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Cisco 10000 Edge Services Router Overview

Cisco 10000 Edge Services Router Overview

The Cisco 10000 Edge Services Router (ESR) is a high capacity Layer 3 router optimized to support selected IOS software services at wire speed performance on thousands of DS1/T1 connections. Designed primarily for use in a telco central office environment, it provides interfaces that connect to large numbers of subscribers using low-speed circuits, and then funnels all of that subscriber traffic into a small number of high-speed trunk interfaces. The chassis has eight line card slots and two slots for Performance Routing Engine (PRE) modules.

The Cisco 10000 is designed to meet and exceed the most stringent ISP requirements for product availability and reliability. Its features include:

Performance routing engine redundancy in the Cisco 10000 ESR is achieved through an implementation of Enhanced High System Availability (EHSA). This feature lets you configure the chassis for non-redundant operation with one PRE, or for redundant operation with two PREs.

In addition to PRE Redundancy, SONET/SDH line cards can be configured for 1+1 APS to accommodate failure of either a line card or the transmission facility carrying trunk traffic to upstream equipment.

The Cisco 10000 ESR is designed to scale to unprecedented levels with plans to further increase scalability in future releases. Initial release provides support for up to:

For CT3 line cards, this equates to:

For channelized OC-12 line cards, this equates to:

Cisco 10000 ESR Features

The Cisco 10000 and power subsystem support the following key features:

Cisco 10000 ESR Software

Software is stored on the PRE which includes two PCMCIA slots that are accessible from the front panel. Either slot can store an IOS image or configuration file.

The flash memory present on Cisco 10000 line cards is used to store a simple ROM monitor/boot loader. The loader executes following a system reset, line card reset, or line card insertion.

Line card images may also be stored in PRE flash memory or on an external TFTP server.

The PRE stores the system configuration in a 512KB NVRAM device. Configuration information read from NVRAM is buffered in RAM following initialization, and is written to the device when you save the configuration.

Cisco 10000 ESR Hardware Description

The Cisco 10000 ESR is Network Equipment Building Standards (NEBS) Level 3 compliant. This includes:

Less than 22 inches in height (you can configure up to three Cisco 10000 ESRs per 7-foot rack).

The chassis supports redundant AC or DC power, and contains:

At product introduction, the Cisco 10000 supports the following processor and interface cards:

Performance Routing Engine

The PRE is the central router and system controller (SC) for the Cisco 10000 ESR. It is responsible for all Layer 2 and Layer 3 packet processing, as well as execution of routing protocols and management of the system. The PRE consists of two main logical and physical cards:

All of the high performance processing engines in the PRE are based on advanced application specific integrated circuits (ASICs). These ASICs direct traffic to and from the router line cards.

Figure 1-1 shows the front panel of the PRE.


Figure 1-1:
Performance Routing Engine Front Panel


Connector Ports

The front panel on the PRE contains three ports with RJ-45 connectors (see Figure 1-1):

PCMCIA Card Slots

Two PCMCIA Type II card slots can store the Cisco IOS image or a system configuration file on a flash memory card. The system can also boot from the software stored on the flash memory card. See "Removing the PCMCIA Flash Card" section for more information about inserting and removing flash cards from the PRE.

PRE LED Indicators and Switches

LEDs on the front panel of the PRE provide a visual indication showing the status of PRE operation (see Figure 1-1). The LEDs are separated into three categories:

Alarm relay contacts on the Cisco 10000 let you connect the router to a site alarm maintenance system. This allows critical, major, and minor alarms generated by the Cisco 10000 to be displayed on both the PRE front panel and to external visual or audible alarms connected to the system. See the "Connecting Alarm Indicators" section for more information about alarm connections.

Pressing the alarm cutoff (ACO) switch on the (primary) PRE during an alarm condition shuts off the external alarm, but does not deactivate the alarm LEDs on the PRE front panel. Alarm LEDs on the front panel are deactivated only after the condition that caused the alarm is corrected.

Table 1-1 describes the LEDs and switch on the PRE.


Table 1-1: LEDs and Cutoff Switch
LEDs/Switch Status Description

Ethernet Port LEDs:

Activity

Link

Green

Off

Green


Off

Packets are being transmitted and received.

No packet activity.

Carrier detected; the port is able to pass traffic.

No carrier detected; the port is not able to pass traffic.

PCMCIA slot 0

PCMCIA slot 1

Green

Green

Flash card in Slot 0 is active.

Flash card in Slot 1 is active.

Critical, Major, and Minor LEDs

Off

Yellow

No alarm.

Indicates an alarm condition.

Alarm cutoff (ACO) switch

---

Pressing this switch disables an audible alarm.

Status

Green

Flashing Green

Flashing Yellow

Off

PRE is active (primary).

PRE is redundant (secondary).


The system is booting.


No power to the PRE.

Fail

Off

Yellow

The PRE is operating properly.

A major failure has disabled the PRE.

Channelized T3 Line Card Description

The Cisco 10000 ESR Channelized T3 line card supports 6 channelized DS3 ports per card.

Port Capacity

Each DS3 port can be independently configured all the way from a clear channel T3 down to and including DS1 and DS0 connections on the same port, with a maximum of 128 channels per DS3 port.

Each channelized T3 line card can support any combination of DS3/DS1/DS0s up to 768 channels.

Maximum Channelized T3 Line Cards Allowed

The Cisco 10000 can support up to 7 channelized T3 line cards, with a maximum capacity of 42 T3 connections or 1176 T1 connections per chassis. A fully loaded 7-foot rack can supports up to 126 T3 connections, or 3528 T1 connections.

Figure 1-2 shows the front panel for the channelized T3 line card.


Figure 1-2: Channelized T3 Line Card Front Panel


Table 1-2 describes the LEDs on the channelized T3 line card.


Table 1-2: Channelized T3 Line Card LEDs
LED Status Description

Fail

Yellow


Off

A major failure has disabled the line card.

The line card is operating properly.

Carrier (carrier detect)

Green

Off

Carrier detected; the port is able to pass traffic.

No carrier detected; the port is not able to pass traffic.

Alarm

Yellow

Off

Indicates an alarm condition at DS1. AIS, DS1 remote, DS1 OOF, DS3, OOF, DS3 AIS, or DS3 FERF 1 level.

No alarm condition.

Loop (active loop)

Yellow

Off

Port is in a loopback state and not enabled for data traffic.

Port is not in a loopback state.

Channelized OC-12 Line Card Description

The channelized OC-12 line card uses fractional T1 (nxDS0), DS-1, and DS3 IP services to connect ISP customers to the network backbone after consolidation by digital cross connect systems (DXCs) or add-drop-multiplexers (ADMs) into OC-12 links. It provides full duplex operation at OC-12 bandwidth rates using a single mode fiber intermediate reach SC connector that provides the Cisco 10000 with a single interface that connects up to 768 individual channelized options.


Table 1-3: Channelize OC-12 Cable Specifications
Fiber Type Wavelength (nm) Core Size (microns) Cable Distance

Single Mode Fiber

1300

8 to 10

49,213 ft (15 km)

Figure 1-3 shows the front panel for the channelized OC-12 line card.


Figure 1-3: Channelized OC-12 Line Card Front Panel


Table 1-4 describes the LEDs on the channelized OC-12 line card.


Table 1-4: Channelized OC-12 Line Card LEDs
LED Status Description

Fail

Yellow


Off

A major failure has disabled the line card.

The line card is operating properly.

Carrier (carrier detect)

Green

Off

Carrier detected; the port is able to pass traffic.

No carrier detected; the port is not able to pass traffic.

Alarm

Yellow

Off

Indicates an alarm condition at OC-12, DS3, or DS1 level.

No alarm condition.

Loop (active loop)

Yellow

Off

Port is in a loopback state and not enabled for data traffic.

Port is not in a loopback state.

Gigabit Ethernet Line Card Description

The single-port gigabit Ethernet (GE) line card provides a trunk uplink to devices such as GSRs, as well as connections to content servers and Web caches. The GE line card provides the Cisco 10000 with an IEEE 802.3z compliant Ethernet interface running at 1 Gbps in full duplex mode.

The port uses a Gigabit Interface Converter (GBIC) that supports Gigabit Ethernet rates on a variety of gigabit Ethernet interface types (SX, LX/LH, ZX) which can be changed or upgraded at any time (see Table 1-6). The Cisco 10000 supports multiple GE line cards to support connectivity to multiple destinations and for network layer redundancy.

Figure 1-4 shows the front panel for the Gigabit Ethernet line card.


Figure 1-4: Gigabit Ethernet Front Panel


Table 1-5 describes the LEDs on the Gigabit Ethernet line card.


Table 1-5: Gigabit Ethernet Line Card LEDs
LED Status Description

Fail

Yellow


Off

A major failure has disabled the line card.

The line card is operating properly.

Rx (receive)

Green

Off

Receiving traffic.

Not receiving traffic.

Tx (transmit)

Green

Off

Transmitting traffic.

Not transmitting traffic.

Link

Green

Off

Carrier detected; the port is able to pass traffic.

No carrier detected; the port is not able to pass traffic.

GBIC Specifications

Table 1-6 lists the GE line card GBICs and their respective cable types and lengths.


Table 1-6: GBIC Port Cabling Specifications
GBIC Wavelength (nm) Fiber Type Core Size (microns) Modal Bandwidth (MHz/km) Cable Distance

1000BaseSX
ESR-GBIC-SX

850

MMF

62.5
62.5
50.0
50.0

160
200
400
500

722 ft (220 m)
902 ft (275 m)
1640 ft (500 m)
1804 ft (550 m)

1000BaseLX/LH
ESR-GBIC-LH

1300

MMF1


SMF

62.5
50.0
50.0
8 to 10

500
400
500
---

1804 ft (550 m)
1804 ft (550 m)
1804 ft (550 m)
32,808 ft (10 km)

1000BaseZX
ESR-GBIC-ZX

1550

SMF

Not Conditional

N/A

43.5 mi. (70 km) to
62 miles (100 km)2

1Mode-conditioning patch cord (CAB-GELX-625 or equivalent) is required. If you use an ordinary patch cord with MMF, 1000BaseLX/LH GBICs, and a short link distance (tens of meters), this can cause transceiver saturation, resulting in a elevated bit error rate (BER). In addition, when you use the LX/LH GBIC with 62.5-micron diameter MMF, you must install a mode-conditioning patch cord between the GBIC and the MMF cable on both the transmit and receive ends of the link. The mode-conditioning patch cord is required for link distances greater than 984 ft (300 m).
2100 km over premium single mode fiber or dispersion shifted singe mode fiber.

OC-12 POS Line Card Description

The OC-12 POS card provides a trunk uplink that supports up to 622 Mbps over a standard SONET/SDH interface using a single mode fiber intermediate reach SC connector.


Table 1-7: OC-12 POS Cable Specifications
Fiber Type Wavelength (nm) Core Size (microns) Cable Distance

Single Mode Fiber

1300

8 to 10

49,213 ft (15 km)

Figure 1-5 shows the front panel for the OC-12 POS line card.


Figure 1-5:
OC-12 POS Front Panel


Table 1-8 describes the LEDs on the Gigabit Ethernet line card.


Table 1-8: OC-12 POS Line Card LEDs
LED Status Description

Fail

Yellow


Off

A major failure has disabled the line card.

The line card is operating properly.

Rx (receive)

Green

Off

Receiving traffic.

Not receiving traffic.

Tx (transmit)

Green

Off

Transmitting traffic.

Not transmitting traffic.

Carrier

Green

Off

Carrier detected; the port is able to pass traffic.

No carrier detected; the port is not able to pass traffic.

Optical Cables and Connectors

For single-mode optical fiber connections, use one duplex SC-type cable (see Figure 1-6), or two simplex SC-type cables (see Figure 1-7), one for transmit (Tx) and one for receive (Rx).


Figure 1-6: Duplex SC-Type Cable and Connector



Figure 1-7:
Simplex SC-Type Cable and Connector



Warning Because invisible radiation may be emitted from the aperture of the port when no fiber cable is connected, avoid exposure to radiation and do not stare into open apertures.

The following tables list the proper single mode or multimode optical fiber cables to use to connect your router to a network:

Chassis Description

The Cisco 10000 chassis is designed for mounting in 19-inch or (optional) 23-inch equipment racks, and contains the following components:

Figure 1-8 shows a fully loaded chassis with redundant PREs, power entry modules (PEMs), and line cards.


Figure 1-8:
Cisco 10000 ESR Chassis---Front View


Module Compartment

The module compartment has 10 slots: the two central slots are reserved for PRE modules, and the remaining 8 slots accommodate full-height line cards. The PRE and line cards support hot-swapping and redundancy.


Caution Although the PRE module supports hot-swapping, one PRE is required for the system to operate. Hot-swapping a non-redundant PRE results in a system outage stopping all traffic. A PRE in a redundant configuration can be hot-swapped without having an impact on system operation.

Blower Module

The Cisco 10000 ESR uses a blower module (Figure 1-9) containing four fans to supply cooling air to the chassis.


Figure 1-9: Blower Module


The blower module is located at the top of the chassis and connects to a connector on the chassis.

    1. Four internal fans draw cooling air into the front of the chassis and directs it across the internal components to maintain an acceptable operating temperature.

    2. The air is exhausted through openings in the rear of the chassis.

Although the blower module supports hot-swapping and can be replaced without interruption to system operation, do not power down the system without the blower unit for more than a few minutes to prevent overheating.

Power Entry Modules

The DC PEM provides filtering and supplies DC power to the chassis electronics (Figure 1-10). DC PEMs receive input power (-48 VDC from building centralized power source) through terminal block connections located on the rear of the chassis.

Table 1-9 describes the LEDs on the DC PEM.


Figure 1-10: DC PEM



Table 1-9: DC PEM LEDs
LED Description

Power (green)

PEM is powered on and is operational.

Fault (yellow)

The PEM is not operating correctly (see the Cisco 10000 ESR Troubleshooting Guide).

Miswire (yellow)

-48V and RTN (+) wires are reversed (see the "Troubleshooting Installation Problems" section).

The AC PEM provides power conversion directly from the facility VAC input power (100-240 VAC) to the -48V VDC used internally by the system (Figure 1-11). AC power is delivered to the AC PEM from the VAC connection power cable to the power cord attached to the PEM.

Table 1-10 describes the LEDs on the AC PEM.


Figure 1-11: AC PEM



Table 1-10: AC PEM LEDs
LED Description

Power (green)

PEM is powered on and is operational.

Fault (yellow)

The PEM is not operating correctly (see the Cisco 10000 ESR Troubleshooting Guide).


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Posted: Fri Jul 28 13:03:31 PDT 2000
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