- Table of Contents
-
- H3C S9500 Operation Manual-Release2132[V2.03]-08 System Volume
- 00-1Cover
- 01-GR Configuration
- 02-VRRP Configuration
- 03-HA Configuration
- 04-Device Management Configuration
- 05-NQA Configuration
- 06-NetStream Configuration
- 07-NTP Configuration
- 08-RMON Configuration
- 09-SNMP Configuration
- 10-File System Management Configuration
- 11-System Maintaining and Debugging Configuration
- 12-Basic System Configuration
- 13-Information Center Configuration
- 14-User Interface Configuration
- 15-MAC Address Table Management Configuration
- 16-PoE Configuration
- 17-Clock Monitoring Configuration
- Related Documents
-
Title | Size | Download |
---|---|---|
04-Device Management Configuration | 77.13 KB |
1.1 Device Management Overview.
1.2 Configuring Device Management
1.2.2 Specifying a Boot ROM File for the Next Device Boot
1.2.4 Configuring a Detection Interval
1.2.5 Configuring Temperature Alarm Thresholds for a Board
1.2.6 Configuring the Load Mode for the Active Main Board and Standby Main Board
1.2.7 Clearing the 16-bit Interface Indexes Not Used in the Current System
1.3 Displaying and Maintaining Device Management Configuration
1.4 Device Management Configuration Example (Remote Upgrade)
Chapter 1 Device Management
& Note:
File names in this document comply with the following rules:
l Path + file name (namely, a full file name): File on a specified path. A full file name consists of 1 to 135 characters.
l “File name” (namely, only a file name without a path): File on the current working path. The file name without a path consists of 1 to 91 characters.
When configuring device management, go to these sections for information you are interested in:
l Configuring Device Management
l Displaying and Maintaining Device Management Configuration
l Device Management Configuration Example
1.1 Device Management Overview
Through the device management function, you can view the current working state of a device, configure running parameters, and perform daily device maintenance and management.
Currently, the following device management functions are available:
l Rebooting a device
l Rebooting a device at a specified time
l Specifying a Boot ROM file for the next device reboot
l Upgrading a Boot ROM file
l Configuring temperature alarm thresholds for a board
l Clearing the 16-bit Interface Indexes Not Used in the Current System
1.2 Configuring Device Management
1.2.1 Rebooting a Device
In some cases, you need to reboot the device; for example, after upgrading the Boot ROM, you can reboot the device to make it take effect. This operation is equal to powering on the device after powering it off. It is mainly used to reboot a device in remote maintenance, without performing hardware reboot of the device. You can set a time at which the device can automatically reboot. You can also set a delay so that the device can automatically reboot in the delay.
Follow these steps to reboot a device:
To do… |
Use the command… |
Remarks |
Reboot a board or the whole system |
reboot [ slot slot-number ] |
Optional Available in user view. |
Enable the scheduled reboot function and specify a specific reboot time and date |
schedule reboot at hh:mm [ date ] |
Optional The scheduled reboot function is disabled by default. Available in user view. |
Enable the scheduled reboot function and specify a reboot waiting time |
schedule reboot delay { hh:mm | mm } |
Caution:
l The precision of the rebooting timer is 1 minute. One minute before the rebooting time, the device will prompt a specific reboot time and date and will reboot one minute after this reboot time.
l The execution of the schedule reboot at, and schedule reboot delay commands can reboot a device. As a result, the ongoing services will be interrupted. Be careful to use these commands.
l The execution of the reboot command may reboot the whole system, resulting in the interruption of the ongoing services. Be careful to use the command. For the details of the reboot command, refer to Device Management Commands.
l If a primary boot file fails or does not exist, the device cannot be rebooted with this command. In this case, you can re-specify a primary boot file to reboot the device, or you can power off the device then power it on and the system automatically uses the secondary boot file to restart the device.
l If you are performing file operations when the device is to be rebooted, the system removes the reboot operation for the sake of security.
1.2.2 Specifying a Boot ROM File for the Next Device Boot
A Boot ROM file is an application file used to boot the device. When multiple Boot ROM files are available on the storage device, you can specify a file for the next device boot by executing the following command.
Follow these steps to specify a file for the next device boot:
To do… |
Use the command… |
Remarks |
Specify a Boot ROM file on a board |
boot-loader file file-url slot slot-number { main | backup } |
Required Available in user view. |
Caution:
The file for the next device boot must be saved under the root directory of the device (for a device supporting storage device partition, the file must be saved on the first partition). You can copy or move a file to change the path of it to the root directory.
1.2.3 Upgrading Boot ROM
During the operation of the device, you can use Boot ROM in the storage device to upgrade those that are running on the device.
Follow these steps to upgrade Boot ROM:
To do… |
Use the command… |
Remarks |
Upgrade the Boot ROM program on a board(s) |
bootrom update file file-url slot slot-number-list |
Required Available in user view |
& Note:
Restart the device to validate the upgraded Boot ROM.
1.2.4 Configuring a Detection Interval
When detecting an exception on a port, the operation, administration and maintenance (OAM) module will automatically shut down the port. The device will detect the status of the port when a detection interval elapses. If the port is still shut down, the device will recover it.
If you change the detection interval at t to T1, the interval from t to the time when the previous detection starts is T.
l If T1<T, the interface which is down will be brought up immediately at t;
l If T1>=T, the interface which is down will be brought up after T1-T time.
Follow these steps to configure a detection interval:
To do… |
Use the command… |
Remarks |
Enter system view |
system-view |
— |
Configure a detection interval |
shutdown-interval time |
Optional 30 seconds by default. |
1.2.5 Configuring Temperature Alarm Thresholds for a Board
You can set temperature alarm thresholds for a board by using the following command. When the temperature of a board exceeds the threshold, the device will generate alarm signals.
Follow these steps to configure temperature alarm thresholds for a board:
To do… |
Use the command… |
Remarks |
Enter system view |
system-view |
— |
Configure temperature alarm thresholds for a board |
temperature-limit slot-number lower-value upper-value |
Optional The lower value is 10 and the upper level is 70 by default. |
1.2.6 Configuring the Load Mode for the Active Main Board and Standby Main Board
Two load modes are available between active main board (AMB) and standby main board (SMB) of a device: load sharing (BALANCE) and active/standby mode (SINGLE). You can use the xbar command to configure the load mode for a board.
Follow these steps to configure the load mode for the AMB and SMB:
To do… |
Use the command… |
Remarks |
Enter system view |
system-view |
— |
Configure the load mode for the AMB and SMB |
xbar { load-balance | load-single } |
Optional The AMB and SMB work in the active/standby mode by default. |
Caution:
Only when both the AMB and the SMB are in the slot can the load sharing mode be valid; otherwise, even if the load sharing mode is configured the active board will automatically switch to the active/standby mode.
1.2.7 Clearing the 16-bit Interface Indexes Not Used in the Current System
In practical networks, the network management software requires the device to provide a uniform, stable 16-bit interface index. That is, a one-to-one relationship should be kept between the interface name and the interface index in the same device.
For the purpose of the stability of an interface index, the system will save the 16-bit interface index when a board or logical interface is removed.
If you repeatedly insert and remove different subboards or interface boards to create or delete a large amount of logical interface, the interface indexes will be used up, which will result in interface creation failures. To avoid such a case, you can clear all 16bit interface indexes saved but not used in the current system in user view.
After the above operation,
l For a re-created interface, the new interface index may not be consistent with the original one.
l For existing interfaces, their interface indexes remain unchanged.
Follow the step below to clear the 16bit interface indexes not used in the current system:
To do… |
Use the command… |
Remarks |
Clear the 16-bit interface indexes saved but not used in the current system |
reset unused porttag |
Required |
Caution:
1.3 Displaying and Maintaining Device Management Configuration
To do… |
Use the command… |
Remarks |
Display the Boot ROM file used for the next boot |
display boot-loader [ slot slot-number ] |
Available in any view |
Display the statistics of the CPU usage |
display cpu-usage [ number [ [ offset ] [ verbose ] [ slave | slot slot-number ] [ from-device ] ] | slave | slot slot-number ] |
Available in any view |
Display information about a specified device on the switch |
display device [ cf-card] [ [ shelf shelf-number ] [ frame frame-number ] [ slot slot-number [ subslot subslot-number ] ] | verbose ] |
Available in any view |
Display manufacture information of the device |
display device manuinfo [ slot slot-number ] |
Available in any view |
Display the temperature information of devices |
display environment |
Available in any view |
Display the operating state of fans in a device |
display fan [ fan-id ] |
Available in any view |
Display the usage of the memory of a device |
display memory [ slave | slot slot-number ] |
Available in any view |
Display the power state of a device |
display power [ power-id ] |
Available in any view |
Display the reboot time of a device |
display schedule reboot |
Available in any view |
Display the load mode of the current AMB and SMB |
display xbar |
Available in any view |
1.4 Device Management Configuration Example (Remote Upgrade)
I. Network requirements
l Switch A serves as the FTP Client. The aaa.app program and the boot.app program are both saved under the aaa directory of the FTP Server.
l The IP address of Vlan-interface 2 on Switch A is 1.1.1.1/24, the IP address of the FTP Server is 2.2.2.2/24, and the IP address of User is 3.3.3.3/24.
l A route exists between the FTP server, Switch A and User.
l User can log in to Switch A via Telnet to perform operations on Switch A (that is, download the application program from FTP Server and remotely upgrade Switch A through command lines).
II. Network diagram
Figure 1-1 Network diagram for remote upgrade
III. Configuration procedure
1) Configure the IP address of each device and a route between FTP server and Switch A, Switch A and User.
Configure the IP address of each device as shown in Figure 1-1.
Configure a route between FTP server and Switch A, Switch A and User. The configuration procedure is omitted here.
2) Configure the username and password on the FTP server.
# Set the FTP username to aaa and password to hello and configure the user to have access to the aaa directory. The configuration procedure is omitted here.
3) Telnet from User to Switch A.
Perform the operation as needed. The procedure is omitted.
4) Configuration on Switch A
Caution:
If the size of the Flash on the device is not large enough, delete the original application programs from the Flash before downloading.
# Enter the following command in user view to log in to FTP Server after telnetting to Switch A.
<Sysname> ftp 2.2.2.2
Trying ...
Press CTRL+K to abort
Connected.
220 WFTPD 2.0 service (by Texas Imperial Software) ready for new user
User(none): aaa
331 Give me your password, please
Password:
230 Logged in successfully
[ftp]
# Download the aaa.app and boot.app programs on FTP Server to the Flash of Switch A.
[ftp] get aaa.app
[ftp] get boot.app
# Terminate the FTP connection and return to user view.
[ftp] quit
<Sysname>
# Upgrade the Boot ROM file of the SRPU.
<Sysname> bootrom update file boot.app slot 0
# Specify the application program for the next boot on SRPU 0.
<Sysname> boot-loader file aaa.app slot 0 main
# Reboot the device. The application program is upgraded now.
<Sysname> reboot