Cisco IGX 8400 Series Provisioning Guide, Release 9.3.3 and Later Releases Corporate Headquarters Cisco Systems, Inc. 170 West Tasman Drive San Jose, CA 95134-1706 USA http://www.cisco.
THE SPECIFICATIONS AND INFORMATION REGARDING THE PRODUCTS IN THIS MANUAL ARE SUBJECT TO CHANGE WITHOUT NOTICE. ALL STATEMENTS, INFORMATION, AND RECOMMENDATIONS IN THIS MANUAL ARE BELIEVED TO BE ACCURATE BUT ARE PRESENTED WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED. USERS MUST TAKE FULL RESPONSIBILITY FOR THEIR APPLICATION OF ANY PRODUCTS.
C ON T E N T S Preface i Objectives Audience i i Organization ii Document Conventions iii New or Changed Information vii Switch Software Release 9.3.40 Switch Software Release 9.4.
Contents CHAPTER 2 Cisco IGX 8400 Series Cards Functional Overview 2-1 2-1 Nodal Processor Module 2-2 NPM Front Card 2-3 NPM Failovers and Card Redundancy System Clock Module Back Card 2-4 Failovers and Card Redundancy 2-6 External Clock Sources 2-7 NPM Installation 2-7 NPM Management 2-7 Switch Software Management 2-7 Optional Peripherals 2-8 2-4 Alarm Relay Module 2-8 Alarm Relay Module Front Card 2-9 Alarm Relay Interface Back Card 2-11 ARM Configuration and Management 2-12 Making Alarm Relay Out
Contents Universal Switching Module 2-23 UXM-E Trunk Mode Features 2-25 Traffic Management Features 2-25 UXM-E Front Card 2-26 UXM-E Back Cards 2-28 UXM-E Installation 2-32 UXM-E Redundancy 2-33 UXM-E Configuration 2-33 UXM-E Management 2-33 UXM-E as a Clock Source 2-33 Y-Redundancy and VC Merge on the UXM-E UXM-E Troubleshooting 2-34 Trunk Statistics on the UXM-E 2-34 Loopback and Test Commands 2-35 Card Mismatch 2-36 2-34 Universal Voice Module 2-36 Idle Code Suppression on the UVM 2-39 Fax Relay on th
Contents Frame Relay Module 2-67 Firmware Compatibility 2-67 Frame Relay Interface V.35 and X.21 Back Cards 2-68 FRI-V.35 Back Cards 2-68 FRI-X.21 Back Card 2-69 Configuring an FRM with FRI-V.35 Back Card 2-70 Configuring an FRM with FRI-X.
Contents Switch Software Command Related to Cards Where To Go Next CHAPTER 3 2-114 2-115 Cisco IGX 8400 Series Nodes 3-1 Functional Overview 3-1 Understanding Network Synchronization 3-1 IGX Node Configuration 3-4 Naming a Node 3-5 Configuring the Time Zone 3-5 Configuring the Date and Time 3-5 Adding an Interface Shelf 3-6 Specifying Card Redundancy 3-6 Controlling External Devices 3-8 IGX Network Management 3-9 Optimizing Traffic Routing and Bandwidth Specifying Channel Utilization 3-10 Specifyi
Contents Switch Software Commands Related to IGX Nodes Where to Go Next CHAPTER 4 3-22 3-23 Cisco IGX 8400 Series Trunks 4-1 Functional Overview 4-1 Virtual Trunking on the IGX 4-3 VPI, VCI, and Cell Header Formats 4-3 Virtual Trunks Supported on the IGX 4-5 IMA on the IGX 4-5 IMA Feeder Nodes in an IGX Network 4-5 IGX Trunk Configuration 4-6 Planning Bandwidth Usage 4-6 Planning for Cellbus Bandwidth Allocation 4-6 Bandwidth on IMA Trunks and Lines 4-8 Setting Up a Trunk 4-9 Setting Up a Virtual Tr
Contents CHAPTER 6 Cisco IGX 8400 Series Data Service 6-1 Data Service—Functional Overview 6-1 Data Terminal Equipment and Data Circuit-Terminating Equipment Data Service Connections Supported on the IGX 6-1 Data Service Provisioning 6-2 Setting Up a Data Connection 6-2 Configuring an Interface Control Template Enabling DFM on a Data Channel 6-4 Enabling Embedded EIA on the LDM 6-4 6-3 Switch Software Command Related to Data Service Where to Go Next CHAPTER 7 6-1 6-5 6-5 Cisco IGX 8400 Series V
Contents ATM Service Provisioning on the IGX 8-7 Calculating and Managing Bandwidth 8-8 Setting Up an ATM Connection 8-8 Switch Software Commands Related to ATM Service Where To Go Next CHAPTER 8-10 Cisco IGX 8400 Series Frame Relay Service 9 8-9 9-1 Frame Relay—Functional Overview 9-1 Using Frame Relay Classes 9-2 Physical and Logical Frame Relay Ports 9-3 Frame Relay Connections Supported on the IGX 9-3 Frame Relay Provisioning 9-3 Setting Up FR Ports and Connections (UFM) 9-4 Commands for T1/E1 F
Contents VSI Configuration 10-34 Logical Switch Partitioning and Allocation of Resources 10-36 Slave Redundancy for the UXM and UXM-E 10-38 Adding and Deleting Controllers and Slaves 10-39 VC Merge on the IGX 10-40 Switch Software Commands Related to VSIs on the IGX 10-41 MPLS Configuration on the IGX 10-42 Initial Setup of LVCs 10-43 Configuring an IGX ATM-LSR for MPLS 10-44 Configuration for IGX Switch Portions of the Cisco IGX 8410, 8420, and 8430 ATM-LSRs 10-47 Configuration for LSC 1 and LSC 2 Portion
Contents Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Preface This preface discusses the objectives, audience, organization, and conventions found in the Cisco IGX 8400 Series Provisioning Guide. The Cisco IGX 8400 series (referred to as “IGX” in this guide) is a WAN switch platform running Cisco WAN Switching System Software Release 9.3.30 or later releases (referred to as “switch software” in this guide). Objectives This guide replaces previous Cisco IGX 8400 series platform documentation and is designed to be used with multiple switch software releases.
Preface Organization Organization This document is organized into the following chapters: Table 1 Cisco IGX 8400 Series Provisioning Guide Organization Chapter Number and Title Chapter Description Chapter 1, “Introduction to the Provides general networking and functional information on the Cisco IGX 8400 Series” Cisco IGX 8400 Series. Chapter 2, “Cisco IGX 8400 Series Cards” Provides information on IGX modules (front cards and back cards).
Preface Document Conventions Document Conventions This publication uses the following conventions to convey instructions and information. Table 2 Note Timesaver Caution Tip Document Conventions Convention Description boldface font Commands and keywords. italic font Variables for which you supply values. [ Keywords or arguments that appear within square brackets are optional. ] {x | y | z} A choice of required keywords appears in braces separated by vertical bars. You must select one.
Preface Document Conventions Warning IMPORTANT SAFETY INSTRUCTIONS This warning symbol means danger. You are in a situation that could cause bodily injury. Before you work on any equipment, be aware of the hazards involved with electrical circuitry and be familiar with standard practices for preventing accidents. To see translations of the warnings that appear in this publication, refer to the translated safety warnings that accompanied this device.
Preface Document Conventions Attention IMPORTANTES INFORMATIONS DE SÉCURITÉ Ce symbole d'avertissement indique un danger. Vous vous trouvez dans une situation pouvant causer des blessures ou des dommages corporels. Avant de travailler sur un équipement, soyez conscient des dangers posés par les circuits électriques et familiarisez-vous avec les procédures couramment utilisées pour éviter les accidents.
Preface Document Conventions Advarsel VIKTIGE SIKKERHETSINSTRUKSJONER Dette varselssymbolet betyr fare. Du befinner deg i en situasjon som kan forårsake personskade. Før du utfører arbeid med utstyret, bør du være oppmerksom på farene som er forbundet med elektriske kretssystemer, og du bør være kjent med vanlig praksis for å unngå ulykker. For å se oversettelser av advarslene i denne publikasjonen, se de oversatte sikkerhetsvarslene som følger med denne enheten.
Preface New or Changed Information New or Changed Information This section describes updates to this publication. Switch Software Release 9.3.40 The following sections have been added or updated to support Switch Software Release 9.3.40: • “Y-Redundancy and VC Merge on the UXM-E” section on page 2-34, in Chapter 2, “Functional Overview.” • “Virtual Circuit Merge on the IGX” section on page 10-31 and the “VC Merge on the IGX” section on page 10-40 in Chapter 10, “IP Service—Functional Overview.
Preface Related Documentation Switch Software Release 9.4.00 The following content has been added to support Switch Software Release 9.4.00: • “URM Cisco IOS CLI Access—Switch Software Release 9.3.x and Earlier Releases” section on page 99 in Chapter 2, “Cisco IGX 8400 Series Cards” • “URM Cisco IOS CLI Access—Switch Software Release 9.4.
Preface Related Documentation Cisco WAN Switching System Software and Related Hardware Documentation Cisco WAN Switching System Software Documentation Cisco WAN Switching System Software (switch software) product documentation provides additional information on the switch software commands used to configure the IGX. Documentation in this category includes the following: • Cisco WAN Switching Command Reference (Release 8.2 to Release 9.3.30). • Cisco WAN Switching SuperUser Command Reference (Release 8.
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Preface Related Documentation Command References The Cisco IOS software command references provide detailed information about each configuration command. You can access these documents at Cisco Product Documentation > Cisco IOS Software > Cisco IOS Software Release you are using > Configuration Guides and Command References > Command reference for your application. Or use the following links: • Cisco IOS Configuration Guides and Command References, Release 12.
Preface Accessing User Documentation You can access these documents at Cisco Product Documentation > Cisco IOS Software Configuration > Cisco IOS Software Release you are using > Supporting Documents or Related Documentation. Or use the following links: • Cisco IOS Supporting Documents, Release 12.1 • Cisco IOS Supporting Documents, Release 12.2 • Cisco IOS Related Documents, Release 12.1 • Cisco IOS Related Documents, Release 12.
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C H A P T E R 1 Introduction to the Cisco IGX 8400 Series This guide describes the IGX hardware that runs Release 9.3.30 or later of the Cisco WAN Switching System Software (switch software) and provides instructions for provisioning services across networks containing an IGX node. The descriptions cover both common and unique aspects of the Cisco IGX 8410, 8420, and 8430 models. For a description of how to install and start an IGX switch, refer to the Cisco IGX 8400 Series Installation Guide.
Chapter 1 Introduction to the Cisco IGX 8400 Series Where To Go Next – A 32-slot standalone unit – A 32-slot rack-mount unit • Redundancy of controller cards, service module cards, system buses, and power supplies to provide hardware reliability. • Hot-swappable modules to facilitate non-stop operation: service cards, NPMs, AC power supplies, and fan tray assembly. • 110/220 VAC and -48 DC power options for use in varied network environments.
C H A P T E R 2 Cisco IGX 8400 Series Cards This chapter provides a description of the cards available for use in the IGX node. Some of the cards described in this manual may no longer be available for purchase, so please check with your account representative for card availability. Most cards use the standard installation and initial configuration procedures described in “Installing the IGX” This chapter details exceptions and recommendations specific to each card.
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module Nodal Processor Module The IGX nodal processor module (NPM) group consists of a front card (called NPM) and a system clock module (SCM) back card. The NPM performs the following major functions: • Runs the software for controlling, configuring, diagnosing, and monitoring the IGX switch. • Sends configuration and control commands over the control bus to other cards in the switch.
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module NPM Front Card The NPM front card monitors its own activity. When a failure is detected, the fail LED is lit. In nodes with redundant NPMs, the active NPM is indicated by an active LED, while the standby NPM will not have a lit active LED (see Figure 2-2). To display information on any NPM from the switch software command-line interface (CLI), use the switch software dspcd command.
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module NPM Failovers and Card Redundancy In a nonredundant system, the NPM front card resides in either slot 1 or slot 2 (see the “Disabling NPM Redundancy” section on page 2-4 for information on disabling NPM redundancy). In a redundant system with two NPM front cards, the front cards reside in slot 1 and slot 2. A utility bus in the backplane connects redundant NPMs.
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module Figure 2-3 SCM Faceplate SCM External clock (DB-15) Control terminal (DB-25) Auxiliary port (DB-25) LAN AUI (DB-15) H8315 Power supply monitor (PSM) Fail (red) Active (green) For a description of the SCM LEDs, see Table 2-2. Table 2-2 SCM LEDs LED Color Meaning Fail Red An error has occurred.
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module Table 2-3 LAN AUI Connector Pin Assignments (DB-15 Connector) (continued) Pin Number Pin Name 5 RCV + 6 Power return 7 Reserved 8 Reserved — — 9 Collision presence - 10 XMT - 11 Reserved 12 RCV - 13 Power (+12V) 14 Reserved 15 Reserved Table 2-4 Power Supply Monitor Pin Assignments (RJ-45 Connector) Pin Number Pin Name 1 Digital ground 2 AACFAIL *_OUT 3 BACFAIL *_OUT The power supply monitor connector allow
Chapter 2 Cisco IGX 8400 Series Cards Nodal Processor Module Each operating IGX node must have an SCM. Removal of the SCM disrupts system operation. The SCM resides in back card slot 1 (for information on installing back cards, see the Installing the IGX chapter in the Cisco IGX 8400 Series Installation Guide). Tip One SCM is sufficient to support redundant NPM front cards.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Note If a firmware image upgrade is necessary for a card installed in the node, you may need to upgrade the card’s firmware before upgrading the switch software image to avoid operational problems in your network. Check the firmware release notes for specific information on upgrade procedures. Optional Peripherals At least one node in a network should have a Cisco WAN Manager terminal, a control terminal, or a dial-in modem connected to it.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Table 2-5 Tip Alarm Relay Module Alarm Reporting (continued) Type Severity Indicator ARM Action Alarm cutoff – ACO LED (green) Interrupts audible relay closed. Alarm history – Hist LED (green) None. To turn off audible alarms, use the faceplate alarm cutoff (ACO) switch. When the ACO switch is activated, a faceplate ACO indicator is lit as a reminder to the user.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Figure 2-4 ARM Front Card Faceplate Minor Major ACO HST MINOR MAJOR ACO HST ACO ACO HST CLR HST CLR Fail Active FAIL ACTIVE H8332 ARM Table 2-6 ARM Front Card LEDs Faceplate Item Meaning or Description Minor LED (yellow) A failure in the local node that is not service-affecting but should be investigated.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Table 2-6 ARM Front Card LEDs (continued) Faceplate Item Meaning or Description ACO push button When pressed, this button silences the audible alarm and turns on the ACO LED. Visual alarms remain on. HIST CLR push button When pressed, this button turns off the HIST LED if there are no current alarms. Alarm Relay Interface Back Card The alarm relay interface (ARI) back card contains the alarm relays and their associated relay drivers.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Figure 2-5 ARI Faceplate ARI 5120N DB-37 H8333 ALARM RELAYS ARM Configuration and Management Enable alarm display functionality on the ARM with the switch software addalmslot command. The ARM requires standard management and preventive maintenance tasks. Making Alarm Relay Output Connections To set up an ARM after installation, use the following procedure: Step 1 Log in to the IGX node.
Chapter 2 Cisco IGX 8400 Series Cards Alarm Relay Module Caution To avoid disruption of necessary network traffic, do not generate a major alarm during periods of high network traffic. Step 5 Check that the major LED lights up on the front card faceplate of the ARM. Step 6 Using a voltage/ohm meter (VOM), make sure continuity exists between pins 16 and 17 and between pins 35 and 36 at the DB-37 connector on the ARI card.
Chapter 2 Cisco IGX 8400 Series Cards Service Modules Card Self-Test Diagnostic routines periodically run to test the card's performance. These diagnostics run in the background and do not disrupt normal behavior. If a failure is detected during the self-test, the faceplate red fail LED turns on. In addition, you can check the status of the card by using the switch software dspcd command. If a card failure is reported, the report remains until cleared.
Chapter 2 Cisco IGX 8400 Series Cards Service Modules Standard Service Module Installation Caution In order to contain electromagnetic interference (EMI) and radio frequency interference (RFI), and to ensure desired airflow for adequate chassis cooling, install a blank faceplate in any back card slots where no back card exists. Except where noted, IGX service modules use a standard installation procedure (see Chapter 3, “Installing the IGX” in the Cisco IGX 8400 Series Installation Guide).
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module Standard Service Module Troubleshooting The following paragraphs describe standard service module maintenance and troubleshooting features. Except where noted, preventive maintenance is not necessary. Card Mismatch When you connect an unsupported back card to the service module front card, the output from the switch software dspcds command informs you that you have a card mismatch.
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module NTM Front Card Note There are two variants of the NTM front card: one uses an ACM1 adapter to connect two legacy card designs and the other is a single card version built for the IGX chassis. While functionally identical, their firmware cannot be interchanged. The single-card NTM requires firmware revision F or later. An NTM front card can occupy any available front service card slot (slots 3 to 32).
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module NTM T1 Interface Back Card The NTM T1 interface back card (BC-T1) terminates a single 1.
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module Table 2-10 BC-T1 Back Card Faceplate LEDs LED Meaning LOS (red) Loss of signal at the local end of the trunk. Alarm LED (red) Loss of local T1 frame alignment or loss of FastPacket alignment on the local end of the trunk. Alarm LED (yellow) Loss of remote T1 frame alignment or loss of FastPacket alignment on the remote end of the trunk. AIS (green) Presence of an unframed sequence of all-ones on the T1 line.
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module Figure 2-9 BC-E1 Faceplate BC-E1 RX/TX RX TX LOS (red) Red alarm (red) Yellow alarm (yellow) AIS (green) MFRA (red) MFYA (yellow) H8317 Fail (red) Active (green) NTM Y1 Interface Back Card The NTM Y1 interface back card (BC-Y1) terminates a Y1 line on the NTM front card, and provides the following features: • Physical interfaces to Japanese trunks (Y1) • Support for coded mark inversion (CMI) line coding • Support for Y1 trunk-format
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module Figure 2-10 BC-Y1 Faceplate BC-Y1 Y1 trunk input/output Line in Line out RXMON - monitor jack TXMON - monitor jack LOS (red) Red alarm (red) Yellow alarm (yellow) AIS (green) H8319 Fail (red) Active (green) Table 2-12 BC-Y1 Back Card LEDs LED Meaning LOS (red) Loss of signal at the local end. Red alarm (red) Loss of local frame alignment. Yellow alarm (yellow) Loss of frame alignment at the remote end.
Chapter 2 Cisco IGX 8400 Series Cards Network Trunk Module Because a subrate trunk facility interface operates in DCE mode with the subrate channel functioning like a synchronous data channel, the BC-SR back card always operates in DTE mode.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Table 2-14 Data and Control Leads Supported with the BC-SR Back Card Function Lead Name Interface Transmit TX Transmit data All Transmit RTS Request to send V.35 Transmit DTR/C Data terminal ready All Transmit LL Local loop EIA/TIA-422 Transmit RL Remote loop EIA/TIA-422 Transmit IS Terminal in service EIA/TIA-422 Transmit SS Select standby V.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Note Information for the enhanced universal switching module (UXM-E) also applies to the UXM. For differences between the two cards, refer to the release notes for your card. The enhanced universal switching module (UXM-E) provides ATM trunk and line service for the IGX.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module UXM-E Trunk Mode Features In trunk mode, the UXM-E supports up to 8000 connections. The UXM-E in trunk mode cannot support more than 4000 gateway connections. All remaining connections can be either user or networking connections. For example, if you configure 2500 gateway connections, you still have 5500 connections available to be used for networking connections.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Table 2-16 Traffic Management Features Supported on the UXM-E (continued) Card Mode Traffic Management Feature Port Supports the following ABR options: • End-to-end (ABR loop) excluding VS/VD • VS/VD-segmented ABR within a network, and ABR on external segments • VS/VD-segmented ABR within a network and UBR or VBR on external segments • ForeSight within a network and UBR or VBR on external segments • ForeSight within a network a
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Figure 2-12 UXM-E Front Card Minor Major Fail Active Standby 29424 UXME Table 2-17 UXM-E LEDs Fail LED Active LED Standby LED Card Status On Off Off The card has failed. Blinking Blinking Off The standby front card’s back card is mismatched. Blinking On Off The active front card’s back card is mismatched or missing. Blinking Off Blinking The front card’s self-test indicates a back card mismatch.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module UXM-E Back Cards The UXM-E has many different back cards, providing support for various physical line and connector configurations. See Table 2-18 for more information. For images of sample UXM-E back cards, see Figure 2-13, Figure 2-14, Figure 2-15, and Figure 2-16.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module The appearance of UXM-E back card faceplates will vary based on the back card’s physical line type, physical connector type, and number of physical connectors. See Figure 2-13, Figure 2-14, Figure 2-15, and Figure 2-16 for sample UXM-E back cards. Figure 2-13 shows a BC-UAI-4-155-SMF back card faceplate.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Figure 2-14 shows a BC-UAI-6-T3 back card faceplate.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Figure 2-15 BC-UAI-8-T1-DB-15 Faceplate UAI-8T1 DB15 R LOC Y REM G OK P O R T 1 R LOC Y REM G OK R LOC Y REM G OK P O R T 2 P O R T R LOC Y REM G OK P O R T 3 R LOC Y REM G OK 2 P O R T 4 R LOC Y REM G OK P O R T 5 R LOC Y REM G OK P O R T 6 R LOC Y REM G OK P O R T 7 R LOC Y REM G OK P O R T H11703 8 Figure 2-16 shows a BC-UAI-8-E1 BNC back card faceplate. Each BNC connector carries traffic in only one direction.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Figure 2-16 BC-UAI-8-E1 BNC Faceplate UAI-8EI BNC PORT 1 TX R LOC Y REM G OK RX PORT 2 PORT 2 TX TX R LOC Y REM G OK RX PORT 3 TX R LOC Y REM G OK R LOC Y REM G OK RX PORT 4 TX RX R LOC Y REM G OK RX PORT 5 TX R LOC Y REM G OK RX PORT 6 TX R LOC Y REM G OK RX PORT 7 TX R LOC Y REM G OK RX PORT 8 TX R LOC Y REM G OK H11705 RX UXM-E Installation Tip Switch software limits the number of logical trunks and lines
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module UXM-E Redundancy Like other IGX service modules, the UXM-E can be configured for Y-cable redundancy. Both cards, the primary and the redundant, must be installed before you configure them for Y-cable redundancy. The UXM-E features hot standby, in which the redundant card receives card configuration information as soon as you finish specifying redundancy.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Y-Redundancy and VC Merge on the UXM-E Note Because VC merge is not supported on the UXM, y-redundancy cannot be set up using a UXM-E and a UXM without generating a feature mismatch error. If y-redundancy is set up between a UXM-E and a UXM, the VC merge feature cannot be enabled. Before setting up y-redundancy on two UXM-E cards, make sure that VC merge feature support is enabled on both cards.
Chapter 2 Cisco IGX 8400 Series Cards Universal Switching Module Table 2-20 Trunk Statistic Classification on the UXM-E for Switch Software Release 9.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Card Mismatch Note Card mismatch is not reported when the front card is in standby. If the card becomes active and there is a mismatch condition, the UXM-E will report a card mismatch. The UXM-E uses a standard card mismatch notification for unsupported back cards.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module • Support for idle code suppression (ICS) on super-rate data connections (see the “Idle Code Suppression on the UVM” section on page 2-39) • Support for many different signaling types (see Table 7-2) • Pulse code modulation (PCM) at 64 kbps on all voice channels • Adaptive pulse code modulation (ADPCM) voice compression at 32 kbps or 24 kbps per G.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Table 2-23 Connections Supported by the UVM (continued) Connection Type Switch Software Parameter Maximum Number of Channels Voice g729ar8 24 (T1) CSACELP 30 (E1 and Y1) Carries 8 kbps CSACELP voice in accordance with the G.729A standard. Voice g729ar8v 24 (T1) CSACELP 30 (E1 and Y1) Carries 8 kbps CSACELP with VAC voice in accordance with the G.729A standard. Data t 24 (T1) – 30 (E1 and Y1) Carries 64 kbps clear channel data.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Idle Code Suppression on the UVM Idle code suppression (ICS) allows bandwidth savings on an nx64 super-rate data connection used to carry video traffic conforming to the H.221 video codec frame protocol. The video channel is considered idle at any time when identical data occurs in relevant time slots for 256 consecutive T1, E1, or J1 frames.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Figure 2-17 UVM Front Card Faceplate Minor Major Fail Active UVM H9878 UVM Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Universal Voice Interface Back Card The UVM has three different UVI back cards, providing support for various physical line types. See Table 2-25 for more information. Table 2-25 Back Cards for the UVM Back Card Line Type Number of Physical Connectors BC-UVI-2T1EC T1 2 (DB-15) 2 ZCS, AMI, or B8ZS line code D4 or ESF framing formats Line buildout for cable lengths up to 655 feet BC-UVI-2E1EC E1 2 (DB-15) 4 (BNC) 21 Meets CCITT G.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Figure 2-18 BC-UVI-2T1EC Faceplate 2T1 PORT A RX/TX R LOC Y REM G OK PORT B RX/TX R LOC Y REM G OK H7961 FAIL ACTIVE Note The BC-UVI-2E1EC has an additional multiframe alignment LED associated with each physical connector. See Table 2-27 and Figure 2-19 for details. Table 2-27 The BC-UVI-2E1EC Multiframe Alignment LED Multiframe Alignment LED Color Meaning Red The line has a local loss of multiframe alignment.
Chapter 2 Cisco IGX 8400 Series Cards Universal Voice Module Figure 2-19 BC-UVI-2E1EC Faceplate 2J1 PORT A RX TX R LOC Y REM G OK R MFRA Y MFYA RX/TX PORT B RX TX RX/TX FAIL ACTIVE H7962 R LOC Y REM G OK R MFRA Y MFYA UVM Configuration To specify voice connections on the UVM, use either Cisco WAN Manager or the switch software CLI. For information on accessing the switch software CLI, see the “IGX Configuration Summary” section in the Cisco IGX 8400 Series Installation Guide.
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module • Frame bit errors • Remote (yellow) alarm • AIS—All-ones in channel 16 (CAS mode) Channelized Voice Module Table 2-28 shows the front and back cards supported for the channelized voice module (CVM). Table 2-28 Channelized Voice Module Front and Back Cards Front Cards Back Cards CVM BC-T1 BC-E1 BC-J1 CVM T1 EC BC-T1 CVM E1 EC BC-E1 BC-J1 The CVM provides voice, data, and voice+data service for the IGX.
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module • Accommodation for some signaling conversions through setting, inversion, and clearing of AB or ABAB bits (T1) or ABCD bits (E1and T1 through ESF). • Support for high-speed modem and fax circuits. • Support for CAS through transport of signaling transitions across the network For more information on voice technology specifications, see the “Voice Circuit Support” section on page A-15.
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module Table 2-30 Voice Compression Ratios According to Channel Transmission Rates Tip Transmission Rate Voice Compression Ratio 64 kbps Voice traffic is not compressed 32 kbps 2:1 24 kbps 8:3 (~ 2.66:1) 16 kbps 4:1 Voice compression ratios approximately double when you enable internal VAD on that channel.
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module • Software-selectable D4 or ESF frame formats • Software-selectable line buildout for cable lengths up to 655 feet • Automatic local loopback testing in response to specific line alarm states • Reporting of T1 line event information (for events such as frame loss, loss of signal, bipolar violations, and frame errors) to the CVM front card • Support for normal clocking and loop timing See Figure 2-20 for a description of the BC-T1 bac
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module • Automatic local loopback testing in response to specific line alarm states • Reporting of E1 line event information (for events such as frame loss, loss of signal, bipolar violations, and frame errors) to the CVM front card • Support for normal clocking and loop timing See Figure 2-21 for a description of the BC-E1 back card faceplate. The BC-E1 back card has an additional multiframe alignment LED. See Table 2-31 for details.
Chapter 2 Cisco IGX 8400 Series Cards Channelized Voice Module J1 Interface Back Card (BC-J1) The BC-J1 back card provides a Japanese J1 circuit line interface for a CVM. The BC-J1 has the following features: • Interfaces to Japanese TTC (J1) lines as specified by JJ-20-10, JJ-20-11, and JJ-20-12.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Table 2-32 BC-J1 Multiframe Alignment LED Multiframe Alignment LED Color Meaning Red The line has a local loss of multiframe alignment. Yellow The line has a loss of multiframe alignment at the remote end. Universal Frame Module Table 2-33 shows the front and back cards supported for the universal frame module (UFM).
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module UFM Features The UFM supports the following features: • Supports Frame Relay-to-ATM service interworking • Support for both FR UNI and NNI interfaces on a per-port basis • Support for ANSI T1.618 using a two-octet header • Support for ELMI, StrataLMI, Cisco LMI, ANSI T1.617 Annex D, and CCITT Q.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Note Actual data throughput on the card depends on hardware and on frame size. As the frame size decreases, throughput will decrease. For example, a frame size of 100 B results in a sustainable throughput of 16.384 Mbps. With 60 B frames, a throughput of 16.384 Mbps can result in data loss. Tip UFM-8C front cards are simply labeled “UFM-C” while UFM-4C front cards are labeled “UFM-4C.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module In addition to features supported by the UFM-C (see the “UFM-C Front Cards” section on page 2-51), the UFM-U front card has the following features: • A clock rate sum up to 24 MHz (regardless of actual throughput) • Supports looped clocks (with the V.35 back card only) • Supports Y-cable redundancy on all ports (V.35 and X.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module UFM-U Configuration Because of hardware constraints, the UFM-U does not permit random combinations of speeds across active ports. Configuring active ports on the UFM-U requires that you use certain specified combinations (called modes) of maximum rates on these active ports. Note Specifying the maximum speed for active ports requires careful planning, so read the following information before attempting to configure your UFM-U active ports.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Table 2-34 shows the maximum bit rate per port on the V.35 or the X.21 back card for each available mode. Table 2-35 shows the maximum bit rate per port on the HSSI back card for each available mode.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Table 2-35 Bit Rates for Each Port in Specified Mode (for HSSI Back Card) Mode Port 1 Port 2 Port 3 Port 4 1 8 8 8 8 2 16 – 16 – 3 16 – – – Configuring UFM-U Modes Before changing the mode on a UFM-U, you must first determine whether the mode change will cause any changes in the maximum port speeds of any active ports.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module UFI-8T1-DB-15 Back Card Note The UFI-8T1-DB-15 back card is compatible with the UFM-4C and UFM-8C front cards. It is not compatible with the UFM-U front card. The UFM back card shown in Figure 2-25 has eight bidirectional, DB-15 connectors. For each line, one tricolor LED displays the status of the line using that connector (see Table 2-36). If the LED is off, the line is inactive. Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Figure 2-25 UFI-8T1-DB-15 Faceplate RLOC V REM G OK P O R T Typical port 1 PORT 2 RLOC V REM G OK P O R T Port 1 1 RLOC V REM G OK P O R T Port 2 2 RLOC V REM G OK P O R T Port 3 3 RLOC V REM G OK P O R T Port 4 4 RLOC V REM G OK P O R T Port 5 5 RLOC V REM G OK P O R T Port 6 6 RLOC V REM G OK P O R T Port 7 7 RLOC V REM G OK P O R T UFI-8T1-DB15 H9614 Port 8 8 Table 2-36 UFI-8T1-DB-15 Port LEDS LED Fu
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module UFI-8E1 Back Cards Note The UFI-8E1-DB-15 and UFI-8E1-BNC back cards are compatible with the UFM-4C and UFM-8C front cards. They are not compatible with the UFM-U front card. There are two different E1 back cards available for the UFM—the UFI-8E1-DB-15 and the UFI-8E1-BNC. The UFI-8E1-DB-15 has eight bidirectional DB-15 connectors, and the UFI-8E1-BNC has 16 BNC connectors (two per port, with one transmit connector and one receive connector).
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Figure 2-26 UFI-8E1-DB-15 and UFI-8E1-BNC Faceplates PORT 1 TX R LOC Y REM G OK Typical port RX PORT 2 RLOC V REM G OK Port 1 RLOC V REM G OK Port 1 1 RLOC V REM G OK P O R T Port 1 RLOC V REM G OK Port 2 2 RLOC V REM G OK P O R T RLOC V REM G OK RLOC V REM G OK P O R T RLOC V REM G OK RLOC V REM G OK P O R T RLOC V REM G OK RLOC V REM G OK P O R T RLOC V REM G OK RLOC V REM G OK Port 7 7 8 UFI-8E1-DB15 Port 7
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module UFI-12V.35 Back Card Note The UFI-12.V35 back card is compatible with the UFM-U front card. It is not compatible with either the UFM-4C or the UFM-8C front cards. The UFI-12V.35 back card in Figure 2-27 for the UFM-U front card has six connectors, with each connector carrying two V.35 ports. Each port in the connector has an associated LED for indicating port state. See Table 2-38 for more information on these LEDs. To use the UFI-12V.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Figure 2-27 UFI-12V.35 Faceplate UFI-12 V.35 R ALARM Y LOOP G ACTIVE P O R T P O R T 2 1 R ALARM Y LOOP G ACTIVE R ALARM Y LOOP G ACTIVE P O R T P O R T 4 3 R ALARM Y LOOP G ACTIVE P O R T P O R T P O R T P O R T 6 5 P O R T P O R T 2 1 8 7 R ALARM Y LOOP G ACTIVE R ALARM Y LOOP G ACTIVE P O R T P O R T 10 9 R ALARM Y LOOP G ACTIVE P O R T 12 11 H10004 P O R T Table 2-38 UFI-12V.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Note The following port speeds are supported on the UFI-12V.35 back card: 56, 64, 112, 128, 168, 192, 224, 256, 320, 336, 384, 448, 512, 640, 672, 768, 896, 960, 1024, 1280, 1344, 1536, 1920, 2048, 3072, 4096, 5120, 6144, 7168, 8192, 9216, and 10240 kbps. UFI-12X.21 Back Card Note The UFI-12X.21 back card is compatible with the UFM-U front card. It is not compatible with either the UFM-4C or the UFM-8C front cards. The UFI-12X.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Figure 2-28 UFI-12X.21 Faceplate UFI-12 X.21 R ALARM Y LOOP G ACTIVE P O R T P O R T 2 1 R ALARM Y LOOP G ACTIVE R ALARM Y LOOP G ACTIVE P O R T P O R T 4 3 R ALARM Y LOOP G ACTIVE P O R T P O R T P O R T P O R T 6 5 P O R T P O R T 2 1 8 7 R ALARM Y LOOP G ACTIVE R ALARM Y LOOP G ACTIVE P O R T P O R T 10 9 R ALARM Y LOOP G ACTIVE P O R T 12 11 H10005 P O R T Table 2-39 UFI-12X.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Note The following port speeds are supported on the UFI-12X.21 back card: 56, 64, 112, 128, 168, 192, 224, 256, 320, 336, 384, 448, 512, 640, 672, 768, 896, 960, 1024, 1280, 1344, 1536, 1920, 2048, 3072, 4096, 5120, 6144, 7168, 8192, 9216, and 10240 kbps. UFI-4HSSI Back Card Note The UFI-4HSSI back card is compatible with the UFM-U front card. It is not compatible with either the UFM-4C or the UFM-8C front cards.
Chapter 2 Cisco IGX 8400 Series Cards Universal Frame Module Figure 2-29 UFI-4HSSI Faceplate UFI-4 HSSI R ALARM Y LOOP G ACTIVE PORT 1 R ALARM Y LOOP G ACTIVE R ALARM Y LOOP G ACTIVE PORT 2 R ALARM Y LOOP G ACTIVE PORT 3 R ALARM Y LOOP G ACTIVE H10003 PORT 4 Table 2-40 UFI-4HSSI LEDs LED Function Green The port is active and functional (to determine the LED for a specific port, refer to the label on either side of the physical connector). Yellow The port is active and in loopback mode.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Frame Relay Module Table 2-41 shows the front and back cards supported for the Frame Relay module (FRM). Table 2-41 Frame Relay Module Front and Back Cards Note Front Cards Compatible Back Cards FRM, unchannelized (Model D) FRI-V.35 (Models A and B) FRI-X.21 (Model A) FRM, channelized (Model E) FRI-T1 (Model A) FRI-E1 (Model A) The Frame Relay module (FRM) is no longer available for sale through Cisco Systems, Inc.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Note FRM front cards exist in two forms. One uses an ACM1 adapter. The other is a single-card or “native” version. Functionally, they are identical. For the single-card version, you must use FRM firmware version V or later. Frame Relay Interface V.35 and X.21 Back Cards Both the Frame Relay interface V.35 (FRI-V.35) and X.21 (FRI-X.21) back cards provide the FRM with interfaces to user equipment. The FRI-V.35 provides four V.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Figure 2-30 FRI-V.35 Back Card Faceplate FRI V-35 Port 1 Port 2 Port 3 Port 4 H8325 Fail (red) Active (green) FRI-X.21 Back Card The FRI-X.21 back card has the following features: • Four FR data ports with CCITT X.21 interface through DB-15 connectors. • Support for all standard X.21 data rates up to 2048 kbps. • Support for C (control) and I (indication) control leads.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Figure 2-31 FRI-X.21 Back Card Faceplate FRIX.21 Port 1 Port 2 Port 3 Port 4 H8327 xxxxxx xxxx xxx xxxxxx xxx xxxx x xx xx xx xx Configuring an FRM with FRI-V.35 Back Card Most configuration tasks for the FRM follow standard IGX module configuration procedures. However, the FRM with FRI-V.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Table 2-43 Maximum Throughputs with the FRI-V.35 Back Card Maximum Throughput with 1 Port Maximum Throughput with 2 Ports Maximum Throughput with 3 Ports Maximum Throughput with 4 Ports 2048 or 1920 kbps 1024 kbps/port 672 kbps/port 512 kbps/port Data Clocking on the FRI-V.35 Back Card The FRI-V.35 back card supports both normal and looped clocking modes.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Figure 2-32 FR Data Clocking Modes on FRI-V.35 Back Card A. Normal clock - TxC and RxC must be the same frequency User device FRI (DTE) (DCE) TxD XD TxC XTC (not used) CLK RD B. Looped clock - User device loops clock User device (DTE) FRI (DCE) TxD XD XTC TxC (not used) RD RxD H8071 CLK Note In looped clocking, the clock is looped by the FRI-V.35 back card, not the connected user device. Port Testing on the FRI-V.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Configuring an FRM with FRI-X.21 Back Card FRI configuration supports one to four ports. The configuration depends on the maximum speed requirement (the card itself has a maximum composite speed). Note The following port speeds are supported on the FRM with FRI-X.21 back card: 56, 64, 112, 128, 168, 192, 224, 256, 320, 336, 384, 448, 512, 640, 672, 768, 896, 960, 1024, 1280, 1344, 1536, 1920, and 2048 kbps. Data Clocking on the FRI-X.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Port Testing on the FRI-X.21 Back Card To test FRI-X.21 back card ports and any associated external modems, CSUs, or NTUs, set up data loopback points in the circuit path using one of the following loopbacks: • An internal port loopback • A loopback of the near end (local) modem • A loopback of the far end (remote) modem To set up a loopback test, use the switch software tstport command. You can only test one port in loopback mode at a time.
Chapter 2 Cisco IGX 8400 Series Cards Frame Relay Module Figure 2-35 FR T1 and E1 Back Cards FRI-T1 FRI-E1 E1 input/output RXMON - monitor jack RX TXMON - monitor jack TX LOS (red) Red alarm (red) Yellow alarm (yellow) AIS (green) LOS (red) Red alarm (red) Yellow alarm (yellow) AIS (green) MFRA (red) MFYA (yellow) Fail (red) Active (green) Fail (red) Active (green) H8326 T1 input/output Table 2-44 FRI-T1 and FRI-E1 LEDs Back Card LED Color Function FRI-T1 FRI-E1 LOS Red The line has
Chapter 2 Cisco IGX 8400 Series Cards High-Speed Data Module High-Speed Data Module Table 2-45 shows the front and back cards supported for the high-speed data module (HDM). Table 2-45 High-Speed Data Module Front and Back Cards Front Card Back Cards HDM SDI, EIA/TIA-449 (for X.21 also) SDI, EIA/TIA-232D (for V.24 also) SDI, V.35 The HDM consists of an HDM front card and a synchronous data interface (SDI) back card.
Chapter 2 Cisco IGX 8400 Series Cards High-Speed Data Module Figure 2-36 HDM Controls and Indicators PORT ! Port 1-4 (yellow) PORT 2 PORT 3 PORT 4 Scroll SCROLL Loop LOOP Port under test (yellow) LL (yellow) RL (yellow) DTR (green) TXD (green) DCD (green) RXD (green) PORT UNDER TEST LL RL DTR TXD DCD RXD Fail (red) Active (green) FAIL ACTIVE H8330 HDM Table 2-46 HDM Front Card Faceplate LEDs LED Color Function Port 1-4 (4 LEDs) Yellow Indicates which data port on the SDI back ca
Chapter 2 Cisco IGX 8400 Series Cards High-Speed Data Module HDM Control Buttons The HDM front card faceplate has two control buttons used to assist monitoring tasks (see Figure 2-36). The scroll control button allows you to select one of the four data ports on the SDI back card for monitoring. Information displayed by the front card faceplate LEDs applies to the selected back card data port only.
Chapter 2 Cisco IGX 8400 Series Cards High-Speed Data Module Figure 2-37 Clocking Modes for SDI in DCE Mode A. Normal clock - TxC and RxC are same frequency User device (DTE) SDI (DCE) TxD XD TxC XTC (not used) RxD RD CLK RxC B. Loop clock - User device loops clock User device SDI (DTE) (DCE) XD TxD X0 XTC TxC (not used) RD RxD RxC User device (DTE) XD C.
Chapter 2 Cisco IGX 8400 Series Cards High-Speed Data Module Figure 2-38 Clocking Modes for SDI in DTE Mode A. Normal clock - TxC and RxC must be same frequency User device (DCE) XD SDI (DTE) TxD XD TxC XTC (not Used) RxD CLK RD RD RxC B. Loop clock - User device loops clock User device (DCE) XD TxD XTC SDI (DTE) XD CLK TxC (not used) RD RxD RD RxC User device (DCE) XD C.
Chapter 2 Cisco IGX 8400 Series Cards Low-Speed Data Module Low-Speed Data Module Table 2-48 shows the front and back cards supported for the low-speed data module (LDM). Table 2-48 Low-Speed Data Module Front and Back Cards Front Card Back Cards LDM LDI 4 LDI 8 The LDM consists of an LDM front card and a low-speed data interface (LDI) back card. There are two LDI variants, depending on the desired number of ports (see Table 2-50).
Chapter 2 Cisco IGX 8400 Series Cards Low-Speed Data Module Figure 2-39 LDM Connections and Indicators Port no. display Scroll SCROLL Loop LOOP Port under test LL RL DTR TXD DCD RXD PORT UNDER TEST LL RL DTR TXD DCD RXD Fail Active FAIL ACTIVE H8331 LDM Table 2-49 LDM Front Card Connections and LEDs Faceplate Item Function Port number display window Indicated which port (1–8) on the back card is currently being monitored.
Chapter 2 Cisco IGX 8400 Series Cards Low-Speed Data Module Table 2-49 LDM Front Card Connections and LEDs (continued) Faceplate Item Function Fail LED (red) An error has occurred. Active LED (green) The card is active and functioning normally. Redundancy for LDM data card types is available through a second front and back card set and a Y-cable connection on each port to the customer data equipment. For more information on Y-cable redundancy, see the “Card Redundancy” section on page 2-15.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module You can use remote loopback (RL) to enable a far-end modem loopback. Local loopback (LL) is not provided as an output on the LDI back card. The LDI back card supports two clocking modes: normal and looped (see Figure 2-40). The normal mode is used when the LDI port is configured as a DCE. Looped clock is only used when the LDI port is configured as a DTE.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module The URM delivers high-density voice interfaces, Fast Ethernet connectivity and ATM switching through a combination of Cisco IOS software and switch software functionality. Note Refer to the Compatibility Matrix for Cisco IOS software, switch software, and firmware compatibility requirements. The URM consists of a logically-partitioned front card connected to a universal router interface (URI) back card.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Figure 2-41 URM Hardware Configuration URI-2FE2V (T1 or E1) URM Voice interface connections CON 37358 Fast Ethernet connections Table 2-54 URM Hardware Components and Related Software Card Component Required Software NPM NPM installed in the Cisco IGX chassis Switch Software Release 9.3.20 or later URM front card Embedded UXM-E Note Switch Software Release 9.3.30 or later is required for BC-URI-2FE back card support.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Table 2-54 URM Hardware Components and Related Software (continued) Card Component Required Software BC-URI-2FE2VE1 back card VWIC-2MFT-E1 (factory-installed) – BC-URI-2FE back card – Switch Software Release 9.3.30 or later release URM Administration Firmware Version XBA Cisco IOS Release 12.2(2)XB URM Front Card To locate different LEDs on the URM front card faceplate, see Figure 2-42.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Table 2-55 URM Front Card Faceplate LEDs LED Color Meaning LP Yellow A loopback condition (either local or remote) exists on one or both T1/E1 interfaces. CD/AL Red A carrier is not detected or an alarm condition exists on one or both of the T1 or E1 interfaces. IOS SYS Green (Blinking) The Cisco IOS image is loading. (Steady) The Cisco IOS software is up. FAIL Red Self-test has detected a card failure.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module • Local and remote loopbacks for port and circuit testing • A single RJ-45 console port for direct Cisco IOS CLI access for serviceability (also used for initial configuration of the router module) • Cisco IOS voice features available in Cisco IOS Release 12.1(5)YA, including switched voice, VoIP, and VoATM • DSP549 voice processing capability • ADPCM voice compression at 32 kbps or 24 kbps per G.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module The VWIC-2MFT is a generic dual port T1 (VWIC-2MFT-T1) or E1 (VWIC-2MFT-E1) digital voice interface in a combined voice and WAN interface card (VWIC) for voice applications.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Table 2-56 BC-URI-2FE2V T1 and BC-URI-2FE2VE1 Connections Connector Function Console port A standard RJ-45 port that supports EIA/TIA-232 communication to a Cisco IOS CLI. 10/100 Fast Ethernet ports (FE0 and FE1) Standard RJ-45 UTP interfaces that support 10 Mbps, or 100 Mbps full or half duplex.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Figure 2-44 BC-URI-2FE Back Card Faceplate URI-2FE CON FE0 100Mbps LINK DPLX FE1 100Mbps LINK DPLX 62308 Table 2-59 BC-URI-2FE Back Card LEDs LED Color Meaning 100 Mbps Green The link speed is 100 Mbps. LINK Green The link is up. DPLX Green The link is in full-duplex mode. Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module URM Configuration Tip Configuring the URM requires previous knowledge of both switch software and Cisco IOS software. Refer to both switch software and Cisco IOS documentation while configuring the URM (see the “Accessing User Documentation” section on page xii). Initial URM configuration differs from other IGX cards because you must perform configuration tasks by accessing two different software programs through two different CLIs.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Note Step 5 If you have not connected a terminal to the CON port on the back card, you will not see the embedded router’s initial start-up screens (see the “Cisco IOS Software Commands for the URM” section on page 2-103 for an example startup screen). (Optional) Configure the internal ATM port to support ILMI with the switch software cnfport command.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module X.25 software, Version 3.0.0. SuperLAT software (copyright 1990 by Meridian Technology Corp). Primary Rate ISDN software, Version 1.1. --More-IGX slot number 15 URM image loaded from flash (controlled by "cnfrtrparm" on IGX) URM booting with BLANK configuration (controlled by "cnfrtr" on IGX) Front card type:URM Main Board Back card type:URI-2FE2V 2 FastEthernet/IEEE 802.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module The following differences between the two operating systems can impact connection setup: • Switch software CLI uses cells per second (cps) as the unit of measure for specifying traffic parameters; Cisco IOS software uses kilobytes per second (kbps). • Switch software and Cisco IOS software use different default values for traffic parameters. • URM system software and Cisco IOS software do not handle UBR connections in the same way.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Tip Step 2 If your entire router configuration is less than 256 kb in size, completely configure the router with RRC using only one Cisco IOS configuration file. Write down the following information: • IP address for the TFTP server: _____________________ • File path: _____________________ • Filename: _____________________ You need this information in Step 3.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Tip The card does not reset after copying the Cisco IOS configuration file from the NPM to the Admin Flash on the URM. If you want the card to run the copied Cisco IOS configuration file, reset the card with the switch software rstrtr or resetcd commands. Step 10 Verify the name and size of the Cisco IOS configuration file located in the admin Flash on the URM with the switch software dsprtrslot slot command.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module For information on Cisco IOS commands, use one of the following sources: • “Cisco IOS Software Commands for the URM” section on page 2-103 • Cisco IOS Configuration Fundamentals Configuration Guide, Release 12.1 • Cisco IOS Configuration Fundamentals Configuration Guide, Release 12.2 • Cisco IOS Release 12.1 • Cisco IOS Release 12.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Requirements Tip • Cisco WAN Switching Software Release 9.4 or later release on the NPM • Firmware Version XBC or later version on the URM To verify that your URM supports the Cisco IOS window session feature, enter the dspcd slot command: sw199 TN Cisco IGX 8420 9.3.t6 Apr.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Task 1: Configuring the URM Cisco IOS CLI Window Feature To configure the URM Cisco IOS CLI window feature, complete the following steps: Step 1 To create an internal ATM interface between the URM embedded UXM-E and router, enter the addport slot.1 command: Next Command: addport 10.1 Step 2 To configure the window escape string, enter the cnftermfunc r 1 value command.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Task 3: Terminating the URM Cisco IOS CLI Window Session To terminate the window session from the URM Cisco IOS CLI, enter the configured window escape string in any Cisco IOS configuration mode. For information on configuring the window escape string, see Step 2 in the “Task 1: Configuring the URM Cisco IOS CLI Window Feature” section on page 2-101.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Cisco IOS Software Commands for the URM You can use standard Cisco IOS commands at the Cisco IOS CLI to configure voice connections on the URM. See Table 2-61 for a summary of Cisco IOS commands used to configure the URM for the first time. The URM stores two Cisco IOS images: the main system image stored in system Flash, and the boot helper image stored in boot Flash.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Self decompressing the image : ############################################################################################################# ############################################################################################################# ############################################################################################################# ######################################################################################
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Compiled Wed 24-Jan-01 12:29 by yiyan Image text-base: 0x60008960, data-base: 0x6113E000 cisco URM (R527x) processor (revision 01) with 57344K/8192K bytes of memory. Processor board ID R527x CPU at 225Mhz, Implementation 40, Rev 10.0 Bridging software. X.25 software, Version 3.0.0. SuperLAT software (copyright 1990 by Meridian Technology Corp). Primary Rate ISDN software, Version 1.1.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Router>en Router# Router# show version Cisco Internetwork Operating System Software IOS (tm) 3600 Software (URM-IS-M), Version 12.1(5)YA, RELEASE SOFTWARE (fc1) TAC Support: http://www.cisco.com/cgi-bin/ibld/view.pl?i=support Copyright (c) 1986-2001 by cisco Systems, Inc. Compiled Wed 24-Jan-01 12:29 by yiyan Image text-base: 0x60008960, data-base: 0x6113E000 ROM: System Bootstrap, Version 12.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module call rsvp-sync ! ! ! ! ! controller T1 2/0 ! controller T1 2/1 ! ! interface ATM0/0 no ip address no atm ilmi-keepalive ! interface FastEthernet1/0 no ip address shutdown duplex auto speed auto ! interface FastEthernet1/1 no ip address shutdown duplex auto speed auto ! ip classless no ip http server ! ! dial-peer cor custom ! ! ! ! line con 0 transport input none line aux 0 line vty 0 4 ! end Router# Router# Configuring URM Connections Each UR
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Connections terminating on the URM can be virtual path connections (VPC) or virtual channel connections (VCC). The Cisco IOS router in the URM connects to Cisco IGX WAN through an internal ATM interface on the URM card.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module URM Management URM functionality is not supported by Cisco WAN Manager (CWM), CiscoWorks 2000 (CW2K) or Cisco Voice Manager (CVM). Therefore, configuration information must be entered through switch software CLI and Cisco IOS CLI. See the following network management features: Note • Initial Cisco IOS configuration on the URM requires you to access the Cisco IOS CLI through the hard-wired console port on the back card.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Troubleshooting the URM You can use both switch software self-test and background test diagnostic commands on the URM (see Table 2-62). Self-test works with the embedded UXM-E. Table 2-62 Port and Connection Diagnostic Commands for the URM Local Endpoint (on URM) Remote Endpoint (on URM) Command Description cnftstparm card type Enables or disables the URM self-test and ATM background test. – – addloclp slot.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Cisco IOS Image Recovery If the main Cisco IOS system image stored in Flash is lost or damaged, you can use the Cisco IOS boot helper image to copy backup images or configuration files from an external TFTP server or another online source. Step 1 At the switch software CLI, configure the embedded router to load the boot helper image instead of the system image at router startup with the switch software cnfrtrparm slot 1 2 command.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Caution The VWIC component of the URI back card is not hot-swappable; removal of the VWIC can damage the URM. Step 1 Using the Cisco IOS command copy, save the Cisco IOS configuration to an external TFTP server. Step 2 In a separate terminal session, connect with the embedded UXM-E. Step 3 Using the switch software command cnfrtr slot n 1, reconfigure the embedded router to load the Cisco IOS configuration file from the NPM.
Chapter 2 Cisco IGX 8400 Series Cards Universal Router Module Step 1 Caution Step 2 Attach an ESD-preventive wrist strap before handling the card. The Cisco IGX 8400 series cabinet has attached wrist straps on the front and the back of the chassis. Always follow ESD-prevention procedures when you remove and replace components. Wear an ESD-preventive wrist strap or ground yourself by periodically touching the metal part of the chassis.
Chapter 2 Cisco IGX 8400 Series Cards Switch Software Command Related to Cards Switch Software Command Related to Cards Full command descriptions for the switch software commands listed in Table 2-63 can be accessed at one of the following links: • For commands addad through cpytrkict, see Chapter 3, “Alphabetical List of Commands addad through cpytrkict” in the Cisco WAN Switching Command Reference.
Chapter 2 Cisco IGX 8400 Series Cards Where To Go Next Table 2-63 Switch Software Commands Related to Cards (continued) Command Description dsprtr (URM only) Displays embedded router configuration information for the specified slot. dsprtrcnfdnld (URM only) Displays the download status for the Cisco IOS configuration file during RRC. dsprtrslot (URM only) Displays operational information for the embedded router in the specified slot.
Chapter 2 Cisco IGX 8400 Series Cards Where To Go Next Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
C H A P T E R 3 Cisco IGX 8400 Series Nodes In an IGX-only network, IGX nodes function as both network backbones and network access points. In a mixed network, an IGX node can perform a variety of functions, including traffic routing and bandwidth optimization, network administration and synchronization, and job management. For information about the BPX, see Chapter 1, “The BPX Switch: Functional Overview,” in the Cisco BPX 8600 Series Installation and Configuration guide.
Chapter 3 Cisco IGX 8400 Series Nodes Functional Overview Whenever a clock source changes (because of a line repair or an operator’s command, for example) the node ensures that the clock path remains hierarchical. Also, whenever a subnetwork is merged with another subnetwork, each node in the new network verifies that it has the nearest, most stable clock that is available. A continuous clock test compares the frequency of the node clock source to a reference on the control card.
Chapter 3 Cisco IGX 8400 Series Nodes Functional Overview Figure 3-1 Clock Provided by Vendor Central reference frequency Network Vendor A Vendor B DACS Circuit line DACS p Clock source Circuit line epsilon E-1 span s Clock source beta alpha delta S5264 gamma In this example of a network, vendor A provides the most reliable clock source. Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Node Configuration Figure 3-2 Clock Source in Node Subnetwork B Subnetwork A Primary clock source A delta T1 gamma epsilon T1 Primary clock source B digamma S5265 beta T1 alpha If the packet lines in the T1 span between nodes alpha and delta are defined to pass clock synchronization, then node delta could attempt to synchronize with primary clock source A as well as with primary clock source B, because the distance in hops (instead of miles or kilomet
Chapter 3 Cisco IGX 8400 Series Nodes IGX Node Configuration Step 1 Establish a connection with the node, typically through a direct console connection. Step 2 Configure the node name (see the “Naming a Node” section on page 3-5), and node time zone (see the “Configuring the Time Zone” section on page 3-5). Step 3 If the node will be the network’s primary node, configure the node date and node time (see the “Configuring the Date and Time” section on page 3-5).
Chapter 3 Cisco IGX 8400 Series Nodes IGX Node Configuration Adding an Interface Shelf An interface shelf is a non-routing device that drives ATM cells to and from an IGX routing hub in a tiered network. (An interface shelf is also sometimes referred to as a feeder shelf.) An interface shelf can be either an IGX or MGX 8850 node configured as an interface shelf, or an MGX 8220 interface shelf.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Node Configuration Table 3-2 Specifying Card Redundancy Command Description addyred Specifies the slots of the primary and secondary cards that form the redundant pair. delyred Disables Y-cable redundancy for the card set in the specified primary slot number. dspyred Displays information for Y-cable pairings. prtyred Prints information for Y-cable pairings.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Node Configuration Note Terminating connections is possible only at a primary slot and not at a secondary slot. See the addcon command description in the Cisco WAN Switching Command Reference. On multiport card sets, each primary port is connected by a Y-cable to a secondary (redundant) port. Port 1 of the primary card set must be paired to port 1 of the secondary card set, and so on. Figure 3-4 illustrates the cabling for a multiport card set.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Step 3 Configure a 1-8 character escape sequence for the window session with the switch software cnftermfunc command. Write the escape sequence here: ______________________. Step 4 Determine whether the external window device is cabled to the node's control terminal port (c) or auxiliary port (a). Step 5 Start the window session with the switch software window command. If the external device is connected to the auxiliary port, use window a.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Specifying Channel Utilization Use the cnfchutl command to specify the expected utilization of Frame Relay, data, or voice channel as a percentage of the channel’s total capacity. The specified value can be in the range of 0 to 100 percent; 100 percent is the default for data and Frame Relay channels. The default for voice channels is 60 percent. To display the utilization of a particular trunk, use the dsptrkutl command.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management For an example of how this feature works, refer to Figure 3-5. If a trunk is established between switches A and B with a bandwidth of 1000 load units, it can support connection 1 (Conn. 1) with a bandwidth of 800. However, if we add a second connection (Conn. 2) with a bandwidth of 500, the trunk can no longer support both connections.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management All traffic on the connections is uninterrupted, but if Trunk AB fails, Trunk BC, with a bandwidth of 600, cannot handle the total bandwidth of both connections (700). Connection 1 is in Band 5; connection 2 is in Band 7. The lower the band, the higher the priority. Connection 2 is bumped to accommodate connection 1 with the higher priority.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Figure 3-6 Priority Bumping Among Three Nodes AB trunk bandwidth = 1000 A B Conn. 1 = COS 10 (band 5), bandwidth = 400 Conn. 2 = COS 14 (band 7), bandwidth = 300 AC trunk bandwidth = 500 BC trunk bandwidth = 600 C Trunk AB fails A Conn. 1 = COS 10 (band 5), bandwidth = 400 Conn. 1 = COS 10 (band 5) bandwidth = 400 B Conn. 1 = COS 10 (band 5) bandwidth = 400 AC trunk bandwidth = 500 BC trunk bandwidth = 600 33974 C Conn.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Routine Network Administration The following tasks are included in routine network administration: • Logging In to the System, page 3-14 • Logging Off the System, page 3-14 • Changing a Password, page 3-14 Logging In to the System Logging in to a node is a two-step process that requires you to enter a User ID and a password. The system or network administrator can provide a User ID and password to you.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Synchronizing the Network Network synchronization includes specification of primary, secondary, and tertiary clock sources. The latter two sources serve as backups in case of clock failures. The cnfclksrc command specifies the source of a clock and can remove a previously specified clock source. Multiple primary sources, multiple secondary sources, and multiple tertiary sources are allowed.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Creating (Adding) a Job Consider the following information before creating a job: • The addjob command creates a new job. When you use addjob, the system prompts for optional and required arguments. Unlike other commands, the addjob command begins with optional parameters. A job can run when you enter the runjob command or at a time and date you specify with addjob.
Chapter 3 Cisco IGX 8400 Series Nodes IGX Network Management Displaying Jobs To display a job, use the following commands: • Use the dspjob command to display the status of a job. This command displays the template for the specified job and includes the results of the last run for each command in the job. • To display a summary of existing jobs, use the dspjobs command. Editing a Job The following information applies to editing a job. Before using an edited job, test it to ensure that it works.
Chapter 3 Cisco IGX 8400 Series Nodes Troubleshooting Troubleshooting This section describes how to diagnose problems. The IGX operating system software does most of the IGX monitoring and maintenance. The only action that qualifies as preventive maintenance is checking the power supplies. Tip For information on the switch software commands listed in this section, see the full command description in the Cisco WAN Switching Command Reference.
Chapter 3 Cisco IGX 8400 Series Nodes Troubleshooting General Troubleshooting Procedures The IGX node regularly runs self-tests to ensure proper function. When the node finds an error condition that affects operation, it deactivates the affected card and then activates a standby card if one is available. Caution The fail LED on a card indicates that an error occurred. Try resetting the light with the resetcd f command.
Chapter 3 Cisco IGX 8400 Series Nodes Troubleshooting Note If dspcds or any other command incorrectly states the IGX model (for example, stating that an IGX 8420 node is an IGX 8430 node), check the jumper switch W6 on the SCM. A jumpered W6 indicates an IGX 8420 node. An open W6 indicates an IGX 8430 node. For more information, see the “Preparing the Cards” section on page 3-1 in Chapter 3 of the Cisco IGX 8400 Series Installation Guide. See Table 3-8 for status descriptions for each card type.
Chapter 3 Cisco IGX 8400 Series Nodes Troubleshooting User-Initiated Tests Several user commands help you test the node status. The switch software CLI commands are: • tstcon • tstport for data and Frame Relay ports For details on these commands, see the Cisco WAN Switching Command Reference. Loopback Tests Loopback tests are available to help diagnose the state of the IGX system.
Chapter 3 Cisco IGX 8400 Series Nodes Switch Software Commands Related to IGX Nodes Switch Software Commands Related to IGX Nodes Full command descriptions for the switch software commands listed in Table 3-9 can be accessed at one of the following links: • For commands addad through cpytrkict, see Chapter 3, “Alphabetical List of Commands addad through cpytrkict” in the Cisco WAN Switching Command Reference.
Chapter 3 Cisco IGX 8400 Series Nodes Where to Go Next Where to Go Next For information on IGX trunks, refer to Chapter 5, “Cisco IGX 8400 Series Trunks” For installation and basic configuration information, see the Cisco IGX 8400 Series Installation Guide, Chapter 1, “Cisco IGX 8400 Series Product Overview” For more information on switch software commands, refer to the Cisco WAN Switching Command Reference, Chapter 1, “Command Line Fundamentals.” Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
Chapter 3 Cisco IGX 8400 Series Nodes Where to Go Next Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
C H A P T E R 4 Cisco IGX 8400 Series Trunks This chapter provides information on configuring and managing trunks which have at least one endpoint on an IGX node. If the trunk has an endpoint on a different type of node, such as a BPX, refer to the appropriate product documentation for specific information on configuring trunks on those nodes (see the “Related Documentation” section on page viii).
Chapter 4 Cisco IGX 8400 Series Trunks Functional Overview Table 4-2 Trunk Types Supported on the IGX (continued) Front Card Back Card Trunk Type Technology UXM-E BC-UAI-4-155-MMF BC-UAI-4-155-SMF BC-UAI-2-155-SMF BC-UAI-2-SMFXLR BC-UAI-4-SMFXLR BC-UAI-4-STM1E OC-3 (STM) ATM UXM-E BC-UAI-3-T3 BC-UAI-6-T3 T3 ATM UXM-E BC-UAI-3-E3 BC-UAI-6-E3 E3 ATM UXM-E BC-UAI-4T1-DB-15 BC-UAI-8T1-DB-15 T1 NxT1 ATM UXM-E BC-UAI-4-E1-DB-15 BC-UAI-8-E1-DB-15 BC-UAI-4-E1-BNC BC-UAI-8-E1-BNC E1 NxE1
Chapter 4 Cisco IGX 8400 Series Trunks Functional Overview Virtual Trunking on the IGX A virtual trunk is a trunk defined over a public ATM service. Virtual trunks provide customers with a cost-effective way to build a private network over a public ATM network. This hybrid network configuration allows private virtual trunks to use the mesh capabilities of the public network to interconnect the nodes found in the private network.
Chapter 4 Cisco IGX 8400 Series Trunks Functional Overview Note VPCs cannot be routed over a virtual trunk, due to the way virtual trunks are represented in the public ATM network. For information on virtual trunk support and compatibility, see the “Virtual Trunks Supported on the IGX” section on page 4-5. For information on setting up a virtual trunk, see the “Configuring a Virtual Trunk on the IGX” section on page 4-9.
Chapter 4 Cisco IGX 8400 Series Trunks Functional Overview Virtual Trunks Supported on the IGX Virtual trunks are not supported in mixed networks, and require switch software Release 9.2 or later. See Table 4-5 for virtual trunk connections supported on the IGX. Note The IGX supports a maximum of 15 virtual trunks per card, and a combined maximum of 32 logical trunks (physical and virtual trunks) per node.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Configuration Sample IGX IMA Feeder Node Topology IGX-feeder U F M IGX-hub U X ME U X ME U X ME IGX-hub IMA cloud U X ME U X ME 29454 Figure 4-2 IMA-trunk 8.3-8 IGX Trunk Configuration This section provides information on configuring a trunk with at least one endpoint on an IGX node.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Configuration When the UXM-E reports the back card interface to the NPM, switch software allocates a default number of UBUs to the card (see Table 4-6). This default number can be changed using the following procedure: Step 1 Using the switch software dspbusbw command, determine the average used bandwidth for the node. Note Timesaver Table 4-6 When you use the dspbusbw command, a yes/no prompt asks if you want firmware to retrieve the usage values.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Configuration Bandwidth on IMA Trunks and Lines The transfer and receive rates for an IMA trunk or line is the sum of all physical lines minus the overhead used by the IMA protocol. The overhead used by the IMA protocol is defined in the following rules: • If the IMA trunk or line group consists of 1-4 physical lines, the IMA protocol overhead is 1 DS0.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Configuration Setting Up a Trunk Before setting up a trunk, finish setting up the nodes (see Chapter 3, “Cisco IGX 8400 Series Nodes”). After setting up the nodes, follow this procedure to set up a trunk between the nodes: Step 1 Confirm that the front and back cards supporting the desired line type and communication technology for the trunk are in the slot you intend to use for the trunk.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Management Step 5 (Optional) Configure the number of connection IDs and the available bandwidth for the virtual trunk with the switch software cnfrsrc command. Step 6 Add the virtual trunk with the switch software addtrk slot.port.vtrk command. You only need to use the addtrk command on one end of the trunk. Note Each end of a virtual trunk can have a different port interface.
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Troubleshooting Before reconfiguring a trunk, check the current trunk parameters using the switch software dsptrkcnf command. Then follow this procedure to reconfigure the trunk: Step 1 See whether the desired changes require you to delete the trunk (see “cnftrk” in the “Setting Up Trunks” chapter of the Cisco WAN Switching Command Reference).
Chapter 4 Cisco IGX 8400 Series Trunks IGX Trunk Troubleshooting Table 4-9 Physical and Logical Trunk Alarms Physical Alarm Type T1 E1 T3 E3 SONET Logical Statistical Integrated LOS X X X X X – X X OOF X X X X X – X X AIS X X X X X – X X YEL X X X X X – – X PLCP OOF – – X – – – – X LOC – – – X X – – X LOP – – – – X – – X PATH AIS – – – – X – – X PATH YEL – – – – X – – X PATH TRC – – – – X – – X SEC TRC –
Chapter 4 Cisco IGX 8400 Series Trunks Switch Software Commands Related to IGX Trunks Switch Software Commands Related to IGX Trunks Full command descriptions for the switch software commands listed in Table 4-10 can be accessed at one of the following links: • For commands addad through cpytrkict, see Chapter 3, “Alphabetical List of Commands addad through cpytrkict” in the Cisco WAN Switching Command Reference.
Chapter 4 Cisco IGX 8400 Series Trunks Where to Go Next Table 4-10 Switch Software Commands Related to Trunks (continued) Switch Software Command Description prttrks Prints all trunks on a node. uptrk Activates (ups) a trunk.
C H A P T E R 5 Cisco IGX 8400 Series Lines This chapter provides information on configuring and managing lines. For information about the BPX, see Chapter 1, “The BPX Switch: Functional Overview,” in the Cisco BPX 8600 Series Installation and Configuration guide. Functional Overview A line is an nxT1, nxE1, T1, T3, E1, E3, or OC3 circuit that carries data, voice, FR or ATM traffic between an IGX node and customer premises equipment (CPE). Each CPE is attached to a node through a circuit line.
Chapter 5 Cisco IGX 8400 Series Lines Functional Overview IMA lines on the IGX support the following features: • Support for up to 8 T1/E1 lines. • Support for connections to any CPE that is ATM Forum IMA Standard Version 1.0 compliant. • Support for both IMA and non-IMA lines on the same card.
Chapter 5 Cisco IGX 8400 Series Lines IGX Line Configuration IGX Line Configuration This section provides information on setting up and configuring a line on an IGX node. Setting Up a Line Before setting up a line, finish setting up the node(s) and network trunks. You must set up lines before provisioning voice, data, FR, or ATM services that use these lines.
Chapter 5 Cisco IGX 8400 Series Lines Where to Go Next Table 5-3 Switch Software Commands Related to Lines on the IGX Command Description cnfln Configures a line. cnflnstats Configures logical line statistics. cnfphyslnstats Configures physical line statistics. cnfrsrc Configures resources. dnln Deactivates (downs) a line. dsplncnf Displays the line configuration (same as dspln). dsplns Displays all lines on the node. dsplnstathist Displays line statistics history.
C H A P T E R 6 Cisco IGX 8400 Series Data Service Data Service—Functional Overview This chapter provides information on provisioning and managing data service on an IGX node. For information on provisioning service on other node types, such as the BPX, see the appropriate product documentation. For information about the BPX, see Chapter 1, “The BPX Switch: Functional Overview,” in the Cisco BPX 8600 Series Installation and Configuration guide.
Chapter 6 Cisco IGX 8400 Series Data Service Data Service Provisioning Table 6-1 Data Service Connections Supported on the IGX Cards Connection Connection Type and Description UVM, CVM Voice connection PCM or 64 kbps transparent data connections. HDM, LDM Data connection Transparent bit stream, with only one connection per channel. Data frame multiplexing (DFM) can be used to suppress repetitive patterns to improve bandwidth efficiency for 128 kbps or slower connections.
Chapter 6 Cisco IGX 8400 Series Data Service Data Service Provisioning To set up a data connection, use the following procedure: Step 1 Add the connection to the data channel with the switch software addcon command. Step 2 (Optional) Specify the clocking for the data channel with the switch software cnfdclk command. Step 3 Continue with additional channel configurations as needed.
Chapter 6 Cisco IGX 8400 Series Data Service Data Service Provisioning Enabling DFM on a Data Channel Note DFM is a purchased feature. Contact your Cisco account representative for more information (see the “Obtaining Technical Assistance” section on page xiv). DFM on the IGX allows suppression of repetitive data patterns (such as idle codes) at the source node and regeneration of the repetitive data pattern at the remote node, resulting in more efficient bandwidth utilization.
Chapter 6 Cisco IGX 8400 Series Data Service Switch Software Command Related to Data Service Switch Software Command Related to Data Service Full command descriptions for the switch software commands listed in Table 6-2 can be accessed at one of the following links: • For commands addad through cpytrkict, see Chapter 3, “Alphabetical List of Commands addad through cpytrkict” in the Cisco WAN Switching Command Reference.
Chapter 6 Cisco IGX 8400 Series Data Service Where to Go Next Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
C H A P T E R 7 Cisco IGX 8400 Series Voice Service Voice Service—Functional Overview The IGX supports voice connections through installation and configuration of the following voice-service modules: • Universal voice module (UVM—see the “Universal Voice Module” section on page 2-36) • Channelized voice module (CVM—see the “Channelized Voice Module” section on page 2-44) • Universal router module (URM—see the “Universal Router Module” section on page 2-84) Signaling Signaling allows a phone or other
Chapter 7 Cisco IGX 8400 Series Voice Service Voice Service—Functional Overview Voice Connections Supported on the IGX For further information on the following topics, proceed as follows: • Connections supported on the IGX, see Table 7-1 • Signaling on the CVM, see the “Signaling on the CVM” section on page 7-4 • Signaling on the URM, see the “Signaling on the URM” section on page 7-4 • Signaling on the UVM, see the “Signaling on the UVM” section on page 7-2 Table 7-1 Voice Connections Supported
Chapter 7 Cisco IGX 8400 Series Voice Service Voice Service—Functional Overview Table 7-2 Signaling Formats Supported on the UVM Line Type Line Framing Signaling Format Signaling Bit T1 D4 CSS — T1 ESF CSS — T1 ESF CAS ABAB T1 ESF CAS ABCD T1 D4 CAS AB E1or Y1 — CAS ABCD E1or Y1 — CSS — The UVM extracts information from the CAS signaling bits in the T1, E1, or J1 frame.
Chapter 7 Cisco IGX 8400 Series Voice Service Voice Service—Functional Overview Signaling on the CVM The CVM extracts signaling information from the signaling bits in an E1, T1, or J1 frame. When a signaling bit changes state, the CVM or UVM generates signaling packets for the CVM at the other end of the connection.
Chapter 7 Cisco IGX 8400 Series Voice Service Voice Service Provisioning Idle-Code Suppression Idle-code suppression (ICS) detects the idle (on-hook) state of a video call, which uses an nx64 kbps data connection, and suppresses packet transmission during an idle condition. The UVM or CVM identifies the idle condition by detecting the repetition of idle codes. IGX switch software enables or disables the ICS feature dynamically.
Chapter 7 Cisco IGX 8400 Series Voice Service Switch Software Commands Related to Voice Service When provisioning voice service, you will complete the following tasks: 1. Configure and activate the line (see the “IGX Line Configuration” section on page 5-3). 2. (optional—UVM only) Configure channel pass-through (see the “Channel Pass-Through” section on page 7-5).Configure channel parameters for the voice connection (see the “Setting Up a Voice Connection” section on page 7-6). 3.
Chapter 7 Cisco IGX 8400 Series Voice Service Where to Go Next Table 7-4 Switch Software Commands Related to Voice Service (continued) Command Description cnfchec Configures the echo canceller for the channel—enables or disables the echo canceller for a range of voice channels and configures other echo canceller functions. cnfchgn Configures the amount of gain inserted in a voice channel. cnfchutl Configures channel utilization for the channel.
Chapter 7 Cisco IGX 8400 Series Voice Service Where to Go Next Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
C H A P T E R 8 Cisco IGX 8400 Series ATM Service This chapter provides information on provisioning and managing ATM service in a network containing at least one IGX node. If the network contains other types of nodes, such as a BPX, please refer to the appropriate product documentation for specific information on provisioning ATM service on those nodes. For information about the BPX, see Chapter 1, “The BPX Switch: Functional Overview,” in the Cisco BPX 8600 Series Installation and Configuration guide.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service—Functional Overview • Available bit rate (ABR), used for connections that do not require a timing relationship between the source and the destination. ABR provides best-effort service, but does not provide guaranteed minimum cell loss rate or cell transmission delay. ABR is often used for LAN-WAN services, such as router traffic.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service—Functional Overview Figure 8-1 Service Template Overview SC database 1 Qbin 10 SC database 2 Qbin 11 SC database 3 SC database 23 SC database per template Qbin 15 Qbin databases per VC database SC means for service class. Each preconfigured template is one of the above for each of 9 service templates (VC database + Qbin (10-15).
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service—Functional Overview Figure 8-2 UXM Virtual Interfaces and Qbins qbins 0 Port 1 Virtual trunk 4.1.1 Virtual trunk 4.1.2 Virtual trunk 4.1.3 15 Port 2 Trunk 4.2 VI_2 qbins 0 Port 3 VI_3 qbins 0 UXM-E VI_1 15 Port 4 Line (port) 4.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service—Functional Overview Some parameters on the Qbins attached to the interface can be re-configured for each interface. These changes do not affect the Qbin templates, which are stored on the NPM, though they do affect the Qbins attached to the interface.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service—Functional Overview ATM Connections Supported on the IGX The ATM connections shown in Table 8-1 are supported on the IGX.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service Provisioning on the IGX Table 8-2 ATM Endpoints and Connection Types (continued) Endpoints Supported Connection Types UXM-E and UFM ATM frame-forwarding connection (HDLC frames to a single VPI/VCI): VBR.3, ABRFST ATM-FR NIW connections: VBR.3, ABRFST ATM-FR SIW connections: VBR.3, ABRFST UXM-E and FRM ATM frame-forwarding connection (HDLC frames to a single VPI/VCI): VBR.3, ABRFST ATM-FR NIW connections: VBR.
Chapter 8 Cisco IGX 8400 Series ATM Service ATM Service Provisioning on the IGX Calculating and Managing Bandwidth Total bandwidth for the port is specified by the line characteristics (see “Cisco IGX 8400 Series Cards” and Appendix A, “General IGX 8410 Switch Specifications” in the Cisco IGX 8400 Series Installation Guide).
Chapter 8 Cisco IGX 8400 Series ATM Service Switch Software Commands Related to ATM Service Timesaver Step 9 Tip Use connection classes as templates for configuring multiple ATM connections. If a suitable connection class is not configured, use the cnfcls command to modify the connection class most like the one you want to apply to your connection. Configure the desired connection onto the port with the switch software addcon command.
Chapter 8 Cisco IGX 8400 Series ATM Service Where To Go Next Table 8-3 Switch Software Commands Related to ATM Connections (continued) Command Description dspconcnf Displays connection configuration information for the specified connection. dspcons Displays all connections on the line. dsplmistats Displays LMI statistics. dspport Displays port information. dspportq Displays the ARM port Qbin information for the specified port. dspports Displays all ports configured onto the node.
C H A P T E R 9 Cisco IGX 8400 Series Frame Relay Service Note The Frame Relay module (FRM) is no longer available for sale through Cisco Systems, Inc. However, the card set is supported in Switch Software Release 9.3.30 or later to allow legacy users to migrate their networks into the latest switch software release. If you have questions regarding the availability of the FRM, please contact your Cisco account representative.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Frame Relay—Functional Overview Using Frame Relay Classes For each FR connection you add, you must specify an FR class. An FR class is a set of parameters that specify the bandwidth and congestion-prevention characteristics for a connection. Cisco provides ten predefined classes, but you can modify any of the ten FR classes with the cnfcls command. To see the parameters in all connection classes, run the dspcls command.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Frame Relay Provisioning Be/Be is defined as fr_Be_Tx /fr_Be_Rx. If you have selected FR Forum standard parameters (through the cnfsysparm command), the PVC uses Excess Burst (Be) instead of PIR. Be is the amount of transmit/receive data above the number of bytes set by Bc if enough extra bandwidth is available. Specify Be in bytes within the range 1–65535. Delivery of Be-data is not guaranteed. Be has meaning to only ForeSight.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Frame Relay Provisioning Setting Up FR Ports and Connections (UFM) This section outlines the steps for setting up and deleting FR ports and adding connections. Use either a Cisco WAN Manager workstation an IGX control terminal to do the following tasks. For detailed command descriptions, see the Cisco WAN Switching Command Reference. Step 1 If necessary, use the dspcds command to verify the correct back card and front card.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Frame Relay Provisioning Commands for T1/E1 FR Use the logical port number to activate a port (upport), add connections (addcon), or display statistics (dspportstats). For example, after you add logical port 14.60 2.1-24 with addport, you up this logical port by entering “upport 14.60.” The maximum number of logical port numbers on a UFM-C is 250. Use dspports to display logical ports.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Frame Relay Provisioning To change to DCE, plug the jumper board into the connector receptacle pin rows closest to the FRI faceplate (see Figure 9-1). The rows for DCE mode are 1, 2, 4, and 5. Step 3 Insert the FRI card and gently slide it in all the way to the rear of the slot. Note Step 4 The FRI card should slide in easily into the slot. Investigate any binding. Do not use force. Insert and tighten the mounting screws.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Switch Software Commands Related to Frame Relay Connections Step 4 For V.35 and X.21 interfaces, check the mode (DCE or DTE) of each relevant port by using the dspfrport command. (For T1 and E1 lines, the mode is not applicable.) On an FRI-X.25 or FRI-V.35 back card, a jumper board near each connector determines the mode of the port. See the “Port Mode Selection for V.35 and X.21” section on page 9-5.
Chapter 9 Cisco IGX 8400 Series Frame Relay Service Where to Go Next Table 9-2 Switch Software Commands Related to Frame Relay Connections (continued) Command Description cnfport Configure Frame Relay port cpyict Copy interface control template delcon Delete connection delfrport Delete Frame Relay port dnport Down Frame Relay port dspchcnf Display channel configuration dspchstats Display channel statistics dspcon Display connection dspcons Display connections dspfrcls Display Frame
C H A P T E R 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview The Cisco IGX 8400 series delivers in-chassis IP routing through the Universal Router Module (URM), a dual-processor card set delivering high-density voice and data interfaces. You can also set up IP routing services using an external router and configuring ATM PVCs on the IGX.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-1 Required Hardware and Software for IP Services Hardware Options Service Card Firmware To configure the node for IP service with an UXM Model C firmware external router, you need the following hardware: • Cisco IOS Release Switch Software Release 12.1(3)T or later (IP-only 9.3.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview • MPLS Virtual Private Networks (VPNs) • IPsec-VPN with installation of the AIM-VPN/HP module To configure the URM for any IP service, you must use both switch software and Cisco IOS commands. See Chapter 2, “Functional Overview” for more information on basic URM installation and setup. Virtual Slave Interfaces Note VSIs can only be configured on the UXM or UXM-E card sets.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-1 VSI, Controller, and Slave VSIs Cisco 7000 series router VSI controller (MPLS, PNNI, etc.) VSI master AutoRoute VSI slaves 35713 Cisco IGX The controller establishes a link between the VSI master and every VSI slave on the associated switch. The slaves in turn establish links between each other (see Figure 10-2).
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-3 Cross Connects and Links Between Switches MPLS controller MPLS controller Application Application Master Master Slave Slave LER Slave Slave 1 2 2 Slave Slave Switch 1 35712 Slave Switch = Link 2 = Cross-connect LER = Interslave connection = Master-slave connection Connection Admission Control When a connection request is received by the VSI slave, it is first subjected to a Connection Admission Co
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Service Class Templates Note Service class templates (SCTs) are primarily used with virtual circuits (VCs) and must be used when configuring the IGX to work with a VSI master in a label switch controller (LSC). SCTs provide a way to map a set of standard connection protocol parameters to different hardware platforms.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-4 Service Template Overview SC database 1 Qbin 10 SC database 2 Qbin 11 SC database 3 SC database 23 Qbin 15 SC database per template Qbin databases per VC database SC means for service class. Each preconfigured template is one of the above for each of 9 service templates (VC database + Qbin (10-15).
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-2 Service Category Listing Template Type Service Type Identifier Service Type Associated Qbin VSI special type 0x0001 Default 13 templates for MPLS1, ATMF1, and ATMF2 0x0002 Signaling 10 templates for MPLS1 0x0001 Default 13 0x0002 Signaling 10 0x0200 Tag0 10 0x0201 Tag1 11 0x0202 Tag2 12 0x0203 Tag3 13 0x0204 Tag4 10 0x0205 Tag5 11 0x0206 Tag6 12 0x0207 Tag7 13 0x0210 TagABR 14
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-2 Service Category Listing (continued) Template Type Service Type Identifier Service Type Associated Qbin ATMF_tagcos_1* 0x0001 Default 10 ATMF_tagcos_2* 0x0100 CBR.1 15 0x0101 VBR.1-RT 11 0x0102 VBR.2-RT 11 0x0103 VBR.3-RT 11 0x0104 VBR.1-nRT 12 0x0105 VBR.2-nRT 12 0x0106 VBR.3-nRT 12 0x0107 UBR.1 10 0x0108 UBR.2 10 0x0109 ABR 14 0x010A CBR.2 15 0x010B CBR.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-2 Service Category Listing (continued) Template Type Service Type Identifier Service Type Associated Qbin ATMF_TagABR_1* 0x0001 Default 10 ATMF_TagABR_2* 0x0100 CBR.1 15 0x0101 VBR.1-RT 11 0x0102 VBR.2-RT 11 0x0103 VBR.3-RT 11 0x0104 VBR.1-nRT 12 0x0105 VBR.2-nRT 12 0x0106 VBR.3-nRT 12 0x0107 UBR.1 10 0x0108 UBR.2 10 0x0109 ABR 14 0x010A CBR.2 15 0x010B CBR.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-2 Service Category Listing (continued) Template Type Service Type Identifier Service Type Associated Qbin ATMF_TagCoS_TagABR_1* 0x0001 Default 10 ATMF_TagCoS_TagABR_2* 0x0100 CBR.1 10 0x0101 VBR.1-RT 10 0x0102 VBR.2-RT 10 0x0103 VBR.3-RT 10 0x0104 VBR.1-nRT 11 0x0105 VBR.2-nRT 11 0x0106 VBR.3-nRT 11 0x0107 UBR.1 12 0x0108 UBR.2 12 0x0109 ABR 11 0x010A CBR.2 10 0x010B CBR.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Each service template type has an associated Qbin. Qbins provide the ability to manage bandwidth by temporarily storing cells, and then serving them out as bandwidth is available. This is based on factors including bandwidth availability, and the relative priority of different classes of service. When ATM cells arrive from the edge LSR at the UXM port with one of four CoS labels, they receive CoS handling based on that label.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-3 Connection Parameter Descriptions and Ranges (continued) Object Name Range/Values Template Units Enumeration Policing action (GCRA No. 1) 0 – Discard 1 – Set CLP bit 2 – Set CLP of untagged cells, disc. tagged cells Enumeration Policing action (GCRA No. 2) 0 – Discard 1 – Set CLP bit 2 – Set CLP of untagged cells, disc.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Table 10-4 MPLS Service Categories (continued) Parameter Default Signaling Tag 0/4 Tag 1/5 Tag 2/6 Tag 3/7 Tag-ABR VC discard selection EPD Hystersis EPD EPD EPD EPD EPD VC CLPhi 100 75 100 100 100 100 100 VC CLPlo — 30 — — — — — VC EPD 40 — 40 40 40 40 40 Cell delay 250000 variation tolerance — — — — — — UPC CLP selection — — — — — — — Policing action (GCRA No.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-5 UXM Virtual Interfaces and Qbins qbins 0 Port 1 Virtual trunk 4.1.1 Virtual trunk 4.1.2 Virtual trunk 4.1.3 15 Port 2 Trunk 4.2 VI_2 qbins 0 Port 3 VI_3 qbins 0 UXM-E VI_1 15 Port 4 Line (port) 4.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Some parameters on the Qbins attached to the interface can be reconfigured for each interface. These changes do not affect the Qbin templates, which are stored on the NPM, although they do affect the Qbins attached to the interface. For a visual description of the interaction between SCTs and Qbin templates, see Figure 10-6.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Qbin Default Settings The Qbin and SCT default settings for LSCs are shown in Table 10-5. Note Templates 2, 4, 6, and 8 support policing on partial packet discard (PPD).
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Qbin Dependencies Qbins 10 through 15 are used by VSI on interfaces configured as trunks or ports. The rest of the Qbins are reserved and configured by AutoRoute. When you execute a dspsct command, it will give you the default service type and the Qbin number. The available Qbin parameters are shown in Table 10-6. Note The Qbins available for VSI are restricted to Qbins 10–15 for that interface.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Tip To save rack space, use multiple, separately-installed URMs as LSCs for multiple partitions on the same IGX node. For more information on MPLS on the IGX, refer to MPLS Label Switch Controller and Enhancements 12.2(8)T. MPLS Labeling Criteria For enabling business IP services, the most significant benefit of MPLS is the ability to assign labels that have special meanings.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview MPLS CoS on the IGX This section describes MPLS CoS with the use of the Cisco IGX 8410, 8420, and 8430 ATM label switch router (ATM LSR). MPLS CoS is also supported in networks using the URM as a LSC. Note The URM does not support MPLS CoS when configured as an LSR, and networks using URM-LSRs cannot run MPLS CoS across those network segments containing the URM-LSR.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Requirements for MPLS CoS To use the MPLS CoS feature, your network must run these Cisco IOS features: • CEF switching in every MPLS-enabled router • MPLS • ATM functionality Also, the IGX must have: • Appropriate switch software associated with Cisco IOS software • Appropriate firmware loaded in the associated UXM cards For information on switch software, Cisco IOS software, and card firmware compatibility, see the Compa
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Packets have precedence bits in the type of service field of the IP header, set at either the host or an intermediate router, which could be the edge label switch router (LSR). The precedence bits define a CoS 0-3, such as available, standard, premium, or control.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-9 Example of Multiple LVCs CoS on the IGX ATM network with MPLS CoS dest: 204.129.33.127 dest: 204.129.33.127 ATM LSR-3 IGX dest: 204.133.44.129 ATM LSR-5 IGX ATM LSR-4 IGX (Precedence bits in IP packet's ToS field set by host in this example) Host Edge LSR-A Host Edge LSR-B 69 43 41 42 68 56 LVC 1-4 67 40 55 66 204.135.33.70 53 52 51 50 90 91 92 93 ATM LSR-1 IGX 204.135.33.71 44 45 43 42 204.129.33.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-10 VPN Network Cisco service management VPN1 site A VPN1 site C Secure MPLS intranet VPN1 VPN2 site A VPN1 site B Secure MPLS intranet VPN2 VPN2 site C VPN2 site B Secure extranet IPSec client software Partner C Partner B 25094 Partner B Public Internet The VPN network must be able to recognize traffic by application type, such as voice, mission-critical applications, or e-mail.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview MPLS-enabled IP VPN networks provide the foundation for delivering value-added IP services, such as multimedia application support, packet voice, and application hosting, all of which require specific service quality and privacy. Because QoS and privacy are an integral part of MPLS, they no longer require separate network engineering.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview QoS addresses two fundamental requirements for applications that run on a VPN: predictable performance and policy implementation. Policies are used to assign resources to applications, project groups, or servers in a prioritized way.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Without MPLS, IP transport over ATM networks require a complex hierarchy of translation protocols to map IP addressing and routing into ATM addressing and routing. MPLS eliminates complexity by mapping IP addressing and routing information directly into ATM switching tables. The MPLS label-swapping paradigm is the same mechanism that ATM switches use to forward ATM cells.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Additional security is assured because all traffic is forwarded using LSPs, which define a specific path through the network that cannot be altered. This label-based paradigm is the same property that assures privacy in Frame Relay and ATM connections.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Figure 10-14 Using MPLS to Build VPNs Customer A 10.1.1 VPN 15 CE Customer A 10.2.1 VPN 15 (15) 10.1.1 (15) 10.2.1 Edge LSR PE Edge LSR PE CE Customer A 10.3.1 VPN 15 (15) 10.3.1 Controlled route distribution CE Edge LSR PE MPLS network (354) 10.2.1 Customer B 10.1.1 VPN 354 CE (354) 10.1.1 IN OUT (15) 10.2.1 (15) 10.1.1 (15) 10.3.1 (354) 10.2.1 (354) 10.1.1 Customer B 10.2.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview Virtual Routing/Forwarding Each VPN is associated with one or more VPN routing/forwarding instances (VRFs). A VRF table defines a VPN at a customer site attached to a PE router.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service—Functional Overview BGP propagates vpnv4 information using the BGP Multi-Protocol extensions for handling these extended addresses (see RFC 2283, Multi-Protocol Extensions for BGP-4). BGP propagates reachability information (expressed as VPN-IPv4 addresses) among PE routers; the reachability information for a specific VPN is propagated only to other members of that VPN.
Chapter 10 Cisco IGX 8400 Series IP Service MPLS Connections Supported on the IGX To use VC merge on the UXM-E, connections must meet the following criteria: • Connections are unidirectional. • Connections are virtual channel connections (VCC). Note Virtual path connections (VPCs) are not supported by VC merge on the IGX. • Connections are not single endpoint connections. • Connections to be merged use the same service type.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Table 10-9 Connections Supported on the URM (continued) Note Connection Hardware Platform Endpoint Connection Type Voice Connection Data Connection Cisco IGX CVM — N N Cisco IGX HDM — N N Cisco IGX LDM — N N Cisco MGX VISM — Y N Cisco MGX RPM — N Y Cisco MGX FRSM FR Y FRF.8 SIW Y FRF.8 SIW Cisco MGX FRSM FST N Y FRF.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Planning for Controller Resources Controllers require a free bandwidth of at least 150 cells per second (cps) to be reserved for signaling on the IGX port. If a minimum of 150 cps is not available on the port, the switch software command addctrlr is not executed.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Table 10-10 cnfrsrc Command Parameters (continued) Parameter (Object) Name Start VPI Range/Values Default Description 0-255 (UNI) 0-4095 (NNI) 0 Specifies the initial interface for the selected partition. 0 Specifies the final interface for the selected partition. Note End VPI 0-255 (UNI) 0-4095 (NNI) Note Step 4 The URM does not support NNI.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Logical Switch Partitioning and Allocation of Resources A logical switch is configured by enabling and allocating resources to the partition. This must be done for each partition in the interface. The same procedure must be followed to define each logical switch.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning When a trunk is activated, the entire bandwidth is allocated to AutoRoute. To change the allocation to provide resources for a VSI, use the cnfrsrc command on the IGX switch. You can configure partition resources between AutoRoute PVCs and three VSI LSC controllers. Up to three VSI controllers in different control planes can independently control the switch without communication between controllers.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Example 10-1 IGX Configuration with Multiple Partitions sw188 16:47 GMT TN Cisco IGX 8420 9.3.10 Aug. 16 2000 VSI Partitions on this node Interface (slot.port) Line 10.1 VTrunk 10.2.1 Trunk 11.1 VTrunk 11.7.1 Part 1 E D E E Part 2 E D E D Part 3 D D D D Last Command:dsprsrc Next Command: Table 10-13 Partitioning Example Interface AutoRoute Partition 1 Partition 2 Partition 3 4.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning In a Y-redundancy pair configuration, the VSI capability is determined by the minimum of the two cards. A card without VSI capabilities will mismatch if any of the interfaces has an active partition on controller. Attempts to enable a partition or add a controller on a logical card that does not support VSI are blocked. Adding and Deleting Controllers and Slaves You add an LSC to a node by using the addctrlr command.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Deleting a Controller Use the command delctrlr to delete controllers that have been added to interfaces. When one of the controllers is deleted by using the delctrlr command, the master-slave connections and connections associated with this controller on all the UXM cards in the switch are also deleted. VSI partitions remain configured on the node. The deletion of the controller triggers a new VSI configuration (internal) message.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Tip To display the current status of VC merge on the IGX, enter the dspcdparm slot number command. To disable VC merge on the IGX, perform the following steps: Step 1 Configure the card parameters for VC merge using the cnfcdparm slot number 2 d command. Step 2 At the following message, enter y to continue disabling VC merge.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Table 10-14 Switch Software Commands for Setting up a VSI (Virtual Switch Interface) (continued) Mnemonic Description dspsct Displays SCTs assigned to an interface. The command has three levels of operation: dspsct With no arguments lists all the service templates resident in the node. dspsct tmplt_id Lists all the Service Classes in the template. dspsct tmplt_id Service_Class Lists all the parameters of that service class.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Network Description for Figure 10-17 Figure 10-16 provides an example of configuring the IGX as an MPLS label switch (ATM-LSRs) for MPLS switching of IP packets through an ATM network. The figure also shows configuration for Cisco routers for use as label edge routers (edge LSRs) at the edges of the network.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning To set up MPLS on an IGX node, complete the following tasks: 1. Configure the ATM LSR. a. IGX switch (label switch slave): Configure the IGX for VSI. b. Label switch controller (LSC): Configure the router with extended ATM interfaces on the IGX. 2. Set up label edge routers (LERs). 3. MPLS automatically sets up LVCs across the network. Figure 10-17 shows a high-level view of an MPLS network. The packets destined for 204.129.33.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Figure 10-18 shows the MPLS label swapping process. This process might take place during the transportation of the IP packets, in the form of ATM cells across the network on the LVC1 and LVC2 virtual circuits: 1. An unlabeled IP packet with destination 204.133.44.129 arrives at edge label switching router (LSR-A). 2. Edge LSR-A checks its label forwarding information base (LFIB) and matches the destination with prefix 204.133.44.0/8.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Figure 10-18 Label Swapping Detail Label Forwarding Information Base (LFIB) In Label Address Prefix x x -- 204.129.33.0/8 204.133.44.0/8 -- In Out Out I/F Label I/F x x -- 40 50 -- 1 1 -- Label Forwarding Information Base (LFIB) Label Forwarding Information Base (LFIB) In Label 40 50 -- Address Prefix In Label Address Prefix 90 -- 204.129.33.0/8 -- In Out Out I/F Label I/F 204.129.33.0/8 204.133.44.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Configuration for IGX Switch Portions of the Cisco IGX 8410, 8420, and 8430 ATM-LSRs Note IGX nodes must be set up and configured in the ATM network (including links to other nodes) before beginning configuration for MPLS support on the node. To configure the IGX nodes for operation, set up a virtual interface and associated partition by using the cnfrsrc command.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 3 Command Description Configure VSI partitions on the UXM line interfaces: PVC LCNs: [256] default value. Reserve space on this link for 256 AutoRoute PVCs (LCNs = Logical Connection Numbers). cnfrsrc 3.1 256 26000 y 1 e 512 1500 240 255 26000 105000 or if entered individually: cnfrsrc 3.1 256 {PVC LCNs, accept default value} 26000 Note You do not need to specify bandwidth when establishing trunks.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 5 Command Description Enable MPLS queues on UXM: MPLS CoS uses Qbins 10-14. dspqbin 3.1 10 and verify that it matches the following: Qbin Database 3.1 on UXM qbin 10 Qbin State: Enable Qbin discard threshold: 65536 EPD threshold: 95% High CLP threshold: 100% EFCI threshold: 40% If configuration is not correct, enter cnfqbin 3.1 10 e n 65536 95 100 40 Repeat as necessary for UXM interfaces 3.2 and 4.1: cnfqbin 3.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 3 Command Description Configure VSI partitions on the UXM interfaces: — cnfrsrc 6.1 256 26000 y 1 e 512 1500 240 255 26000 105000 or if entered individually: cnfrsrc 6.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Configuration for LSC 1 and LSC 2 Portions of the Cisco IGX 8410, 8420, and 8430 Before configuring the routers for the label switch (MPLS) controlling function, it is necessary to perform the initial router configuration. As part of this configuration, it is necessary to configure and enable the ATM adapter interface. After configuring the ATM adapter interface, the extended ATM interface can be set up for label switching.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Command Description Step 15 Router LSC1 (config-if)# Router OSPF 5 Sets up OSPF routing and assigning a process ID of 5 which is locally significant. The ID may be chosen from a wide range of available process ID up to approximately 32,000. Step 16 Router LSC1 (config-router)# network 142.4.0.0 0.0.255.255 area 10 Step 17 Router LSC1 (config-router)# network 142.6.0.0 0.0.255.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Command Description Step 15 Router LSC2 (config-if)# Router OSPF 5 Sets up OSPF routing and assigns a process ID of 5 which is locally significant. The ID may be chosen from a wide range of available process ID up to approximately 32,000. Step 16 Router LSC2 (config-router)# network 142.4.0.0 0.0.255.255 area 10 Step 17 Router LSC2 (config-router)# network 142.7.0.0 0.0.255.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Configuration of a Cisco Router as an Edge Router, Edge LSR-C Command Description Step 1 Router LSR-C (config)# ip routing Enables IP routing protocol. Step 2 Router LSR-C(config)# ip cef Enables label switching for ATM subinterface. Step 3 Router LSR-C(config)# interface ATM0/0 Step 4 Router LSR-C(config-if)# no ip address Step 5 Router LSR-C(config-if)# interface ATM0/0.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Figure 10-19 Example of LVCs in an MPLS Switched Network ATM network dest: 204.129.33.127 dest: 204.129.33.127 ATM LSR-5 IGX ATM LSR-3 IGX dest: 204.133.44.129 ATM LSR-4 IGX 204.129.33.4 Edge LSR-B 204.135.33.3 Edge LSR-A Host LVC 1 55 40 66 ATM 2/0/0 204.129.35.5 204.135.33.70 ATM 4/0/0 50 204.135.30.33 ATM LSR-1 IGX 42 90 ATM LSR-2 IGX 204.129.33.127 Edge LSR-C Host LVC 2 204.133.44.129 204.135.33.71 ATM 4/0/0 204.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Checking the IGX Extended ATM Interfaces Use the following procedure to test the label switching configuration on the IGX switch (ATM LSR-1, for example): Step 1 Check whether the controller recognizes the interfaces correctly; on LSC1, for example, enter the following command: Command Description Router LSC1# show controllers VSI descriptor Shows VSI information for extended ATM interfaces.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 3 Check the line status using the switch software command, dsplns (see Example 10-2). Example 10-2 Sample dsplns Output sanjose TN Line 6.6 7.8 Cisco IGX 8430 9.3.10 July 12 2000 09:38 PST Type Current Line Alarm Status T3/636 Clear - OK T1/24 Clear - OK Last Command: dsplns Next Command: Step 4 Check the trunk status using the switch software command, dsptrks (see Example 10-3).
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 6 To view partition configurations on an interface, use the switch software command, dsprsr (see Example 10-5). Example 10-5 Sample dsprsr Output sanjose TN Cisco IGX 8430 Line : 6.6 Maximum PVC LCNS: 256 Partition 1: Partition 2: Partition 3: Step 7 State E D D 9.3.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Step 11 If the LSCs and IGX switches show the interfaces are up but the LSC does not show this, enter the following command on the LSC: Router LSC1# reload If the show mpls interfaces command shows that the interfaces are up but the ping does not work, enter the following command on the LSC (see Example 10-7): Router LSC1# show tag tdp disc Example 10-7 Sample show tag tdp disc Command Output Local TDP Identifier: 30.30.30.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Configuring the Cisco IGX 8410, 8420, and 8430 ATM LSR for MPLS VPN Operation For MPLS VPN operation, you must first configure the Cisco IGX 8410, 8420, and 8430 ATM LSR, including its associated Cisco router LSC for MPLS or for MPLS QoS. Configure network VPN operation on the edge LSRs that act as PE routers. The Cisco IGX 8410, 8420, and 8430, including its LSC, requires no configuration beyond enabling MPLS and QoS.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Command Purpose Step 5 Router(config-router)# neighbor address update-source interface Defines a IBGP session. Step 6 Router(config-router-af)# neighbor address activate Activates the advertisement of VPNv4 NLRIs.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning no service pad service timestamps debug uptime service timestamps log uptime no service password-encryption ! hostname Router1 ! boot system tftp svincent/uxmvsi/c7200-p-mz.121-3.T 255.255.255.255 boot system slot0:c7200-p-mz.121-3.T enable password lab ! ip subnet-zero ip cef ! interface Loopback0 ip address 10.10.10.10 255.255.255.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Example 10-9 Sample MPLS-VPN Configuration from a PE Router Using RIP Router2# show run Building configuration... Current configuration: ! version 12.1 no service pad service timestamps debug uptime no service password-encryption ! hostname Router2 ! boot system slot1:c7200-tsjpgen-mz.121-1.0.2 boot system tftp /tftpboot/syam/c7200-tsjpgen-mz.121-4.3.T 223.255.254.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning Example 10-10 Sample MPLS-VPN Configuration for a URM-LER URM-LER# show run Building configuration... Current configuration : 3830 bytes ! version 12.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning no ip mroute-cache no keepalive speed auto full-duplex ! interface FastEthernet1/0.1 encapsulation isl 101 ip vrf forwarding test_1 ip address 30.0.0.1 255.0.0.0 no ip redirects no ip mroute-cache ! interface FastEthernet1/0.2 encapsulation isl 102 ip vrf forwarding test_2 ip address 29.0.0.1 255.0.0.0 no ip redirects no ip mroute-cache ! interface FastEthernet1/1 ip address 1.7.64.30 255.0.0.
Chapter 10 Cisco IGX 8400 Series IP Service IP Service Provisioning address-family vpnv4 neighbor 15.15.15.15 activate neighbor 15.15.15.15 send-community extended neighbor 17.17.17.17 activate neighbor 17.17.17.17 send-community extended exit-address-family ! ip default-gateway 1.7.0.1 ip kerberos source-interface any ip classless ip route 223.255.254.254 255.255.255.255 1.7.0.
Chapter 10 Cisco IGX 8400 Series IP Service Managing IP Services shutdown half-duplex ! interface ATM1/0 no ip address no ip route-cache cef no atm ilmi-keepalive ! interface ATM2/0 no ip address no ip mroute-cache tag-control-protocol vsi base-vc 0 180 slaves 16 atm clock INTERNAL no atm ilmi-keepalive tag-switching ip ! interface XTagATM103 ip unnumbered Loopback0 shutdown extended-port ATM2/0 vsi 0x000A0300 tag-switching atm vpi 2-15 ! interface XTagATM104 ip unnumbered Loopback0 extended-port ATM2/0 v
Chapter 10 Cisco IGX 8400 Series IP Service Managing IP Services If a controller is attached to an interface, master-slave connections are set up between the controller port and each of the slaves in the node. These LCNs will be allocated from the AutoRoute Management pool. This pool is used by AutoRoute Management to allocate LCNs for connections. VSI controllers require a bandwidth of at least 150 cps to be reserved on the port for signaling.
Chapter 10 Cisco IGX 8400 Series IP Service Where to Go Next Trunk and port counter statistics (cell discard statistics only) for the following Qbins can be collected by SNMP: • Qbins 1 through 15 for UXM trunks • Qbins 2, 3, and 7 through 15 for UXM ports Qbin summary and counter statistics are automatically collected and TFTP and USER interval statistics can be enabled. The cell discard statistics on UXM trunk Qbins 1 through 9 are AUTO statistics.
Chapter 10 Cisco IGX 8400 Series IP Service Where to Go Next Cisco IGX 8400 Series Provisioning Guide, Release 9.3.
A P P E N D I X A Cisco IGX 8400 Series Feeder Nodes About Tiered Networks Tiered networks were introduced in Cisco WAN Switching Software Release 8.0 as an alternative approach to building large networks. In a tiered network, you construct high-capacity node clusters at primary points of presence (POPs) and place smaller capacity nodes at secondary and tertiary POPs. Each node in a tiered network is identified as either a routing node or a feeder node.
Appendix A Cisco IGX 8400 Series Feeder Nodes The IGX Feeder Node Figure A-1 Example of a Tiered Network Feeder nodes Data,Voice, ATM, Frame Relay Data,Voice, ATM, Frame Relay IGX IGX Routing nodes IGX Frame Relay IGX IGX IGX IGX BPX BPX MGX 82xx MGX 82xx Frame Relay, ATM, CES IGX Frame Relay, ATM, CES Frame Relay Frame Relay 88129 IGX The IGX Feeder Node The IGX can be a feeder node to a BPX, another IGX, or certain MGX platforms.
Appendix A Cisco IGX 8400 Series Feeder Nodes The IGX Feeder Node Enabling IGX Feeder Functionality To enable IGX feeder functionality, complete the following steps: Step 1 To enable the feeder functionality on the IGX, enter the cnfswfunc command and enable the “Interface Shelf” function. Step 2 To activate the trunk interface that is connected to the routing node, enter the uptrk command. Step 3 To configure trunk parameters, enter the cnftrk command.
Appendix A Cisco IGX 8400 Series Feeder Nodes Routing Nodes Routing Nodes The IGX can be a feeder node to a BPX, another IGX, or an MGX. After enabling the IGX feeder functionality, you must configure the routing node to activate the feeder trunk interface, configure matching trunk parameters, and add the feeder node. Refer to the platform documentation for your routing node to add or delete a feeder node.
Appendix A Cisco IGX 8400 Series Feeder Nodes See Also BPX Routing Node If the routing node is a BPX, refer to the chapter “Configuring Trunks and Adding Interface Shelves” of the Cisco BPX 8600 Series Installation and Configuration. On Cisco.com: Products & Services: Switches: Cisco BPX 8600 Series Switches: Instructions and Guides: Installation Guides Books: Installation and Configuration On the Documentation CD-ROM: Cisco Product Documentation: WAN Switches: BPX 8600 Series: Release 9.3.
Appendix A Cisco IGX 8400 Series Feeder Nodes See Also Cisco MGX Documentation On Cisco.com: Products & Services: Switches: MGX platform On the Documentation CD-ROM: Cisco Product Documentation: WAN Switches: MGX platform: software-release Cisco BPX Documentation On Cisco.com: Products & Services: Switches: Cisco BPX 8600 Series Switches On the Documentation CD-ROM: Cisco Product Documentation: WAN Switches: BPX 8600 Series Cisco IGX Documentation On Cisco.
I N D EX delcon A 9-5 delfrport addalmslot addcon 2-12 dnport 9-5 addyred 9-5 9-5 document conventions 9-4, 9-7 dspfrport ARM/ARI installation 2-10 9-5 dspportstats B F BC-J1 FAIL LED faceplate BERT 2-49 iii 9-5 3-19 frame relay 3-21 cards Bit Error Rate Tester 3-21 7-5 port set-up 9-4, 9-6 V.35/X.
Index UXM-E N note symbol, meaning of iii BC-UAI-6-T3 faceplate 2-30 BC-UAI-8-T1 faceplate 2-31 P V ports VC merge feature frame relay, setting up ports, Frame Relay 9-4 9-6 W W6 (SCM switch) S symbols caution note tips 3-20 Y iii iii timesaver 2-34, 10-31, 10-32 Y-cable redundancy, UFM cards 9-4 iii iii T tables document conventions iii timesaver symbol, meaning of tips symbol, meaning of iii iii troubleshooting self tests 3-19 summary of alarms user-initiated tests 3-19