Alcatel-Lucent iP2000
Manuals and User Guides for Alcatel-Lucent iP2000. We found 1 manuals for free downloads Configuration Guide
Below you will find brief information for Stinger IP Control Module IP2000, Stinger IP Control Module IP2100. These modules provide the foundation for your Stinger network, enabling features such as Gigabit Ethernet interfaces, VLAN configuration, IP routing, QoS, and L2TP tunneling. The IP2000 supports up to 2048 trunk-terminated calls, while the IP2100 provides flexible memory modes and port managers for maximum user connection efficiency.
Key Features
Gigabit Ethernet interfaces
VLAN configuration
IP routing
QoS
L2TP tunneling
Supports up to 2048 trunk-terminated calls (IP2000)
Flexible memory modes (IP2100)
Configurable port managers (IP2100)
Maximum user connection efficiency (IP2100)
Pages: 488 Alcatel-Lucent iP2000 Configuration Guide
Brand: Alcatel-Lucent Category: Networking Size: 5 MB
Languages: English
Table of contents
- 5 Contents
- 17 Figures
- 34 Figure 1-1. IP2100 control module basic architecture
- 44 Figure 1-2. Sample setup showing multicast and unicast video services
- 44 Figure 1-3. Sample setup showing Internet access and voice over ATM
- 45 Figure 1-4. Sample setup showing multiple IP flows to a CPE router
- 52 Figure 2-1. Gigabit Ethernet redundancy for RFC 2684 connectivity
- 54 Figure 2-2. Gigabit Ethernet redundancy for a LAN MBONE
- 64 Figure 2-3. Redundant uplinks for a VLAN
- 74 Figure 3-1. Bridging VLAN: One PVC to one VLAN (1:1)
- 77 Figure 3-2. Sample 1:1 VLAN circuit
- 78 Figure 3-3. Bridging multiple PVCs to a VLAN
- 84 Figure 3-4. Sample N:1 VLAN bridging
- 87 Figure 3-5. Format when an interface IP address (
- 87 Figure 3-6. Format when a text string (
- 87 Figure 3-7. Format when sending only the hostname (
- 89 Figure 3-8. DHCP snooping example
- 91 Figure 3-9. Contents of fields with sample DHCP snooping configuration
- 93 Figure 3-10. PPPoE vendor-specific tag format
- 95 Figure 3-11. PPPoE snooping example
- 96 Figure 3-12. Contents of fields with sample PPPoE snooping configuration
- 100 Figure 3-13. Stacked VLAN: Bridging untagged frames from DSL interfaces
- 103 Figure 3-14. Stacked VLAN: Bridging enterprise VLAN-tagged frames
- 107 Figure 3-15. Sample routed VLAN
- 108 Figure 3-16. Sample routed VLAN
- 111 Figure 3-17. Terminating IPoA traffic on an upstream BRAS
- 114 Figure 3-18. Sample 1:1 VLAN circuits for bridging IPoA
- 116 Figure 3-19. Two BRAS with the same IP address in different VLANs
- 118 Figure 3-20. Not recommended with unnumbered interfaces
- 122 Figure 3-21. Sample transparent-bridged PPPoA configuration
- 125 Figure 3-22. Sample PVC-to-VLAN bridged PPPoA configuration
- 147 Figure 4-1. Four DSL links using ECMP routes
- 151 Figure 4-2. Two routed VLAN uplinks using ECMP routes
- 159 Figure 4-3. Remote CPE requiring dynamic IP address assignment
- 167 Figure 4-4. Example of a PPPoE session using slot-based address assignment
- 171 Figure 4-5. Default route to a local IP router
- 172 Figure 4-6. Static route to a subnet
- 175 Figure 4-7. Sample configuration using two soft IP interface addresses
- 178 Figure 4-8. Sample network with two levels of anti-spoofing protection
- 181 Figure 4-9. Router-to-router IP connection
- 182 Figure 4-10. A numbered-interface connection
- 183 Figure 4-11. Forwarding terminating PVCs on the Gigabit Ethernet interface
- 185 Figure 4-12. Aggregating PVCs onto a single virtual circuit using IP routing
- 186 Figure 4-13. BIR interface on a LIM port
- 187 Figure 4-14. BIR subnet configuration on LIM interface
- 189 Figure 4-15. BIR/32 configurations
- 191 Figure 4-16. Bidirectional filtering on a BIR interface
- 194 Figure 4-17. Sample BIR connection with four static IP addresses
- 204 Figure 4-18. DHCP relay for an IPoA terminated PVC
- 206 Figure 4-19. Option 82 information field formats
- 207 Figure 4-20. Sample DHCP usage with LAN management interface
- 208 Figure 4-21. Sample DHCP setup on BIR connection
- 216 Figure 4-22. PPPoA topology
- 217 Figure 4-23. PPPoE topology
- 221 Figure 4-24. Example of a PPPoA session on a DSL interface
- 225 Figure 4-25. Example of a PPPoE session on a DSL interface
- 241 Figure 5-1. QoS subsystems
- 257 Figure 5-2. Sample deployment with VLAN p-bit marking
- 269 Figure 5-3. Using interface grouping to prioritize traffic by service level
- 271 Figure 5-4. Unicast and multicast video share the same priority
- 272 Figure 5-5. Prioritizing traffic at the connection level and flow level
- 276 Figure 5-6. Stacked VLAN requiring p-bit remarking on the output interface
- 277 Figure 5-7. Sample N:1 VLAN bridging with traffic shaping and rate limiting
- 279 Figure 5-8. Stacked VLAN with rate limiting and traffic shaping
- 282 Figure 5-9. 1:1 bridging VLAN with rate limiting and traffic shaping
- 304 Figure 6-1. L2TP tunneling
- 315 Figure 6-2. Bringing up a tunnel using PPP authentication
- 317 Figure 6-3. Primary and secondary tunnel end points
- 319 Figure 6-4. Connection-based tunnel authentication
- 323 Figure 6-5. Server-based tunnel authentication
- 325 Figure 6-6. Tunnel assignment IDs
- 331 Figure 7-1. Simple diagram of three virtual domains (virtual routers)
- 348 Figure 8-1. OSPF broadcast network on Gigabit Ethernet
- 349 Figure 8-2. OSPF costs for different types of links
- 350 Figure 8-3. Dividing an OSPF autonomous system into areas
- 351 Figure 8-4. Sample OSPF topology
- 356 Figure 8-5. OSPF on a LAN interface
- 358 Figure 8-6. OSPF over ATM point to point
- 359 Figure 8-7. OSPF NBMA over ATM point to point
- 365 Figure 9-1. Multicast video sample setup
- 366 Figure 9-2. Multiple MBONE interfaces on trunk or LAN interfaces
- 369 Figure 9-3. Sample configuration with multiple MBONE interfaces
- 371 Figure 9-4. Sample configuration of VLAN MBONE interface
- 380 Figure 9-5. DSL video application with a local MBONE interface
- 383 Figure 9-6. IPTV video sample configuration
- 386 Figure 9-7. One VC per multicast group for incoming multicast data streams
- 388 Figure 9-8. Multicast server VCs on a trunk interface
- 390 Figure 9-9. FFW interfaces on multicast-capable modules
- 391 Figure 9-10. Two IGMP Join requests for the same multicast group
- 392 Figure 9-11. Two IGMP Leave requests for the same multicast group
- 414 Figure 10-1. PIM-SM on Gigabit Ethernet and trunk interface
- 19 Tables
- 29 Table 1-1. Overview of network features
- 31 Table 1-2. IP2000 model numbers and platform support
- 33 Table 1-3. IP2100 control module enhancements
- 34 Table 1-4. IP2100 model numbers and platform support
- 37 Table 1-5. NP port manager profiles
- 45 Table 1-6. Default classification and prioritization
- 73 Table 3-1. Definition of VLAN terms
- 81 Table 3-2. Traffic restrictions when port blocking is enabled
- 82 Table 3-3. IGMP control packet handling with IGMP snooping enabled
- 83 Table 3-4. Maximum number of learned MAC addresses per module
- 92 Table 3-5. Packet handling with PPPoE snooping
- 105 Table 3-6. Enterprise VLAN tagged frames mapped to a stacked VLAN
- 120 Table 3-7. ARP request packet contents on a configured VLAN
- 128 Table 3-8. VLAN ID argument added to arptable command
- 135 Table 4-1. Decimal subnet masks and corresponding prefix lengths
- 136 Table 4-2. Profiles for configuring logical IP interfaces for Ethernet ports
- 204 Table 4-3. Settings that affect contents of the giaddr field in DHCP packets
- 220 Table 4-4. Required encapsulation types for PPPoA and PPPoE
- 230 Table 4-5. Configurable LCP Echo interaction with LQM
- 237 Table 4-6. Permanent RADIUS PPPoE server profiles
- 242 Table 5-1. Descriptions of QoS support for routed, bridged, and VLAN traffic
- 244 Table 5-2. Packet marking supported on egress interfaces
- 249 Table 5-3. Comparison passes performed on inbound packet flows
- 252 Table 5-4. Rate limiting terminology
- 254 Table 5-5. Flow-based rate limiting configurations
- 265 Table 5-6. VLAN traffic shaping configurations
- 271 Table 5-7. Sample IP traffic types and priorities across an ATM PVC
- 272 Table 5-8. Sample IP traffic types and priorities across two PVCs
- 273 Table 5-9. Sample bandwidth limitations
- 276 Table 5-10. Ethernet p-bit remarking table
- 305 Table 6-1. Network settings related to L2TP
- 307 Table 6-2. Existing tunnels to the same LNS
- 307 Table 6-3. Tunnels created for clients based on profile settings
- 308 Table 6-4. Tunnels created when user1 dials in first (error not detected)
- 308 Table 6-5. Tunnels created when user2 dials in first (error shown)
- 342 Table 7-1. Administrative commands showing optional vrouter arguments
- 347 Table 8-1. Description of LSA types
- 348 Table 8-1. Description of LSA types
- 351 Table 8-2. Link-state databases for OSPF topology in Figure 8-4
- 352 Table 8-3. Shortest-path tree and resulting routing table for Router-1
- 352 Table 8-4. Shortest-path tree and resulting routing table for Router-2
- 352 Table 8-5. Shortest-path tree and resulting routing table for Router-3
- 367 Table 9-1. Maximum multicast groups, multicast users, and bridge groups
- 385 Table 9-2. Sample multicast and unicast client requirements
- 391 Table 9-3. FFW interfaces registered as MBONE or multicast client
- 393 Table 9-4. Packet flow with multicast traffic as the highest priority flow
- 393 Table 9-5. Packet flow with unicast traffic as the highest priority flow
- 394 Table 9-6. Packet flow with interleaving priorities (unicast/multicast)
- 394 Table 9-7. Packet flow with interleaving priorities (multicast/unicast)
- 406 Table 10-1. Current level of support for PIM-SM functionality
- 417 Table 11-1. Default filtering behavior
- 418 Table 11-1. Default filtering behavior (Continued)
- 470 Table A-1. GigEConfigTable MIB objects
- 470 Table A-2. GigETxIntervalTable MIB objects
- 471 Table A-3. GigETxTotalTable MIB objects
- 472 Table A-3. GigETxTotalTable MIB objects (Continued)
- 472 Table A-4. GigERxIntervalTable MIB objects
- 473 Table A-5. GigERxTotalTable MIB objects
- 474 Table A-5. GigERxTotalTable MIB objects (Continued)
- 474 Table A-6. GigEVlanStatTable MIB objects
- 475 Table A-6. GigEVlanStatTable MIB objects (Continued)
- 475 Table A-7. GigEVlanClearStatTable MIB objects
- 475 Table A-8. Current level of support for PIMv2 MIB tables
- 476 Table A-8. Current level of support for PIMv2 MIB tables (Continued)
- 21 About This Guide
- 29 Introduction
- 29 Stinger IP DSLAM network features
- 31 Introduction to the Stinger IP2000 control module
- 31 IP2000 model numbers and platform support
- 32 IP2000 support for up to 2048 trunk terminated calls
- 33 Features not currently supported by the IP2000
- 33 Introduction to the Stinger IP2100 control module
- 34 Model numbers and platform support
- 35 IP2100 memory modes
- 35 Maximizing the number of user connections
- 37 Configurable IP2100 port managers
- 43 Features not currently supported by the IP2100
- 43 Network architecture overview
- 43 Multicast video
- 44 Internet and voice access
- 45 Multiplexing multiple IP flows on a single ATM VCC
- 47 Gigabit Ethernet Configuration
- 47 Configuring Gigabit Ethernet interfaces
- 47 Overview of ETHERNET profile settings
- 49 Enabling layer 2 bridging for VLAN operations
- 49 Verifying the Gigabit Ethernet interface setup
- 51 Configuring Gigabit Ethernet port redundancy
- 52 Configuring a soft IP interface for Gigabit Ethernet redundancy
- 52 Configuring Gigabit Ethernet redundancy for RFC 2684 (IPoA) connections
- 53 Configuring Gigabit Ethernet redundancy for VLAN bridging
- 54 Configuring a redundant LAN MBONE
- 55 Configuring LACP on Gigabit Ethernet ports (IP2100 only)
- 56 LACP configuration overview
- 60 Sample link aggregation configuration
- 62 LACP implementation details
- 63 LACP-related diagnostics
- 63 Configuring STP on Gigabit Ethernet ports (IP2100 only)
- 63 Primary application with this software version
- 64 Limitations with this software version
- 64 Configuration overview
- 68 Sample configuration with transparent bridging
- 70 Routing implications for STP-enabled ports
- 71 Administrative tools for Gigabit Ethernet
- 73 VLAN Configuration
- 74 IP filters for Ethernet-encapsulated bridged IP datagrams
- 74 Configuring 1:1 VLAN bridging
- 75 Overview of VLAN-ETHERNET and CONNECTION settings
- 77 Sample 1:1 VLAN bridging configuration
- 78 Configuring N:1 VLAN bridging
- 78 Creating and configuring bridge groups
- 83 VLAN and connection settings
- 83 How address limiting works
- 84 Sample N:1 VLAN bridging configuration with address limiting
- 86 Configuring DHCP and PPPoE snooping for DSL line identification
- 96 Dynamic anti-spoofing for DHCP and PPPoE
- 99 Configuring stacked VLANs
- 100 Bridging untagged frames to stacked VLANs
- 102 Bridging enterprise VLAN tagged frames to stacked VLANs
- 107 Configuring routed VLANs
- 107 Creating a virtual IP interface for a routed VLAN
- 108 Sample routed VLAN configuration
- 111 VLAN bridging of IPoA traffic to an upstream BRAS
- 111 Upstream packet processing
- 112 Downstream packet processing
- 112 Configuration overview
- 114 Configuring VLAN bridged IPoA
- 116 Configuring bridged IPoA to multiple BRAS with the same IP address
- 118 Caveat when configuring an unnumbered interface for bridged IPoA
- 120 VLAN-based ARP table
- 121 PPPoA bridging in 1:1 and N:1 VLAN
- 121 Upstream network element configuration requirements
- 122 PPPoA bridging in N:1 VLANs
- 125 PPPoA bridging in 1:1 VLANs
- 128 Administrative tools for VLAN
- 131 IP Routing Configuration
- 131 Introduction to the IP router software
- 132 Routes and interfaces
- 134 IP address syntax
- 136 Configuring IP-INTERFACE profiles for Ethernet ports
- 136 Overview of typical local interface settings
- 137 Configuring a local IP interface
- 138 Defining a local virtual IP interface
- 138 Defining a soft interface for increased accessibility
- 138 Disabling directed broadcasts to protect against denial-of-service
- 139 Configuring IP-GLOBAL network features
- 139 Setting a system address
- 140 Configuring DNS
- 141 Setting RIP options
- 144 Subscriber profile sharing
- 145 Equal cost multipath routing
- 153 Configuring and using address pools
- 166 Slot-based address assignment
- 170 Configuring IP-ROUTE profiles
- 170 Overview of typical static route settings
- 171 Offloading routing overhead to an external router
- 172 Creating a static route to a subnet
- 172 Overview of routed subscriber connection features
- 172 Source interface local addresses
- 177 Anti-spoofing protection for IPoA, BIR, PPPoA, and PPPoE connections
- 179 Configuring IPoA subscriber connections
- 179 Typical CONNECTION atm-options settings for terminating PVCs
- 180 Typical CONNECTION ip-options settings for terminating PVCs
- 181 Sample RFC 2684 (IPoA) terminating PVC
- 182 Example of using a local-address setting for a numbered interface
- 183 Example of routing a terminated PVC across Gigabit Ethernet
- 185 Example of using IP routing to aggregate PVCs onto a trunk VC
- 186 Configuring BIR subscriber connections
- 186 Overview of CONNECTION bir-options and ip-options settings
- 187 Sample subnet (BIR/24) configuration
- 188 Sample host route (BIR/32) configurations
- 190 Sample BIR connection on a VDSL port
- 191 Sample use of filters with BIR connections
- 192 Configuring multiple WAN virtual IP interfaces on a BIR connection
- 195 Configuring DHCP relay for IPoA and BIR connections
- 195 RFC compliance and caveats
- 195 DHCP option 82
- 196 WAN virtual interfaces on DHCP-configured BIR connections
- 198 DHCP relay configuration settings
- 203 Per-connection control of the DHCP relay giaddr field
- 204 Sample DHCP relay configurations for IPoA connections
- 206 DHCP issues on LAN management interfaces
- 208 Sample DHCP relay configurations for BIR connections
- 215 Configuring broadband RAS subscriber access
- 215 Recommended call-type setting for PPP sessions
- 216 Overview of PPPoA and PPPoE topologies
- 217 Required setup for PPPoA and PPPoE connections
- 217 Configuring the ANSWER-DEFAULTS profile for PPP sessions
- 219 Terminating traffic on a LIM internal interface
- 221 Example of configuring a PPPoA connection
- 224 PPPoA over LLC
- 225 Example of configuring a PPPoE connection
- 231 Enabling support for PPPoE service names
- 239 Administrative tools for IP routing
- 241 Ethernet and IP QoS
- 241 Overview of the QoS implementation
- 242 Packet classification subsystem
- 243 Rate-limiting, prioritization, and scheduling subsystem
- 243 Packet marking engine
- 244 Configuration steps
- 244 What the system does at the output interface
- 245 Default IP QoS configuration
- 245 Introduction to PACKETFLOWS profile settings
- 246 Layer 2 classifiers
- 247 Packet classifiers
- 252 Scheduling and rate limiting
- 256 Packet marking
- 262 QoS-related connection and interface settings
- 263 Applying a PACKETFLOWS profile to an output interface
- 264 Configuring Ethernet IP traffic shaping
- 265 Configuring VLAN Ethernet traffic shaping
- 265 QoS-related settings in the SYSTEM profile
- 265 Performance recommendations
- 266 Configurable queue size for IPTV traffic on DSL links
- 266 Tracking rate adaptation for downstream traffic shaping
- 267 How traffic shaping typically occurs
- 267 How rate adaptation affects traffic shaping
- 267 How to enable the rate-tracking optimization
- 268 Examples of configuring QoS
- 269 Prioritizing IP packet flows based on DSL service contracts
- 270 Prioritizing different kinds of IP traffic on an ATM PVC
- 272 Prioritizing traffic using both IP and ATM QoS
- 276 Configuring bridging VLAN Ethernet QoS
- 277 Configuring traffic shaping and rate limiting for a N:1 VLAN bridging
- 279 Configuring rate limiting and traffic shaping with VLAN stacking
- 282 Configuring rate limiting and traffic shaping for 1:1 VLAN bridging
- 284 Configuring a PPPoE connection with and without line-rate tracking
- 286 Configuring a BIR connection with line-rate tracking
- 287 Administrative tools for monitoring IP QoS
- 287 Example of monitoring routed traffic onto Gigabit Ethernet
- 289 Example of monitoring bridged VLAN traffic (transparent bridging)
- 293 Example of monitoring 1:1 VLAN bridged traffic
- 297 Example of monitoring stacked VLAN bridged traffic
- 299 Example of displaying a connection’s traffic shaping parameters
- 301 Limitations with the current software version
- 303 L2TP Tunneling Configuration
- 304 Overview of L2TP tunneling
- 304 Links to LNS servers
- 304 Links to PPP clients
- 305 L2TP-related network settings
- 305 L2TP-related RADIUS configuration
- 305 Overview of L2TP tunnel authentication
- 306 System name used for tunnel authentication
- 306 How the system finds a matching tunnel
- 307 Examples of how client-auth-id settings create parallel tunnels
- 307 Examples of configuration errors causing multiple tunnels
- 308 Configuring L2TP global options
- 308 Enabling L2TP operations and authentication
- 309 Setting L2TP timers and other variables
- 312 Sample global tunneling configuration
- 313 Configuring client connections with PPP authentication
- 313 Overview of mobile client connection settings
- 315 Sample PPP-authenticated client connection
- 316 Sample PPP-authenticated connection with two LNS systems
- 318 Configuring connection-based tunnel authentication
- 318 Overview of connection-based tunnel authentication settings
- 319 Example of connection-based tunnel authentication
- 320 Configuring server-based tunnel authentication
- 321 Overview of server-based tunnel authentication settings
- 322 Example TUNNEL-SERVER password configuration
- 323 Sample server-based authentication configuration
- 324 Using tunnel assignment IDs
- 324 Overview of tunnel assignment settings
- 325 Example of configuring tunnel assignment IDs
- 328 Administrative tools for monitoring L2TP
- 328 Displaying traffic statistics for open UDP/TCP ports
- 328 Displaying L2TP statistics
- 329 Displaying PPPoE statistics
- 329 Limitations with this software version
- 330 Impact of L2TP data sequencing limitation
- 330 Impact of L2TP IP QoS limitation
- 331 Virtual Router Configuration
- 331 Overview of virtual routing
- 332 How virtual routers affect the routing table
- 332 Interconnecting virtual domains
- 332 Applicability and limitations
- 333 Creating a virtual router
- 333 Overview of VROUTER profile settings
- 334 Example of defining a virtual router
- 337 Defining address pools for a virtual router
- 337 Assigning interfaces to a virtual router
- 338 Defining virtual router static routes
- 340 Configuring virtual router DNS servers
- 342 Deleting a virtual router
- 342 Administrative tools for virtual routers
- 345 OSPF Configuration
- 345 Overview of supported OSPF features
- 346 Limited border router capability
- 346 One active IP interface per port
- 346 Authentication
- 346 Support for variable-length subnet masks
- 347 Exchange of routing information
- 348 Designated and backup designated routers on broadcast networks
- 349 Routing across NBMA interfaces
- 349 Configurable cost metrics
- 350 Hierarchical routing (areas)
- 351 Link-state routing algorithms
- 353 Enabling OSPF systemwide
- 353 Configuring OSPF on Gigabit Ethernet
- 354 Overview of IP-INTERFACE OSPF settings
- 356 Sample Gigabit Ethernet interface configuration
- 357 Configuring OSPF on an ATM trunk interface
- 357 Overview of CONNECTION OSPF settings
- 358 Sample OSPF point-to-point configuration
- 358 Sample configuration of NBMA across point-to-point
- 360 Configuring global route options that apply to OSPF
- 361 Example of importing a summarized pool as an ASE
- 361 Example of setting ASE preferences
- 361 Configuring IP-ROUTE OSPF options
- 362 Example of configuring a type 7 LSA in an NSSA
- 363 Example of assigning a cost to a static route
- 363 Administrative tools for OSPF routing
- 365 IP Multicast Configuration
- 365 IP multicast forwarding
- 366 Network-side MBONE interfaces
- 366 Notice about Gigabit Ethernet redundancy for a LAN MBONE
- 366 LIM-side multicast client interfaces
- 367 IP2100 and IP2000 maximum limits on multicast and bridge groups
- 367 Configuring MBONE interfaces
- 368 Overview of multiple MBONE configuration
- 369 Sample configuration with multiple MBONE interfaces
- 370 Sample MBONE configuration on Gigabit Ethernet VLANs
- 372 Managing multicast group memberships
- 372 Overview of MCAST-SERVICE settings
- 373 Sample multicast address filters
- 374 Sample multicast address range filter
- 375 Configuring multicast client interfaces
- 375 Overview of multicast client CONNECTION settings
- 377 Setting IGMP-v2 timers (local profiles only)
- 378 Example of using multiple multicast filters
- 379 Sample multicast video configuration with filters
- 383 Sample multicast video configuration with a remote MBONE interface
- 385 ATM QoS when both multicast and unicast clients are supported
- 386 Multicast server virtual circuits
- 387 Overview of multicast server VC settings
- 388 Sample configuration of multicast server VCs
- 389 Distributed multicast with HB LIMs (IP2100 only)
- 389 Benefits of distributed multicast
- 390 Conceptual overview
- 391 MBONE and multicast client interactions on FFW interfaces
- 392 Multicast-capable HB LIM considerations
- 395 Statistics and diagnostics for the multicast-capable HB LIM
- 395 Administrative tools for IGMP operations
- 395 CAC for multicast channels
- 402 Configuring multicast CAC on Stinger CM
- 403 Viewing multicast CAC statistics
- 405 PIM-SM v2 Configuration
- 406 PIM-SM features supported with this software version
- 406 Overview of PIM-SM configuration
- 407 Enabling multicast and PIM
- 409 Configuring static mappings between groups and rendezvous points
- 410 Configuring PIM on Gigabit Ethernet or trunk interfaces
- 414 Sample PIM-SM system configuration
- 415 Administrative tools for PIM-SM routing
- 417 Filter Configuration
- 417 Filter overview
- 418 Filter rules
- 418 Explicit default filter rules
- 418 Defining IP filters
- 418 Overview of IP filter settings
- 420 Details of IP filter comparison passes
- 423 Sample IP filters
- 428 Defining ICMP filters
- 428 Overview of profile settings
- 430 Sample ICMP filter configurations
- 433 Defining route filters
- 433 Overview of route filter settings
- 434 Sample route filters
- 435 Defining Ethernet input filters
- 435 Overview of ethernet filter settings
- 436 Sample PPPoE and MAC address filter
- 437 Applying a filter to an interface
- 437 Profile settings for applying a filter
- 437 Applying filters to a CPE interface
- 438 Applying a filter to an Ethernet interface
- 438 Applying a filter to a VLAN Ethernet interface
- 439 Applying an Ethernet filter to a VLAN bridging connection
- 439 Administrative tools for filters
- 441 IP Control Module Diagnostics
- 442 Enabling the debug environment
- 442 Gigabit Ethernet diagnostics
- 444 IGMP diagnostics
- 450 PIM-SM diagnostics
- 453 VLAN-related diagnostics
- 459 SAR-related diagnostics
- 460 Network processor-related diagnostics
- 467 Multicast-capable high-bandwidth LIM diagnostics
- 469 SNMP MIB for GMAC and VLAN statistics
- 469 History maintained at 15-minute intervals
- 469 Gigabit Ethernet (GigE) statistics tables
- 474 VLAN statistics tables
- 475 PIMv2 MIB support
- 479 Index
Frequently Answers and Questions
What is Stinger IP Control Module and its purpose?
Stinger IP Control Module is a network device that provides a range of features including routing, bridging, QoS, and tunneling, enabling the creation of high-performance and feature-rich networks.
What are the models of Stinger IP Control Module?
The document describes two models: IP2000 and IP2100. The IP2000 supports up to 2048 trunk-terminated calls, while the IP2100 offers flexible memory modes for maximizing user connections.
How do I configure Gigabit Ethernet interfaces on the Stinger IP Control Module?
The document provides instructions on configuring Gigabit Ethernet interfaces, including enabling layer 2 bridging for VLAN operations, port redundancy, and even Link Aggregation Control Protocol (LACP) for increased bandwidth and failover capabilities.
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