Cisco ASR 1000 Route Processor 3 Installation and Configuration Guide

Checking Conditions Prior to System Startup
Powering Up the Cisco ASR 1000 Modular Platforms
Performing the Initial Configuration on the Router
Saving Your Router Configuration
Verifying the Initial Configuration
Powering Off the Cisco ASR 1000 Modular Platforms
Cisco ASR1000-RP3 Alarm Monitoring
- Reporting Functions

Configuring the Cisco ASR1000-RP3 Module

This chapter guides you through basic router configuration, which is sufficient for you to access the network. Describing complex configuration procedures are beyond the scope of this publication and can be found in the modular configuration and modular command reference publications. These are available in the Cisco IOS software configuration documentation set that corresponds to the software release installed on your Cisco hardware.

This chapter contains the following sections:

Checking Conditions Prior to System Startup

Ensure that all card slots and compartments are closed. Install blank faceplates on empty slots. Always have power supply slots filled. If you leave a power supply slot uncovered, then you risk exposure to hazardous voltages on the power pins on the midplane.

Warning Blank faceplates and cover panels serve three important functions: they prevent exposure to hazardous voltages and currents inside the chassis; they contain electromagnetic interference (EMI) that might disrupt other equipment; and they direct the flow of cooling air through the chassis. Do not operate the system unless all cards, faceplates, front covers, and rear covers are in place. Statement 1029

Note To view the boot sequence, you must have a console connection to the Cisco ASR 1000 Series Router before it powers up.

Ensure that the following conditions are addressed before starting up the router:

The network interface cable or the optional Fast Ethernet Management port cable is connected.
The chassis is securely mounted and grounded.
The power and interface cables are connected.
Your PC with terminal emulation program (hyperTerminal or equivalent) is connected to the console port, powered up, and is configured for 9600 baud, 8 data bits, 1 stop bit, no parity, with flow control set to none.
You have selected passwords for access control.
Captive installation screws are tight on all removable components.
The console terminal is turned on.
You have determined the IP addresses for the network interfaces.
The shared port adapter and the NIM is inserted in its slot, if applicable.
Empty card slots are filled with card blanks. This ensures proper air flow through the chassis and electromagnetic compatibility (EMC).

Powering Up the Cisco ASR 1000 Modular Platforms

Prerequisites

Before you power on, make sure that:

The power supply cord is plugged into the power supply inlet.
All cables are connected.
Your computer is powered up and connected.

You are now ready to power on the system for the first time. Follow these steps.

Step 1 Move the power switch to the ON position. Listen for the fans; you should immediately hear them in operation. Ensure that the power supply LED OK is green and the FAIL LED is not illuminated.

The front-panel indicator LEDs provide power, activity, and status information useful during bootup. For more detailed information about the LEDs, see “LEDs” section.

Step 2 Observe the initialization process. When the system boot is complete (the process takes a few seconds), the Cisco ASR 1000 Modular Platforms (Cisco ASR 1013, Cisco ASR 1006-X, and Cisco ASR 1009-X routers) begins to initialize.

The following is an example of what is displayed during the system boot process:

Example 5-1 Loading from ROMMON with a System Image in Bootflash

Initializing Hardware...

System integrity status: 9B710000 12030000 A0A00A05

System Bootstrap, Version 16.3(2r), RELEASE SOFTWARE (fc1)

Current image running: Boot ROM1

Last reset cause: LocalSoft

ASR1000-RP3 platform with 67108864 Kbytes of main memory

Warning: filesystem is not clean

File size is 0x2fa10c3c

Located asr1000rpx86-universalk9.BLD_V163_MR_THROTTLE_LATEST_20160817_000512.SSA.bin

Image size 799083580 inode num 15, bks cnt 195089 blk size 8*512

#################################################################################################################################################################################################################################################################################################################################################################################################

Performing the Initial Configuration on the Router

You can perform initial configuration on the router using the procedure described in the following sections:

Using the Cisco setup Command Facility

The setup command facility prompts you to enter the information that is needed to configure a router quickly. The facility takes you through an initial configuration, including LAN and WAN interfaces.

Note The setup command facility is entered automatically if there is no configuration on the router when it is booted into Cisco IOS-XE.

For information on modifying the configuration after you create it, see the Cisco IOS XE Configuration Guide and the Cisco IOS XE Command References.

This section explains how to configure a host name for the router, set passwords, and configure an interface to communicate with the management network.

Note If you make a mistake while using the setup command facility, you can exit and run the setup command facility again. Press Ctrl-C, and enter the setup command in privileged EXEC mode (Router#).

Step 1 From the Cisco IOS-XE CLI, enter the setup command in privileged EXEC mode:

Router> enable

Password: <password>

Router# setup

--- System Configuration Dialog ---

Continue with configuration dialog? [yes/no]:

The prompts in the setup command facility vary depending on your router model, on the installed interface modules, and on the software image. The following steps and the user entries (in bold) are shown as examples only.

Step 2 To proceed using the setup command facility, enter yes.

Continue with configuration dialog? [yes/no]:

At any point you may enter a question mark '?' for help.

Use ctrl-c to abort configuration dialog at any prompt.

Default settings are in square brackets '[]'.

Step 3 Enter yes to proceed with the basic management setup that configures only enough connectivity.

Would you like to enter basic management setup? [yes/no]: yes

Step 4 Enter a hostname for the router (“myrouter” in this example):

Configuring global parameters:

Enter host name [Router]: myrouter

Step 5 Enter an enable secret password. This password is encrypted (for more security) and cannot be seen when viewing the configuration.

The enable secret is a password used to protect access to

privileged EXEC and configuration modes. This password, after

entered, becomes encrypted in the configuration.

Enter enable secret: cisco

Step 6 Enter an enable password that is different from the enable secret password. This password is not encrypted (and is less secure) and can be seen when viewing the configuration.

The enable password is used when you do not specify an

enable secret password, with some older software versions, and

some boot images.

Enter enable password: cisco123

Step 7 Enter the virtual terminal password, which prevents unauthenticated access to the router through ports other than the console port:

The virtual terminal password is used to protect

access to the router over a network interface.

Enter virtual terminal password: cisco

Step 8 Respond to the following prompts as appropriate for your network:

Configure SNMP Network Management? [no]: yes

Community string [public]:

A summary of the available interfaces is displayed. The interface summary includes interface numbering, which is dependent on the router model and the installed modules and interface cards.

Current interface summary

Interface IP-Address OK? Method Status Protocol

Te0/0/0 20.1.1.1 YES NVRAM administratively down down

Te0/0/1 21.1.1.1 YES NVRAM administratively down down

GigabitEthernet0/0/0 11.1.1.1 YES NVRAM down down

GigabitEthernet0/0/1 12.1.1.1 YES NVRAM administratively down down

GigabitEthernet0/0/2 13.1.1.1 YES NVRAM administratively down down

GigabitEthernet0/0/3 14.1.1.1 YES NVRAM administratively down down

GigabitEthernet0/0/4 15.1.1.1 YES NVRAM administratively down down

GigabitEthernet0/0/5 200.1.1.1 YES NVRAM administratively down down

Te0/1/0 22.1.1.1 YES NVRAM administratively down down

GigabitEthernet0 2.1.12.233 YES NVRAM up up

Any interface listed with OK? value "NO" does not have a valid configuration

Step 9 Respond to the following prompts as appropriate for your network:

Configuring interface GigabitEthernet0/0/1:

Configure IP on this interface? [yes]: yes

IP address for this interface [10.10.10.12]:

Subnet mask for this interface [255.0.0.0] : 255.255.255.0

Class A network is 10.0.0.0, 24 subnet bits; mask is /24

The following configuration command script is created:

hostname myrouter

enable secret 5 $1$t/Dj$yAeGKviLLZNOBX0b9eifO0

enable password cisco123

line vty 0 4 password cisco snmp-server community public !

no ip routing

interface GigabitEthernet0/0/0

shutdown

no ip address

interface GigabitEthernet0/0/1

no shutdown

ip address 10.10.10.12 255.255.255.0

interface GigabitEthernet0/0/2

shutdown

no ip address

end

Step 10 Respond to the following prompts. Select [2] to save the initial configuration.

[0] Go to the IOS command prompt without saving this config.

[1] Return back to the setup without saving this config.

[2] Save this configuration to nvram and exit.

Enter your selection [2]: 2

Building configuration...

Use the enabled mode 'configure' command to modify this configuration.

Press RETURN to get started! RETURN

The following user prompt is displayed:

myrouter>

Completing the Configuration

When using the Cisco setup command facility, and after you have provided all the information requested by the facility as described in “Using the Cisco setup Command Facility” section, the final configuration appears. To complete your router configuration, follow these steps:

Step 1 The facility prompts you to save the configuration.

If you answer no, the configuration information you entered is not saved, and you return to the router enable prompt (Router#). Enter setup to return to the System Configuration dialog box.
If you answer yes, the configuration is saved, and you are returned to the user EXEC prompt (Router>).

Use this configuration? {yes/no} : yes

Building configuration...

Use the enabled mode 'configure' command to modify this configuration.

%LINK-3-UPDOWN: Interface GigabitEthernet0/1/0, changed state to up

%LINEPROTO-5-UPDOWN: Line protocol on Interface GigabitEthernet0/1/0, changed state to up

Step 2 When messages stop appearing on your screen, press Return to get the Router> prompt.

Step 3 The Router> prompt indicates that you are now at the command-line interface (CLI) and you have just completed an initial router configuration. Note that this is not a complete configuration. At this point, you have two choices:

Run the setup command facility again, and create another configuration:

Router> enable

Password: password

Router# setup

Modify the existing configuration or configure additional features by using the CLI:

Router> enable

Password: password

Router# configure terminal

Router(config)#

Using the Cisco IOS-XE CLI—Manual Configuration

This section shows you how to access the CLI to perform the initial configuration on the router.

If the system configuration message does not appear, it means a default configuration file was installed on the router prior to shipping. Follow these steps to configure the router.

Step 1 Enter no when the following system message appears on the router:

--- System Configuration Dialog ---

Would you like to enter the initial configuration dialog? [yes/no]: no

Step 2 Press Return and continue with the manual configuration:

Several log messages are displayed.

Step 3 Press Return to bring up the Router> prompt.

Step 4 Type enable to enter privileged EXEC mode:

Router> enable

Router#

Configuring the Router Hostname

The hostname is used in CLI prompts and default configuration filenames. If you do not configure the router hostname, the router uses the factory-assigned default hostname Router.

SUMMARY STEPS

1. enable

2. configure terminal

3. hostname name

4. end

DETAILED STEPS

	Command or Action	Purpose
Step 1	enable Router> enable	Enables privileged EXEC mode. Enter your password if prompted.
Step 2	configure terminal Router# configure terminal	Enters global configuration mode.
Step 3	hostname name Router(config)# hostname myrouter	Specifies or modifies the hostname for the network server.
Step 4	end myrouter# end	(Optional) Returns to privileged EXEC mode.

Configuring the Enable and Enable Secret Passwords

To provide an additional layer of security, particularly for passwords that cross the network or are stored on a TFTP server, you can use either the enable password command or enable secret command. Both commands accomplish the same thing—they allow you to establish an encrypted password that users must enter to access privileged EXEC (enable) mode.

We recommend that you use the enable secret command because it uses an improved encryption algorithm.

For more information, see the “Configuring Passwords and Privileges” chapter in the Cisco IOS Security Configuration Guide. Also see the Cisco IOS Password Encryption Facts tech note and the Improving Security on Cisco Routers tech note.

Restrictions

If you configure the enable secret command, it takes precedence over the enable password command; the two commands cannot be in effect simultaneously.

SUMMARY STEPS

1. enable

2. configure terminal

3. enable secret password

4. end

5. enable

6. end

DETAILED STEPS

	Command or Action	Purpose
Step 1	enable Router> enable	Enables privileged EXEC mode. Enter your password if prompted.
Step 2	configure terminal Router# configure terminal	Enters global configuration mode.
Step 3	enable secret password Router(config)# enable secret greentree	Specifies an additional layer of security over the enable password command.
Step 4	end Router(config)# end	Returns to privileged EXEC mode.
Step 5	enable Router> enable	Enables privileged EXEC mode. Verify that your new enable or enable secret password works.
Step 6	end Router(config)# end	(Optional) Returns to privileged EXEC mode.

Configuring the Console Idle Privileged EXEC Timeout

This section describes how to configure the console line’s idle privileged EXEC timeout. By default, the privileged EXEC command interpreter waits 10 minutes to detect user input before timing out.

When you configure the console line, you can also set communication parameters, specify autobaud connections, and configure terminal operating parameters for the terminal that you are using. For more information on configuring the console line, see the Cisco IOS Configuration Fundamentals and Network Management Configuration Guide. In particular, see the “Configuring Operating Characteristics for Terminals” and “Troubleshooting and Fault Management” chapters.

SUMMARY STEPS

1. enable

2. configure terminal

3. line console 0

4. exec-timeout minutes [ seconds ]

5. end

6. show running-config

DETAILED STEPS

	Command or Action	Purpose
Step 1	enable Router> enable	Enables privileged EXEC mode. Enter your password if prompted.
Step 2	configure terminal Router# configure terminal	Enters global configuration mode.
Step 3	line console 0 Router(config)# line console 0	Configures the console line and starts the line configuration command collection mode.
Step 4	exec-timeout minutes [ seconds ] Router(config-line)# exec-timeout 0 0	Sets the idle privileged EXEC timeout, which is the interval that the privileged EXEC command interpreter waits until user input is detected. The example shows how to specify no timeout. Setting the exec-timeout value to 0 will cause the router to never log out after it is logged in. This could have security implications if you leave the console without manually logging out using the disable command.
Step 5	end Router(config)# end	Returns to privileged EXEC mode.
Step 6	show running-config Router# show running-config	Displays the running configuration file. Verify that you have configured the idle privileged EXEC timeout correctly.

Examples

The following example shows how to set the console idle privileged EXEC timeout to 2 minutes 30 seconds:

line console

exec-timeout 2 30

The following example shows how to set the console idle privileged EXEC timeout to 30 seconds:

line console

exec-timeout 0 30

Gigabit Ethernet Management Interface Overview

The router provides an Ethernet management port named GigabitEthernet0.

The purpose of this interface is to allow users to perform management tasks on the router; it is an interface that should not, and often cannot, forward network traffic. It can, however, be used to access the router through Telnet and SSH to perform management tasks on the router. The interface is useful before a router has begun routing, or in troubleshooting scenarios when other forwarding interfaces are inactive.

The following aspects of the management Ethernet interface should be noted:

The router has one management Ethernet interface named GigabitEthernet0.
IPv4, IPv6, and ARP are the only routed protocols supported for the interface.
The interface provides a way to access the router even if forwarding interfaces are not functional, or the Cisco IOS is down.
The management Ethernet interface is part of its own VRF. See the Cisco ASR 1000 Series Aggregation Services Routers Software Configuration Guide for more details.

Default Gigabit Ethernet Configuration

By default, a forwarding VRF is configured for the interface with a special group named Mgmt-intf. This cannot be changed. This isolates the traffic on the management interface away from the forwarding plane. Otherwise, the interface can be configured like other Gigabit Ethernet interfaces for most functions.

For example, the default configuration is as follows:

interface GigabitEthernet0

vrf forwarding Mgmt-intf

ip address 172.18.77.212 255.255.255.240

negotiation auto

Configuring Gigabit Ethernet Interfaces

This sections shows how to assign an IP address and interface description to an Ethernet interface on your router.

For comprehensive configuration information on Gigabit Ethernet interfaces, see the “Configuring LAN Interfaces” chapter of the Cisco IOS Interface and Hardware Component Configuration Guide.

For information on interface numbering, see the software configuration guide pertaining to your router.

SUMMARY STEPS

1. enable

2. show ip interface brief

3. configure terminal

4. interface gigabitethernet 0

5. ip address ip-address mask

6. no shutdown

7. end

8. show ip interface brief

DETAILED STEPS

	Command or Action	Purpose
Step 1	enable Router> enable	Enables privileged EXEC mode. Enter your password if prompted.
Step 2	show ip interface brief Router# show ip interface brief	Displays a brief status of the interfaces that are configured for IP and the type of Ethernet interface that is on your router.
Step 3	configure terminal Router# configure terminal	Enters global configuration mode.
Step 4	interface gigabitethernet 0 Router(config)# interface gigabitethernet 0	Specifies the Ethernet interface and enters interface configuration mode.
Step 5	ip address ip-address mask Router(config-if)# ip address 172.16.74.3 255.255.255.0	Sets a primary IP address for an interface.
Step 6	no shutdown Router(config-if)# no shutdown	Enables an interface.
Step 7	end Router(config)# end	Returns to privileged EXEC mode.
Step 8	show ip interface brief Router# show ip interface brief	Displays a brief status of the interfaces that are configured for IP. Verify that the interfaces are up and configured correctly.

Note For comprehensive configuration information about IP routing and IP routing protocols, see the Configuring IP Routing Protocol-Independent Feature on Cisco.com.

Saving Your Router Configuration

This section describes how to avoid losing your configuration at the next system reload or power cycle by saving the running configuration to the startup configuration in NVRAM. The NVRAM provides 32 MB of storage on the router.

SUMMARY STEPS

1. enable

2. copy running-config startup-config

DETAILED STEPS

Command or Action

Purpose

Step 1

enable

Router> enable

Enables privileged EXEC mode.

Enter your password if prompted.

Step 2

copy running-config startup-config

Router# copy running-config startup-config

Saves the running configuration to the startup configuration.

Note To aid file recovery and minimize downtime in case of file corruption, we recommend that you save backup copies of the startup configuration file and the Cisco IOS-XE software system image file on a server.

Note To avoid losing work you have completed, be sure to save your configuration occasionally as you proceed. Use the copy running-config startup-config command to save the configuration to NVRAM.

Verifying the Initial Configuration

Enter the following commands in Cisco IOS-XE to verify the initial configuration on the router:

show version —Displays the system hardware version, the installed software version, the names and sources of configuration files, the boot images, and the amount of installed DRAM, NVRAM, and flash memory.
show diag —Lists and displays diagnostic information about the installed controllers, interface processors, and port adapters.
show configuration —Helps verify if you have configured the correct hostname and password.

After you have completed and verified the initial configuration, the specific features and functions are ready to be configured. See the Cisco ASR 1000 Series Aggregation Services Routers Software Configuration Guide .

Powering Off the Cisco ASR 1000 Modular Platforms

This section explains how to shut down the Cisco ASR 1000 Modular Platforms (Cisco ASR 1013, Cisco ASR 1006-X, and Cisco ASR 1009-X routers). We recommend that before turning off all power to the chassis, you issue the reload command. This ensures that the operating system cleans up all the file systems.

To remove power from the Cisco ASR 1000 Modular Platforms safely, follow this procedure:

Step 1 Slip on the ESD-preventive wrist strap included in the accessory kit.

Step 2 Enter the reload command.

Step 3 Confirm the reload command:

Router# reload

Proceed with reload? [confirm]

Apr 21 03:42:45.619 EDT: %SYS-5-RELOAD: Reload requested by console. Reload Reason: Reload Command.Apr 21 03:42:59.920 R0/0: %PMAN-5-EXITACTION: Process manager is exiting: process exit with reload chassis code

Step 4 After confirming the reload command, wait until the system bootstrap message is displayed before powering off the system:

System Bootstrap, Version 16.3(2r), RELEASE SOFTWARE (fc1)

Current image running: Boot ROM1

Last reset cause: LocalSoft

ASR1000-RP3 platform with 67108864 Kbytes of main memory

Step 5 Place the Standby switch in the Standby position.

Note The fans in the power supply modules continue to run even if the Standby switch is in the Standby position.

Note After powering off the router, wait for a minimum of 30 seconds before powering it on again.

Cisco ASR1000-RP3 Alarm Monitoring

The Cisco ASR1000-RP3 faceplate displays the CRIT, MAJ, and MIN alarm indicator LEDs. An external element can be connected to a power supply using the DB-25 alarm connector on the power supply. The external element is a DC light bulb for a visual alarm and a bell for an audible alarm.

If an alarm illuminates the CRIT, MIN, or MAJ LED on the Cisco ASR 1000 Series Route Processor (RP) faceplate, and a visual or audible alarm is wired, the alarm also activates an alarm relay in the power supply DB-25 connector (on the Cisco ASR 1006 Router and Cisco ASR 1004 Router). The bell rings or the light bulb flashes and alerts site personnel that a router alarm condition exists.

Note Shielded cables must be used to connect to the DB-25 alarm connector on both the AC and DC power supplies, in order to comply with the FCC/EN55022/CISPR22 Class A emissions requirements.

The alarm signals sent to this DB-25 connector are identical in function to those sent to the system LEDs on the Cisco ASR1000-RP1, Cisco ASR1000-RP2, and Cisco ASR1000-RP3. Each alarm consists of three contact pins that are switched when an alarm becomes active, which causes a corresponding contact closure between the DB-25 connector pins. As a result, a critical, major, or minor alarm condition detected in the router can trigger a simultaneous fault indication in some of the following ways:

System alarm LEDs—The three system alarm LEDs on the Cisco ASR1000-RP3 faceplate constitute the standard method of alarm notification in the router. These LEDs indicate router status at all times, but you must directly observe these LEDs to become aware of a router alarm condition See Cisco ASR 1000 Series Route Processor LEDs for LED descriptions.
External alarm monitoring facility—By equipping your router with a telco-style external alarm monitoring facility, you can provide a more physical indication of router status. A visual alarm, however, can be reset only by resolving the problem that caused the alarm condition.

An external audible alarm can be reset by clearing the condition that caused the alarm or by pressing the Audible Cutoff (ACO) button on the Cisco ASR1000-RP3 module. An audible alarm can be sounded to immediately alert you to an alarm condition in the router. An audible alarm generated by the system continues to sound until you either press the ACO button to silence the alarm or clear the alarm condition itself. Pressing this button does not resolve the alarm condition.

To clear an audible alarm, do one of the following:

– Press the Audible Cut Off button on the route processor faceplate (see Figure 2-1: Cisco ASR1000-RP Route Processor Faceplate LEDs and Connectors)

– Enter the clear facility-alarm command.

To clear a visual alarm, you must resolve the alarm condition. The clear facility-alarm command does not clear an alarm LED on the RP faceplate or turn off the DC light bulb. For example, if a critical alarm LED is illuminated because an active SPA was removed without a graceful deactivation of the SPA, the only way to resolve that alarm is to replace the SPA.

Reporting Functions

The chassis manager on the forwarding engine control processor manages the local resources of the forwarding processor. The Cisco ASR 1000 Modular Platforms (Cisco ASR 1013, Cisco ASR 1006-X, and Cisco ASR 1009-X routers) display warning messages on the console if the chassis interface-monitored parameters exceed a threshold. You can also retrieve and display environmental status reports with the following commands:

show environment all
show version
show inventory
show platform
show platform software status control-processor
show diag

Parameters are measured and reporting functions are updated every 60 seconds. A brief description of each of these commands follows.

The show environment all command displays temperature, voltage, fan, and power supply information.

The following is sample output from the show environment all command.

Example 5-2 show environment all Command

Router# show environment all

Sensor List: Environmental Monitoring

Sensor Location State Reading

V1: VMA F0 Normal 1796 mV

V1: VMB F0 Normal 1201 mV

V1: VMC F0 Normal 996 mV

V1: VMD F0 Normal 1049 mV

V1: VME F0 Normal 1049 mV

V1: VMF F0 Normal 1098 mV

V1: 12v F0 Normal 11879 mV

V1: VDD F0 Normal 3286 mV

V1: GP1 F0 Normal 900 mV

V1: GP2 F0 Normal 766 mV

V2: VMA F0 Normal 3291 mV

V2: VMB F0 Normal 2495 mV

V2: VMC F0 Normal 1499 mV

V2: VMD F0 Normal 1196 mV

V2: VME F0 Normal 1098 mV

V2: VMF F0 Normal 996 mV

V2: 12v F0 Normal 11835 mV

V2: VDD F0 Normal 3291 mV

V2: GP1 F0 Normal 766 mV

V2: GP2 F0 Normal 1098 mV

Temp: Inlet F0 Normal 23 Celsius

Temp: Pop Die F0 Normal 40 Celsius

Temp: Left Ext F0 Normal 33 Celsius

Temp: HKP Die F0 Normal 44 Celsius

Temp: CPP Rear F0 Normal 39 Celsius

Temp: Olv Die F0 Normal 32 Celsius

Temp: Rght Ext F0 Normal 32 Celsius

Temp: MCH Die F0 Normal 47 Celsius

V3: VMA F0 Normal 3291 mV

V3: VMB F0 Normal 2490 mV

V3: VMC F0 Normal 1499 mV

V3: VMD F0 Normal 1000 mV

V3: 12v F0 Normal 11865 mV

V3: VDD F0 Normal 3291 mV

V1: VMA F1 Normal 1796 mV

V1: VMB F1 Normal 1196 mV

V1: VMC F1 Normal 996 mV

V1: VMD F1 Normal 1044 mV

V1: VME F1 Normal 1035 mV

V1: VMF F1 Normal 1098 mV

V1: 12v F1 Normal 11879 mV

V1: VDD F1 Normal 3271 mV

V1: GP1 F1 Normal 905 mV

V1: GP2 F1 Normal 766 mV

V2: VMA F1 Normal 3295 mV

V2: VMB F1 Normal 2495 mV

V2: VMC F1 Normal 1499 mV

V2: VMD F1 Normal 1201 mV

V2: VME F1 Normal 1098 mV

V2: VMF F1 Normal 996 mV

V2: 12v F1 Normal 11835 mV

V2: VDD F1 Normal 3276 mV

V2: GP1 F1 Normal 769 mV

V2: GP2 F1 Normal 1098 mV

Temp: Inlet F1 Normal 24 Celsius

Temp: Pop Die F1 Normal 44 Celsius

Temp: Left Ext F1 Normal 31 Celsius

Temp: HKP Die F1 Normal 49 Celsius

Temp: CPP Rear F1 Normal 43 Celsius

Temp: Olv Die F1 Normal 36 Celsius

Temp: Rght Ext F1 Normal 32 Celsius

Temp: MCH Die F1 Normal 50 Celsius

V3: VMA F1 Normal 3291 mV

V3: VMB F1 Normal 2495 mV

V3: VMC F1 Normal 1499 mV

V3: VMD F1 Normal 1000 mV

V3: 12v F1 Normal 11865 mV

V3: VDD F1 Normal 3286 mV

PEM Iout P0 Normal 21 A

PEM Vout P0 Normal 0 V DC

PEM Vin P0 Normal 225 V AC

Temp: Temp1 P0 Normal 14 Celsius

Temp: Temp2 P0 Normal 26 Celsius

Temp: Temp3 P0 Normal 0 Celsius

PEM Iout P1 Normal 22 A

PEM Vout P1 Normal 0 V DC

PEM Vin P1 Normal 225 V AC

Temp: Temp1 P1 Normal 14 Celsius

Temp: Temp2 P1 Normal 27 Celsius

Temp: Temp3 P1 Normal 0 Celsius

PEM Iout P2 Normal 1 A

PEM Vout P2 Normal 0 V DC

PEM Vin P2 Normal 0 V AC

Temp: Temp1 P2 Normal 0 Celsius

Temp: Temp2 P2 Normal 16 Celsius

Temp: Temp3 P2 Normal 0 Celsius

PEM Iout P3 Normal 1 A

PEM Vout P3 Normal 0 V DC

PEM Vin P3 Normal 0 V AC

Temp: Temp1 P3 Normal 0 Celsius

Temp: Temp2 P3 Normal 16 Celsius

Temp: Temp3 P3 Normal 0 Celsius

PEM Iout P4 Normal 1 A

PEM Vout P4 Normal 0 V DC

PEM Vin P4 Normal 0 V AC

Temp: Temp1 P4 Normal 0 Celsius

Temp: Temp2 P4 Normal 16 Celsius

Temp: Temp3 P4 Normal 0 Celsius

PEM Iout P5 Normal 1 A

PEM Vout P5 Normal 0 V DC

PEM Vin P5 Normal 0 V AC

Temp: Temp1 P5 Normal 0 Celsius

Temp: Temp2 P5 Normal 16 Celsius

Temp: Temp3 P5 Normal 0 Celsius

Temp1 P6 Normal 26 Celsius

Temp: FC PWM1 P6 Fan Speed 45% 24 Celsius

Temp1 P7 Normal 22 Celsius

Temp: FC PWM1 P7 Fan Speed 45% 24 Celsius

VVM 0: VX1 R0 Normal 607 mV

VVM 0: VX2 R0 Normal 1212 mV

VVM 0: VX3 R0 Normal 1207 mV

VVM 0: VX4 R0 Normal 994 mV

VVM 0: VP1 R0 Normal 3305 mV

VVM 0: VP2 R0 Normal 3312 mV

VVM 0: VP3 R0 Normal 5024 mV

VVM 0: VP4 R0 Normal 1506 mV

VVM 0: VH R0 Normal 12003 mV

VVM 1: VX3 R0 Normal 1050 mV

VVM 1: VP1 R0 Normal 1696 mV

VVM 1: VP2 R0 Normal 1815 mV

VVM 1: VP3 R0 Normal 2511 mV

VVM 1: VP4 R0 Normal 3285 mV

VVM 1: VH R0 Normal 12013 mV

VVM 2: VX1 R0 Normal 992 mV

VVM 2: VP1 R0 Normal 1199 mV

VVM 2: VP2 R0 Normal 1809 mV

VVM 2: VH R0 Normal 11998 mV

Temp: CPU-IN R0 Normal 24 Celsius

Temp: Outlet R0 Normal 28 Celsius

Temp: Center R0 Normal 15 Celsius

Temp: Inlet R0 Normal 27 Celsius

Temp: DDR4 In R0 Normal 24 Celsius

Temp: DDR4 Out R0 Normal 20 Celsius

V1: VMA 0 Normal 1103 mV

V1: VMB 0 Normal 1196 mV

V1: VMC 0 Normal 1499 mV

V1: VMD 0 Normal 1801 mV

V1: VME 0 Normal 2490 mV

V1: VMF 0 Normal 3291 mV

V1: 12v 0 Normal 11938 mV

V1: VDD 0 Normal 3281 mV

V1: GP1 0 Normal 749 mV

V1: GP2 0 Normal 903 mV

V2: VMB 0 Normal 1000 mV

V2: VME 0 Normal 751 mV

V2: VMF 0 Normal 751 mV

V2: 12v 0 Normal 11923 mV

V2: VDD 0 Normal 3286 mV

V2: GP2 0 Normal 749 mV

Temp: Left 0 Normal 23 Celsius

Temp: Center 0 Normal 23 Celsius

Temp: Asic1 0 Normal 31 Celsius

Temp: Right 0 Normal 20 Celsius

The show version command displays the system hardware configuration, software version, and names and sources of configuration files and boot images.

The following is sample output from the show version command:

Example 5-3 show version Command

Router# show version

Cisco IOS XE Software, Version BLD_V163_MR_THROTTLE_LATEST_20160817_000512

Cisco IOS Software [Denali], ASR1000 Software (X86_64_LINUX_IOSD-UNIVERSALK9-M), Experimental Version 16.3.20160817:001450 [v163_mr_throttle-BLD-BLD_V163_MR_THROTTLE_LATEST_20160817_000512 122]

Compiled Tue 16-Aug-16 18:16 by mcpre

licensed under the GNU General Public License ("GPL") Version 2.0. The

software code licensed under GPL Version 2.0 is free software that comes

with ABSOLUTELY NO WARRANTY. You can redistribute and/or modify such

GPL code under the terms of GPL Version 2.0. For more details, see the

documentation or "License Notice" file accompanying the IOS-XE software,

or the applicable URL provided on the flyer accompanying the IOS-XE

software.

ROM: IOS-XE ROMMON

RP3 uptime is 9 minutes

Uptime for this control processor is 11 minutes

System returned to ROM by reload

System image file is "bootflash:asr1000rpx86-universalk9.BLD_V163_MR_THROTTLE_LATEST_20160817_000512.SSA.bin"

Last reload reason: Reload Command

This product contains cryptographic features and is subject to United

States and local country laws governing import, export, transfer and

use. Delivery of Cisco cryptographic products does not imply

third-party authority to import, export, distribute or use encryption.

Importers, exporters, distributors and users are responsible for

compliance with U.S. and local country laws. By using this product you

agree to comply with applicable laws and regulations. If you are unable

to comply with U.S. and local laws, return this product immediately.

A summary of U.S. laws governing Cisco cryptographic products may be found at:

http://www.cisco.com/wwl/export/crypto/tool/stqrg.html

If you require further assistance please contact us by sending email to

export@cisco.com.

License Type: Default. No valid license found.

License Level: ipbase

Next reload license Level: ipbase

Cisco ASR1006-X (RP3) processor (revision RP3) with 14994684K/24590K bytes of memory.

Processor board ID FXS1829Q0LR

5 Gigabit Ethernet interfaces

3 Ten Gigabit Ethernet interfaces

32768K bytes of non-volatile configuration memory.

67108864K bytes of physical memory.

7600127K bytes of eUSB flash at bootflash:.

97620247K bytes of SATA hard disk at harddisk:.

0K bytes of at webui:.

Configuration register is 0x2102

The sh ow inventory command displays an extended report that includes the product inventory listing of all the Cisco products installed in the networking device.

The following is sample output from the show inventory command:

Example 5-4 show inventory Command

Router# show inventory

NAME: "Chassis", DESCR: "Cisco ASR1006-X Chassis"

PID: ASR1006-X, VID: V00, SN: FXS1829Q0LR

NAME: "module 0", DESCR: "Cisco ASR1000 SPA Interface Processor 40"

PID: ASR1000-SIP40, VID: V01, SN: JAE160804PL

NAME: "SPA subslot 0/0", DESCR: "1-port 10 Gigabit Ethernet Shared Port Adapter XFP based"

PID: SPA-1X10GE-L-V2, VID: V02, SN: JAE145207F5

NAME: "SPA subslot 0/1", DESCR: "1-port 10 Gigabit Ethernet Shared Port Adapter XFP based"

PID: SPA-1X10GE-L-V2, VID: V02, SN: JAE1431137E

NAME: "SPA subslot 0/2", DESCR: "5-port Gigabit Ethernet Shared Port Adapter"

PID: SPA-5X1GE-V2, VID: V02, SN: JAE1326D4V5

NAME: "subslot 0/2 transceiver 0", DESCR: "GE T"

PID: SP7041-E, VID: E, SN: MTC161204FS

NAME: "SPA subslot 0/3", DESCR: "1-port 10 Gigabit Ethernet Shared Port Adapter XFP based"

PID: SPA-1X10GE-L-V2, VID: V02, SN: JAE13062NZM

NAME: "module R0", DESCR: "Cisco ASR1000 Route Processor 3"

PID: ASR1000-RP3, VID: V00, SN: JAE201902DX

NAME: "module F0", DESCR: "Cisco ASR1000 Embedded Services Processor, 40Gbps"

PID: ASR1000-ESP40, VID: V01, SN: JAE144909W4

NAME: "module F1", DESCR: "Cisco ASR1000 Embedded Services Processor, 40Gbps"

PID: ASR1000-ESP40, VID: V01, SN: JAE15270531

NAME: "Power Supply Module 0", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART181112ES

NAME: "Power Supply Module 1", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART181112DB

NAME: "Power Supply Module 2", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART181410EM

NAME: "Power Supply Module 3", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART181112BM

NAME: "Power Supply Module 4", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART181112CD

NAME: "Power Supply Module 5", DESCR: "Cisco 750 Watt AC power supply"

PID: ASR1000X-AC-750W, VID: V00, SN: ART1814103R

NAME: "Fan Tray 0", DESCR: "Cisco ASR1000X FAN Module"

PID: ASR1000X-FAN, VID: V00, SN: FXS182600QY

NAME: "Fan Tray 1", DESCR: "Cisco ASR1000X FAN Module"

PID: ASR1000X-FAN, VID: V00, SN: FXS182600NN

The sh ow platform command displays platform information.

The following is sample output from the show platform command:

Example 5-5 show platform Command

Router# show platform

Chassis type: ASR1006-X

Slot Type State Insert time (ago)

--------- ------------------- --------------------- -----------------

0 ASR1000-SIP40 ok 00:10:54

0/0 SPA-1X10GE-L-V2 ok 00:09:12

0/1 SPA-1X10GE-L-V2 ok 00:09:07

0/2 SPA-5X1GE-V2 ok 00:08:57

0/3 SPA-1X10GE-L-V2 ok 00:08:53

R0 ASR1000-RP3 ok, active 00:10:54

F0 ASR1000-ESP40 ok, active 00:10:54

F1 ASR1000-ESP40 ok, standby 00:10:54

P0 ASR1000X-AC-750W ok 00:09:53

P1 ASR1000X-AC-750W ok 00:09:51

P2 ASR1000X-AC-750W ps, fail 00:09:52

P3 ASR1000X-AC-750W ps, fail 00:09:52

P4 ASR1000X-AC-750W ps, fail 00:09:51

P5 ASR1000X-AC-750W ps, fail 00:09:51

P6 ASR1000X-FAN ok 00:09:47

P7 ASR1000X-FAN ok 00:09:46

Slot CPLD Version Firmware Version

--------- ------------------- ---------------------------------------

0 00200800 12.2(20151201:221942) [gschnorr-rele...

R0 16081518 16.3(2r)

F0 1003190E 16.3(2r)

F1 1003190E 16.3(2r)

The show platform software status control-processor command displays the average load, memory usage, and CPU utilization levels at which the router is running. The output also specifies whether the levels of these system health parameters are within defined thresholds.

Note The output does not display SIP-related information on a monolithic router.

The following is sample output from the show platform software status control-processor command:

Example 5-6 show platform software status control-processor Command

Router# show platform software status control-processor

RP0: online, statistics updated 1 seconds ago

Load Average: healthy

1-Min: 0.00, status: healthy, under 8.00

5-Min: 0.03, status: healthy, under 8.00

15-Min: 0.07, status: healthy, under 10.00

Memory (kb): healthy

Total: 8092776

Used: 3491556 (43%)

Free: 4601220 (57%)

Committed: 3566404 (44%), status: healthy, under 95%

Per-core Statistics

CPU0: CPU Utilization (percentage of time spent)

User: 0.00, System: 0.00, Nice: 0.00, Idle:100.00