|
|
This chapter describes how to install the processor card and includes the following sections:
![]() | Warning Before you install, operate, or service the system, read the Site Preparation and Safety Guide. This guide contains important safety information you should know before working with the system. |
This section describes how to install the processor card in the Catalyst 8540 MSR, Catalyst 8510 MSR, Catalyst 5500 switch, and LightStream 1010 ATM switch chassis. The process to install the processor card in the four chassis is essentially the same.
The Catalyst 8540 MSR is a 13-slot modular chassis. Slots 4 and 8 are reserved for the processor card. Slots 0 through 3 and 9 through 12 can contain up to eight full width interface modules or 16 half width port adapters. Slots 5 and 7 are reserved for the switch modules. Slot 6 remains empty. (See Figure 2-1.)
The Catalyst 8510 MSR and the LightStream 1010 ATM switch are five-slot modular chassis. Slot 2 is reserved for the processor card. The other four slots are used for carrier modules and port adapters. (See Figure 2-2.)
Five-Slot Chassis
To install the processor card, follow these steps:
Step 1 Turn off the system; but, to channel ESD voltages to ground, do not disconnect the power cable.
![]() | Caution Turn off the system before removing the processor card. Removing the processor card from the system while it operates shuts down ATM switching. However, the processor card is hot swappable in all chassis; that is, no hardware damage occurs if it is removed while the power is on. |
Step 2 Hold the processor card faceplate with one hand, and place your other hand under the carrier. Avoid touching the components on top of the card to prevent ESD damage.
Step 3 Align the processor card with the rails on the inside of the chassis.
(See Figure 2-3.)
Step 4 Carefully slide the processor card into slot 4 of the Catalyst 8540 MSR (or slot 2 of the Catalyst 8510 MSR and LightStream 1010, or slot 13 of the Catalyst 5500 switch) until the processor card stops and the release levers are protruding outward.
Step 5 Put your thumbs on the left and right release levers and simultaneously push inward on the levers to seat the processor card in the backplane connector.
Step 6 Use a flat-blade screwdriver to tighten the captive installation screws on the left and right sides of the processor card.
Step 7 Attach network interface cables or other devices to the interface ports.
Step 8 Turn on the system.
Installation of the processor card is now complete.
To check the installation, enter the show hardware privileged EXEC command to verify that the system has acknowledged and brought up the new interfaces.
The Catalyst 8540 MSR chassis supports fault tolerance by allowing a secondary route processor to take over if the primary processor card fails. This secondary, or redundant, processor card runs in standby mode. In standby mode, the secondary processor card is partially booted with the Cisco IOS software; however, no configuration is loaded.
To install a secondary processor card in the Catalyst 8540 MSR chassis, follow these steps:
Step 1 Hold the processor card faceplate with one hand, and place your other hand under the carrier. Avoid touching the components on top of the card to prevent ESD damage.
Step 2 Align the processor card with the rails on the inside of the chassis.
Step 3 Carefully slide the processor card into slot 8 until the processor card stops and the release levers are protruding outward. (See Figure 2-4.)
Step 4 Put your thumbs on the left and right release levers and simultaneously push inward on the levers to seat the processor card in the backplane connector.
Step 5 Use a flat-blade screwdriver to tighten the captive installation screws on the left and right sides of the processor card.
Step 6 Attach network interface cables or other devices to the interface ports.
Installation of the secondary processor card is now complete.
This section describes how to connect the processor card to a network.
Before connecting the processor card to a network, consider the following:
You need a straight-through Ethernet cable with RJ-45 male connectors (see Figure 2-5) for connection between the Ethernet port and an Ethernet network. Table B-1 lists the Ethernet cable connector pinouts.

The auxiliary port on the processor card is a male, EIA/TIA-232, DTE, DB-25 plug. You can attach a CSU/DSU or other device to access the system from the network. The asynchronous auxiliary port supports hardware flow control and modem control. The auxiliary port requires a null-modem EIA/TIA-232 cable. Table B-2 lists the signals used on this port.
The console port on the processor card is a female, EIA/TIA-232, DCE, DB-25 receptacle. Both data set ready (DSR) and data carrier detect (DCD) activate when the system is running. The Ready to Send (RTS) signal tracks the state of the Clear to Send (CTS) input. The console port does not support modem control or hardware flow control. The console port requires a straight-through EIA/TIA-232 cable. Table B-3 lists the signals used on this port.
Before connecting to the console port, determine the baud rate of your terminal, which must match the default baud rate (9600 baud) of the port you use. Set up the terminal as follows:
The processor card includes one EIA/TIA-232, data terminal equipment (DTE) auxiliary port and one EIA/TIA-232, data communications equipment (DCE) console port (see Figure 2-6). These ports provide access to the system either remotely (with a CSU/DSU or other DTE device) or locally (with a console terminal). This section describes important cabling information to consider before connecting a CSU/DSU to the auxiliary port or a console terminal (an ASCII terminal or PC running terminal emulation software) to the console port.
The auxiliary and console ports differ in that the auxiliary port supports hardware flow control and modem control, and the console port does not. Flow control paces the transmission of data between a sending device and a receiving device. Flow control ensures that the receiving device can absorb the data sent to it before the sending device sends more. When the buffers on the receiving device are full, the sending device receives a message to suspend transmission until the data in the buffers are processed. Because the auxiliary port supports flow control, it is ideally suited for use with the high-speed transmissions of a modem. Console terminals transmit at slower speeds than modems; therefore, the console port is ideally suited for use with console terminals.

EIA/TIA-232 supports unbalanced circuits at signal speeds up to 64 kbps. Figure 2-7 shows the connectors at the network end of the adapter cable for DCE and
DTE connections.

The processor card includes two Flash PC Card slots---slot 0 and slot 1---that accept 8-MB, 16-MB, or 20-MB Intel Series 2+ Flash memory cards. The Flash PC Card is used to store the system image, and can also be used to store software and microcode images for other systems.
To install and remove the Flash PC Card, follow these steps:
Step 1 Face the front panel of the processor card (see Figure 2-8) and hold the Flash PC Card with the connector end of the card toward the slot. The label on the Flash PC Card should face up (see Figure 2-8a).
Step 2 Insert the card into the appropriate slot until the card is completely seated in the connector at the back of the slot and the eject button pops out toward you (see Figure 2-8b). Note that the card does not insert all the way inside the processor card; a portion of the card remains outside of the slot. Do not attempt to force the card past this point.
Step 3 To eject the card, press the eject button corresponding to the slot until the card is free of the connector at the back of the slot. (See Figure 2-8c.)
Step 4 Remove the card from the slot and place it in an antistatic bag to protect it from ESD damage.
Installation and removal of the Flash PC Card is now complete.

This section describes the LEDs used to confirm and troubleshoot operation of the processor card. The LEDs on the processor card indicate the status of the processor card, the fan assembly, and the power supplies. The Catalyst 8540 MSR processor card LEDs are shown in Figure 2-9 and described in Table 2-1. The LEDs on the Catalyst 8510 MSR, Catalyst 5500 switch, and LightStream 1010 switch processor card are shown in Figure 2-10 and described in Table 2-2.
| LED | State | Description |
|---|---|---|
STATUS | Green | The system has passed internal self-tests and diagnostic tests. |
| Red | The system has failed internal self-tests and diagnostic tests. |
| Orange | The system is booting or a module is disabled. |
ACTIVE | Green | The system is operating. |
| Red | The system is not operating. |
STANDBY | Green | The system is in Standby mode. |
TX (Transmit) | Flashing green | Ethernet packets are being transmitted. The pulse rate increases with the data rate. |
RX (Receive) | Flashing green | Ethernet packets are being received. The pulse rate increases with the data rate. |
| Off | No signal is being received. |
LINK | Green | The Ethernet port is operational. |
| Off | No signal is detected on the Ethernet port. |
| LED | Color | Description |
|---|---|---|
Green | The system has passed internal self-tests and diagnostic tests. | |
| Red | The system has failed internal self-tests and diagnostic tests. |
| Orange | The system is booting or a module is disabled. |
Green | The fan is operational. | |
| Red | The fan is not operational. |
Green | The power supply is operational. | |
| Red | The power supply is installed but not operational. |
| Off | The power supply is not installed. |
Green | The power supply is operational. | |
| Red | The power supply is installed but not operational. |
| Off | The power supply is not installed. |
Flashing green | Ethernet packets are being received. The pulse rate increases with the data rate. | |
| Off | No signal is being received. |
Flashing green | Ethernet packets are being transmitted. The pulse rate increases with the data rate. | |
| Off | No signal is being transmitted. |
Green | The Ethernet port is operational. | |
| Off | No signal is detected on the Ethernet port. |
Problems with the initial startup are often caused by an interface processor card or power supply that has become dislodged from the backplane or chassis power connector during shipment. Although over-temperature conditions rarely occur at initial startup, the environmental monitoring functions are included because they also monitor DC line voltages. At the initial system boot, verify the following:
When these conditions are met, the hardware installation is complete. If the startup sequence fails, use the procedures in this chapter to isolate and, if possible, resolve the problem. If you are unable to solve the problem, contact a customer service representative for assistance and further instructions. Before you call, gather the following information:
The flowchart in Figure 2-11 helps you determine which component of your system might have malfunctioned.

![]()
![]()
![]()
![]()
![]()
![]()
![]()
Posted: Mon Oct 25 13:05:11 PDT 1999
Copyright 1989-1999©Cisco Systems Inc.