000 rule 0 running
Priority action: dscp ef
Ethernet1/0/1: line-rate
Inbound: 128 kbps
Outbound: 1024 kbps
Ethernet1/0/1:
Queue scheduling mode:
strict-priority
Syntax
display qos-interface { interface-type interface-number | unit-id } line-rate
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface line-rate command
to display the rate limit configuration of a port or all the ports of a switch.
If you do not specify the interface-type interface-number argument, this
command will display the rate limit configuration of all the ports of a switch;
if you specify that argument, this command will display the rate limit
configuration of a specific port.
Example
# Display the rate limit configuration of a
specific port.
<H3C> display qos-interface 1
line-rate
Ethernet1/0/1: line-rate
Inbound: 128 kbps
1.1.5 display
qos-interface traffic-limit
Syntax
display qos-interface { interface-type interface-number | unit-id } traffic-limit
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface
traffic-limit command to display the traffic limit configuration of a port
or all the ports of a switch, including the applied ACLs for traffic limit,
committed information rate (CIR), and the corresponding actions.
Related command: traffic-limit.
Example
# Display the traffic limit configuration.
<H3C> display qos-interface
Ethernet 1/0/1 traffic-limit
Ethernet1/0/1: traffic-limit
Inbound:
Matches: Acl 3001 rule 1 running
Target rate: 640 kbps
Exceed action: remark-dscp 4
Syntax
display qos-interface { interface-type interface-number | unit-id } traffic-priority
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface traffic-priority
command to display the traffic priority configuration. The information
displayed includes the ACL corresponding to the traffic tagged with priority,
priority type and value.
Related command: traffic-priority.
Example
# Display the traffic priority configuration.
<H3C> display qos-interface
Ethernet 1/0/1 traffic-priority
Ethernet1/0/1: traffic-priority
Inbound:
Matches: Acl 2000 rule 0 running
Priority action: dscp ef
Syntax
display qos-interface { interface-type interface-number | unit-id } traffic-redirect
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface traffic-redirect
command to display the redirection configuration of a port or all the ports
of a switch. The displayed information includes the corresponding ACLs of the
traffic to be redirected, the destination interfaces, etc.
Related command: traffic-redirect.
Example
# Display the redirect configuration.
<H3C> display qos-interface
Ethernet 1/0/1 traffic-redirect
Ethernet1/0/1: traffic-redirect
Inbound:
Matches: Acl 3000 rule 0 running
Redirected to: interface
Ethernet1/0/22
Syntax
display qos-interface { interface-type interface-number | unit-id } traffic-statistic
View
Any view
Parameter
interface-type interface-number: Port index.
unit-id:
Unit ID of the switch.
Description
Use the display qos-interface
traffic-statistic command to display the traffic statistics information.
The information displayed includes the ACL corresponding to the traffic to be
counted and the number of packets counted.
Related command: traffic-statistic.
Example
# Display the traffic statistics
information.
<H3C> display qos-interface
Ethernet 1/0/1 traffic-statistic
Ethernet1/0/1: traffic-statistic
Inbound:
Matches: Acl 2000 rule 2 running
0 packet inprofile
0 packet outprofile
Syntax
display queue-scheduler
View
Any view
Parameter
None
Description
Use the display queue-scheduler
command to display global queue scheduling mode and corresponding
configuration.
Related command: queue-scheduler.
Example
# Display the global queue scheduling mode.
<H3C> display queue-scheduler
Queue scheduling mode:
strict-priority
Syntax
line-rate {
inbound | outbound } target-rate
undo line-rate{ inbound | outbound }
View
Ethernet port view
Parameter
inbound:
Limits the rate of inbound packets.
outbound:
Limits the rate of outbound packets.
target-rate:
Total rate (in Kbps) to limit both the inbound and outbound packets on the
port, with the granularity of rate limit being 64 Kbps. If the number you input
is in the range of N*64 to (N+1)*64 (N is a natural number), the switch will
set the value to (N+1)*64 Kbps automatically. The target rate range for fast
Ethernet ports and Gigabit Ethernet ports respectively is:
l
Fast Ethernet port: 64 to 99,968
l
Gigabit Ethernet port: 64 to 1,000,000
Description
Use the line-rate command to limit
the rate of the packets on the port.
Use the undo line-rate command to
cancel the rate limit configuration on the port.
The granularity of rate limit is 64 Kbps.
Example
# Limit the rate of inbound packets on
Ethernet1/0/1 to 128 Kbps.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] line-rate inbound
128
1.1.11 priority
Syntax
priority priority-level
undo priority
View
Ethernet port view
Parameter
priority-level: Priority level of the port, ranging from 0 to 7.
Description
Use the priority command to
configure the priority of Ethernet port.
Use the undo priority command to
restore the default port priority.
By default, the switch uses the port
priority instead of the 802.1p priority carried by a packet.
After this command is configured, the
switch will replace the packet 802.1p priority with the priority of the
receiving port, according to which the packet will be put into the
corresponding egress queue.
Example
# Set the priority of Ethernet1/0/1 port to
6.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] priority 6
Syntax
priority trust
undo priority
View
Ethernet port view
Parameter
None
Description
Use the priority trust command to
configure the system to use the packet 802.1p priority instead of the port
priority.
Use the undo priority command to
configure the system not to use packet 802.1p priority.
By default, the system replaces the
priority carried by a packet with the port priority.
Example
# Configure the system to use the packet
priority on Ethernet1/0/1.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] priority trust
Syntax
protocol-priority
protocol-type protocol-type { ip-precedence ip-precedence
| dscp dscp-value }
undo protocol-priority protocol-type protocol-type
View
System view
Parameter
protocol-type protocol-type: Specifies the protocol
type. Only TELNET, SNMP, ICMP and OSPF are supported currently.
ip-precedence ip-precedence: Specifies the IP
precedence, in the range of 0 to 7. You can enter the keywords as shown in Table 1-1 .
Table 1-1 Description
on IP precedence values
|
Keyword
|
IP precedence value (decimal)
|
IP precedence value (binary)
|
|
routine
|
0
|
000
|
|
priority
|
1
|
001
|
|
immediate
|
2
|
010
|
|
flash
|
3
|
011
|
|
flash-override
|
4
|
100
|
|
critical
|
5
|
101
|
|
internet
|
6
|
110
|
|
network
|
7
|
111
|
dscp dscp-value: Specifies the DSCP priority, in the range of 0 to 63. You can also
enter the keywords listed in Table 1-2.
Table 1-2 Description
on DSCP values
|
Keyword
|
DSCP value (decimal)
|
DSCP value (binary)
|
|
ef
|
46
|
101110
|
|
af11
|
10
|
001010
|
|
af12
|
12
|
001100
|
|
af13
|
14
|
001110
|
|
af21
|
18
|
010010
|
|
af22
|
20
|
010100
|
|
af23
|
22
|
010110
|
|
af31
|
26
|
011010
|
|
af32
|
28
|
011100
|
|
af33
|
30
|
011110
|
|
af41
|
34
|
100010
|
|
af42
|
36
|
100100
|
|
af43
|
38
|
100110
|
|
cs1
|
8
|
001000
|
|
cs2
|
16
|
010000
|
|
cs3
|
24
|
011000
|
|
cs4
|
32
|
100000
|
|
cs5
|
40
|
101000
|
|
cs6
|
48
|
110000
|
|
cs7
|
56
|
111000
|
|
be
(default)
|
0
|
000000
|
Description
Use the protocol-priority command to
set the global traffic priority for a specific protocol type.
Use the undo protocol-priority
command to cancel the settings.
The precedence of OSPF protocol packets cannot be changed on
S3600-SI series switches.
Example
# Set the IP precedence of SNMP protocol
packets to 3.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] protocol-priority protocol-type
snmp ip-precedence 3
Syntax
qos cos-local-precedence-map
cos0-map-local-prec cos1-map-local-prec cos2-map-local-prec
cos3-map-local-prec cos4-map-local-prec cos5-map-local-prec cos6-map-local-prec
cos7-map-local-prec
undo qos cos-local-precedence-map
View
System view
Parameter
cos0-map-local-prec: Local precedence to which CoS 0 is to be mapped, in the range of 0
to 7.
cos1-map-local-prec: Local precedence to which CoS 1 is to be mapped, in the range of 0
to 7.
cos2-map-local-prec: Local precedence to which CoS 2 is to be mapped, in the range of 0
to 7.
cos3-map-local-prec: Local precedence to which CoS 3 is to be mapped, in the range of 0
to 7.
cos4-map-local-prec: Local precedence to which CoS 4 is to be mapped, in the range of 0
to 7.
cos5-map-local-prec: Local precedence to which CoS 5 is to be mapped, in the range of 0
to 7.
cos6-map-local-prec: Local precedence to which CoS 6 is to be mapped, in the range of 0
to 7.
cos7-map-local-prec: Local precedence to which CoS 7 is to be mapped, in the range of 0
to 7.
Description
Use the qos cos-local-precedence-map
command to configure the “CoS-to-local-precedence” mapping table.
Use the undo qos cos-local-precedence-map
command to restore the default values.
The following is the default “CoS-to-local-precedence” mapping table.
Table 1-3 Default “CoS-to-local-precedence”
mapping table
|
CoS value
|
Local precedence
|
|
0
|
2
|
|
1
|
0
|
|
2
|
1
|
|
3
|
3
|
|
4
|
4
|
|
5
|
5
|
|
6
|
6
|
|
7
|
7
|
Example
# Configure the “CoS-to-local-precedence”
mapping table.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] qos cos-local-precedence-map 0
1 2 3 4 5 6 7
The following is the configured "CoS-to-local-precedence”
mapping table.
Table 1-4 “CoS-to-local-precedence”
mapping table
|
CoS value
|
Local precedence
|
|
0
|
0
|
|
1
|
1
|
|
2
|
2
|
|
3
|
3
|
|
4
|
4
|
|
5
|
5
|
|
6
|
6
|
|
7
|
7
|
Syntax
I. In system view
queue-scheduler { strict-priority | wfq queue0-width queue1-width
queue2-width queue3-width queue4-width queue5-width queue6-width queue7-width
| wrr queue0-weight queue1-weight queue2-weight queue3-weight
queue4-weight queue5-weight queue6-weight queue7-weight }
undo queue-scheduler
II. In Ethernet port view
queue-scheduler { wfq queue0-width queue1-width queue2-width queue3-width
queue4-width queue5-width queue6-width queue7-width | wrr queue0-weight
queue1-weight queue2-weight queue3-weight queue4-weight queue5-weight
queue6-weight queue7-weight }
undo queue-scheduler
View
System view/Ethernet port view
Parameter
strict-priority: Indicates that the queue uses strict priority (SP) scheduling
algorithm.
wfq:
Indicates that the queue uses weighted fair queue (WFQ) scheduling.
queue0-width queue1-width queue2-width
queue3-width queue4-width queue5-width queue6-width queue7-width: Minimum delivery bandwidth of each WFQ queue in Kbps. Its
granularity is 64 Kbps. If the number you enter is in the range of N*64 to
(N+1)*64 (N is a natural number), the switch sets the value to (N+1)*64
automatically. The value for fast Ethernet ports is in the range of 64 to
99,968, and the value for Gigabit Ethernet ports is in the range of 64 to
1,000,000. A value of 0 means the corresponding queue uses the SP scheduling.
wrr:
Indicates that the queue uses weighted round robin (WRR) scheduling.
queue0-weight queue1-weight
queue2-weight queue3-weight queue4-weight queue5-weight queue6-weight
queue7-weight: Indicates that the queue uses the
WRR scheduling. The value ranges from 0 to 15. A value of 0 means the
corresponding queue uses the SP scheduling.
Description
Use the queue-scheduler command to
configure the queue scheduling mode.
Use the undo queue-scheduler command
to restore the default value.
The queue scheduling algorithm defined by
executing the queue-scheduler command in system view takes effect on all
the ports of the switch. The queue scheduling algorithm defined by executing
the queue-scheduler command in Ethernet port view takes effect on the
current port only. If the weight (or bandwidth value) of the WRR (or WFQ) queue
scheduling algorithm defined globally cannot satisfy the requirement of a port,
you can modify the weight (or bandwidth value) of the queue scheduling
algorithm for this port in Ethernet port view of this port. On this port, the
newly defined queue weight (or bandwidth value) will replace the globally
defined one. You cannot use the display queue-scheduler command to
display the queue weight (or bandwidth value) defined in Ethernet port view.
A port of the switch supports eight egress
queues and you can configure a queue scheduling mode, which can be SP, WRR, or
WFQ as needed to achieve the implementation of WRR+SP or WFQ+SP. For example,
with WRR or WFQ, if you set the weight or the minimum bandwidth of one or more
queues to 0, the SP applies to the queue(s) and WRR or WFQ apply to other
queues.
By default, the WRR algorithm is selected
for all outbound queues on a port, and their weight values are 1, 2, 3, 4, 5,
9, 13, and 15.
Related command: display queue-scheduler.
Example
# Set WRR as the queue scheduling mode, and
set the weight value of each queue to 1, 2, 3, 4, 5, 6, 7, and 8, respectively.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] queue-scheduler wrr
1 2 3 4 5 6 7 8
1.1.16 reset traffic-statistic
Syntax
reset traffic-statistic inbound acl-rule
View
Ethernet port view
Parameter
inbound:
Specifies to clear the statistics of the inbound packets on the port.
acl-rule:
Applied ACL which can be the combination of various ACL rules. For the ways of
combining ACLs and the description on related parameters, refer to Table 1-5 and Table 1-6.
Table 1-5 Ways
of applying combined ACLs
|
ACL combination
|
Form of the acl-rule argument
|
|
Apply all the rules in an IP ACL
separately
|
ip-group acl-number
|
|
Apply a rule in an IP ACL separately
|
ip-group acl-number rule rule-id
|
|
Apply all the rules in a Link ACL
separately
|
link-group acl-number
|
|
Apply a rule in a Link ACL separately
|
link-group acl-number rule rule-id
|
|
Apply all the rules in a user-defined ACL
separately
|
user-group acl-number
|
|
Apply a rule in a user-defined ACL separately
|
user-group acl-number rule rule-id
|
|
Apply a rule in an IP ACL and a rule in a
Link ACL at the same time
|
ip-group acl-number rule rule-id
link-group acl-number rule rule-id
|
Table 1-6 Description
on the parameters in the ACL combination
|
Parameter
|
Description
|
|
ip-group acl-number
|
The number of a basic or advanced ACL, in
the range of 2,000 to 3,999
|
|
link-group acl-number
|
The number of a Layer 2 ACL, in the range
of 4,000 to 4,999
|
|
user-group acl-number
|
The number of a user-defined ACL, in the
range of 5,000 to 5,999
|
|
rule-id
|
The number of an ACL rule, in the range
of 0 to 65,534. If this argument is not specified, it refers to all the rules
in the ACL
|
Description
Use the reset traffic-statistic
command to clear the statistics of all or the specified traffic.
Example
# Clear the statistics of the inbound
traffic that matches ACL 2000 on Ethernet1/0/1.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] reset
traffic-statistic inbound ip-group 2000
Syntax
traffic-limit inbound acl-rule target-rate [ exceed action
]
undo traffic-limit inbound acl-rule
View
Ethernet port view
Parameter
inbound:
Imposes traffic limit on the packets received through the interface.
acl-rule:
Applied ACL rules which can be the combination of various ACL rules. For the
ways of combining ACLs and the description on related parameters, refer to Table 1-5 and Table 1-6.
target-rate:
Total rate (in Kbps) to be set, with the granularity of traffic limit being 64
Kbps. If the specified number ranges from N*64 to (N+1)*64, where N is a
natural number, the switch automatically sets (N+1)*64 as the parameter value.
This argument ranges from 64 to 99,968 inclusive for a fast Ethernet port and
from 64 to 1,000,000 inclusive for a Gigabit Ethernet port.
exceed action:
Optional. The action is taken when the traffic exceeds the threshold. The action
can be:
l
drop: Drops the
packets.
l
remark-dscp value:
Sets a new DSCP value.
Description
Use the traffic-limit command to
activate ACL-based traffic identification, impose traffic limit, and take
different actions on packets within/exceeding the traffic limit.
Use the undo traffic-limit command to
remove traffic limit.
The granularity of traffic limit is 64
Kbps.
This command is only effective for the ACL
rules whose actions are permit.
Example
# Impose traffic limit on packets that are
received on Ethernet1/0/1 and match the permit rule in ACL 4000. Set the rate
limit to 128 Kbps and drop the packets exceeding the rate.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] traffic-limit
inbound link-group 4000 128 exceed drop
Syntax
traffic-priority { inbound | outbound } acl-rule { { dscp
dscp-value | ip-precedence { pre-value | from-cos } }
| cos { pre-value | from-ipprec } | local-precedence
pre-value }*
undo traffic-priority { inbound | outbound } acl-rule
View
Ethernet port view
Parameter
inbound:
Performs priority remarking on the packets received by the interface.
outbound:
Performs priority remarking on the packets sent by the interface.
acl-rule:
Applied ACL rules which can be the combination of various ACL rules. For the
ways of combining ACLs and the description on related parameters, refer to Table 1-5 and Table 1-6.
dscp dscp-value: Sets DSCP priority, ranging from 0 to 63. You can also enter the
keywords listed in Table 1-2.
ip-precedence { pre-value | from-cos }: Sets IP precedence. pre-value
ranges from 0 to 7. You can also enter the keywords listed in Table 1-1. from-cos means to set IP precedence of the packet to be the same as the 802.1p priority.
cos { pre-value
| from-ipprec }: Sets 802.1p priority. The pre-value argument
ranges from 0 to 7. You can also enter the keywords list in Table 1-7. from-ipprec means to set 802.1p priority of the packet to be the same as the IP precedence.
Table 1-7 Description
on 802.1p priority values
|
Keyword
|
CoS value (decimal)
|
CoS value (binary)
|
|
best-effort
|
0
|
000
|
|
background
|
1
|
001
|
|
spare
|
2
|
010
|
|
excellent-effort
|
3
|
011
|
|
controlled-load
|
4
|
100
|
|
video
|
5
|
101
|
|
voice
|
6
|
110
|
|
network-management
|
7
|
111
|
local-precedence pre-value: Sets local precedence. The pre-value
argument ranges from 0 to 7.
Description
Use the traffic-priority command to
apply ACLs in traffic classification and remark priority for the traffic
matching the ACLs. This command is effective only for the ACL rules whose
actions are permit.
Use the undo
traffic-priority command to remove the function of remarking priority for
the specified traffic.
The CoS precedence
and the local-precedence cannot be applied simultaneously on the switch.
Related command: display qos-interface
traffic-priority.
Example
# Remark the 802.1p priority of the packets
that are received on Ethernet1/0/1 and match the permit rule in ACL 4000 as 1.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] traffic-priority
inbound link-group 4000 cos 1
Syntax
traffic-redirect { inbound | outbound } acl-rule { cpu |
interface interface-type interface-number }
undo traffic-redirect { inbound | outbound } acl-rule
View
Ethernet port view
Parameter
inbound:
Performs traffic redirecting on the packets received by the interface.
outbound:
Performs traffic redirecting on the packets sent by the interface.
acl-rule:
Applied ACL rules which can be the combination of various ACL rules. For the
ways of combining ACLs and the description on related parameters, refer to Table 1-5 and Table 1-6.
cpu:
Redirects the traffic to the CPU.
interface interface-type interface-number:
Redirects the packets to the specified Ethernet port. The interface-type
argument refers to the port type.
Description
Use the traffic-redirect command to
activate the ACL to identify and redirect the traffic (whose action is permit).
Use the undo traffic-redirect
command to cancel the redirection.
Related command: display qos-interface
traffic-redirect.
l
After the packets are redirected to CPU, they
cannot be forwarded normally.
l
If the traffic is redirected to a Combo port in
down state, the system automatically redirects the traffic to the port
corresponding to the Combo port in up state.
Example
# Redirect the packets that are received on
Ethernet1/0/1 and match the permit rule in ACL 2000 to Ethernet1/0/7.
<H3C> system-view
System View: return to User View with
Ctrl+Z.
[H3C] interface Ethernet 1/0/1
[H3C-Ethernet1/0/1] traffic-redirect
inbound ip-group 2000 interface Ethernet 1/0/7
Syntax
traffic-statistic inbound acl-rule
