Cabletron Systems 04-0053-01 - page 49

SmartSwitch ATM User Guide 3-5

PNNI Routing Multi-level PNNI Topology

Note The first byte of the peer group ID indicates the peer group’s level. It also indicates

the number of significant bits used in the peer group ID. For example, if the level

indicator is 50 (80 decimal), then 80 bits / 8 = 10 bytes; and only 10 of the 13 bytes

are significant (39:00:00:00:00:00:00:00:00:00). If you create a new peer group

ID, make sure that the bytes you change are within the range of significant bytes

for the peer group’s level.

3. Use the show pnnilink command to check the PNNI connectivity within each peer group. For

example, switch SWA3 sees links to the other two members of its peer group:

SWA3 # show pnnilink

Num(ALL) :

Num Port Node Remote Node Hello State Link Type

Number Index IP Addr

===========================================================================

1 7A2 1 206.61.237.20 2WayInside Lowest Level Horizontal Link

2 7A3 1 206.61.237.19 2WayInside Lowest Level Horizontal Link

SWA3 #

4. Select switch SWA3 to be the PGL of group A and switch SWB3 to be the PGL of group B.

5. Use the add pnninode command to add a second, higher-level, node to switch SWA3:

SWA3 # add pnninode

NodeIndex(2) : — Specifies node number 2

NodeLevel(72) : — 72 is above the group A’s level of 80

ComplexRepresentation(N) :

SWA3 #

Do the same for switch SWB3:

SWB3 # add pnninode

NodeIndex(2) : — Specifies node number 2

NodeLevel(72) : — 72 is above the group B’s level of 80

ComplexRepresentation(N) :

SWB3 #

6. Use the set pnnipglelection command to set SWA3 and SWB3’s leadership priority so that they

are elected as PGLs within their respective peer groups:

SWA3 # set pnnipglelection

NodeIndex(1) :

LeadershipPriority(0) : 205 — Highest priority in election process

ParentNodeIndex(0) : 2 — Node 2 will represent the peer group A in the parent group

InitTime(15) :

OverrideDelay(30) :

ReElectTime(15) :

SWA3 #

Contents

Main NOTICE FCC CLASS A NOTICE DOC CLASS A NOTICE DECLARATION OF CONFORMITY ADDENDUM Page FIBER OPTIC PROTECTIVE CAPS Page REVISION HISTORY Date Revision Description TABLE OF CONTENTS 7 Firmware Upgrades and Bootline Commands . . . . . . . . . . . . . . . . . . . . . . .7-1 Page Page LIST OF FIGURES Page Page Page 1 INTRODUCTION 1.1 CONTENTS OF THE USER GUIDE 1.2 SMARTSWITCH ATM SWITCH DIFFERENCES 2 IP OVER ATM AND LANE 2.1 CREATING AN IP OVER ATM VLAN Page 2.1.1 Default ATM Addressing for IP over ATM Default Netprefix for SmartSwitch 2500 Family Switches Default Netprefix for SmartSwitch 6500 Default IP Over ATM Local Client Address 2.2 CREATING AN EMULATED LAN Page 2.2.1 ATM Addressing for LAN Emulation SmartSwitch 2500 Family Default LANE Addressing SmartSwitch 6500 Default LANE Addressing 2.2.2 ELANs Across Multiple Switches 2.2.3 Switch Clients 2.2.4 Distributed LANE Services 2. Use the add leselan command to create an LES on switch SW2: 3. Use the show leselan command on SW2 to obtain the ATM address of the LES: 4. On switch SW1, use the command add lecselan to create the LECS: 5. Use the add laneclient command on SW1 to add a client to the ELAN: 2.2.5 ELAN Join Policies Effort Best Effort Elan Join Test - Page The LECSELANLEC Table 2.2.6 LANE Over WAN Circuits Physical Versus Logical BUS Multicasting Page 2.2.7 Using LNNI LANE Service Redundancy Page Page Setting up LNNI LECs Page 6. On SW1, create an ELAN; in this example, we create elan1: Similarly, create the same ELAN (elan1) on SW2: 7. On SW1, enter the show elan 1 command to obtain the ATM address of the LECS on that switch Configuring LNNI Distributed LES/BUS Servers Page Page Page Page 3 PNNI ROUTING 3.1 PNNI NODE ADDRESSING 3.1.1 Default PNNI Addressing SmartSwitch 2500 Family Default Node ID SmartSwitch 6500 Family Default Node ID SmartSwitch 2500 Family Default Node ATM Address SmartSwitch 6500 Default Node ATM Address 3.2 MULTI-LEVEL PNNI TOPOLOGY 3.2.1 Connecting Multiple Peer Groups - - Page Page Do the same on switch SWB3: 7. Use the show pnnipglelection command to verify that switches SWA3 and SWB3 have become Applicable). Logical entities do not have IP addresses. the PGLs of their respective peer groups. For example, on switch SWA3, enter the following: Note Notice that the IP address entry for the logical link between the LGNs is N/A (Not 3.2.2 Physical Connections Between Peer Groups Adding Higher-level Peer Groups Parent Group of Group A and B Page 3.3 MANAGING PARALLEL PNNI LINKS 3.3.1 Aggregation Tokens 3.3.2 PNNI Link Timing Page 4ROUTING 4.1 ADDITIONAL ROUTING PROTOCOLS 4.2 IISP ROUTES 4.2.1 IISP Routing Considerations IISP Routing Example One IISP Routing Example Two 4.2.2 IISP Link Timing 4.3 UNI ROUTES 4.3.1 UNI Link Timing 4.4 ROUTE METRICS 4.4.1 Administrative Weights 4.4.2 Creating Rout e Met ric s 1. Create the outgoing member of the metric pair: The newly created metric pair appears at the top of the list as metrics 1 and 2. 2. Create the incoming member of the metric pair: 3. Enter show pnnimetric to view the newly created metric pair: 4.5 IP ROUTING FOR MANAGEMENT Page 5 VIRTUAL PORTS AND STATIC CONNECTIONS 5.1 PVC CONNECTIONS 5.1.1 Point-to-Point PVCs 5.1.2 Point-to-Multipoint PVCs 4. Perform step 3 for ports 7a3 and 7a4. 2. Use show trafficdescriptor to obtain the new traffic descriptors index numbers. 3. Use add pvc to successively create point-to-multipoint PVCs for ports 7a2, 7a3, and 7a4. 5.1.3 Connecting to Local Switch Client Through a PVC 5.2 PVP CONNECTIONS 2. Use the set portconfig command to turn off signaling and ILMI and to specify bits for VPIs on port 7b1: 3. Use the add pvp command to create the pvp connection: 5.2.1 Connecting PVPs 5.3 VIRTUAL PORTS 5.3.1 Creating Virtual Ports Page 3. Use the PortNumber and MaxVpiBits parameters of the add port command to create the virtual ports. 1. Use the set portconfig command to turn off signaling and set the MaxVpiBits to 4: 2. Use the add port command to create the port and to specify the number of VPIs: 5.4 SOFT PVC AND PVP CONNECTIONS 5.4.2 Making Soft PVC and PVP Connections 5.4.3 Creating a soft PVC 1. Define a target ATM address to be used on the target switch. The target ATM address can be any 2. Use the add spvcaddress command on the target switch to specify the target port and ATM address. 3. Use the show spvcaddress command to see the soft PVC port and ATM address on the target switch: Page 5.4.4 Creating a Soft PVP Note Soft PVPs are supported only on the SmartSwitch 6500 ATM switch. 1. Use the set portconfig command on the target switch to increase the MaxVpiBits. Page Enter the show spvp command on the target switch to see the soft PVP and its current state: Page 6 TRAFFIC MANAGEMENT 6.1 TRAFFIC MANAGEMENT CAPABILITIES Page 6.1.2 Call Admission Control Policy Page 6.1.3 Queue Buffers 6.1.4 EFCI, EPD, and RM Cell Marking Page 7 FIRMWARE UPGRADES AND BOOTLINE COMMANDS 7.1 UPDATE FIRMWARE COMMANDS Unsuccessful Update 7.2 BOOTLINE COMMANDS 7.2.1 Accessing the Bootline Prompt 7.2.2 Bootline Commands Explanations Page 7.2.3 Upgrading Boot Load firmware - Changing the Default Boot Load Image 7.2.4 Upgrading POST Diagnostic firmware - 7.2.5 Upgrading Switch Operating firmware - 9. Start the ATM SmartSwitch by entering the go command. Page 8 ATM FILTERING AND CLOCKING 8.1 PORT ATM ADDRESS FILTERS 8.1.1 Creating ATM Address Filters 8.1.2 How ATM Address Filters Work 8.1.3 ATM Address Filter Example 1. Use the add atmfilter command to create filters on source and/or destination addresses 2. Use the add atmfilterset command to create a filter set that uses the filters domain1 and domain2 3. Use the create portfilterset command to assign the filter set to an incoming and outgoing port. Source and Destination Address Masks 8.2 PORT CLOCK CONFIGURATION 8.2.1 Network Clocking 9 TROUBLESHOOTING 9.1 TROUBLESHOOTING IP OVER ATM 9.2 TROUBLESHOOTING LAN EMULATION 9.3 TROUBLESHOOTING PNNI LINKS - 9.4 TROUBLESHOOTING CONGESTION 9.4.1 Diagnosing Congestion 9.4.2 Global Co ng esti o n 9.4.3 Port Congestion 9.5 EVENTS AND ALARMS 9.5.2 Viewing Events and Alarms 9.5.3 Deleting Events and Alarms 9.6 SAVING CORE DUMPS Page APPENDIX A AGENT SUPPORT A.1 MIB, SMI, MIB FILES AND INTERNET MIB HIERARCHY Figure A-1 Internet MIB hierarchy A.1.1 CSI ZeitNet Proprietary MIBs tt Label from the root to this point is 1.3.6.1.2.1 A.1.2 Relation Between Object Identifier and the Represented Value A.1.3 Supported protocols A.1.4 Supported SMI Formats A.1.5 CSI ZeitNet Proprietary MIB Groups Table A-1 CSI Zeitnet proprietary MIB groupings (Continued) Name Object Identifier Function Page A.2 MANAGING AN ATM SMARTSWITCH Page APPENDIX B TECHNICAL SUPPORT B.1 TELEPHONE ASSISTANCE B.2 FAX SERVICE B.3 ELECTRONIC SERVICES B.4 PLACING A SUPPORT CALL B.5 HARDWARE WARRANTY B.6 SOFTWARE WARRANTY B.7 REPAIR SERVICES INDEX A B C D E F G H I L M N O P Q R S T U V W