Table Of Contents
DSL Interface Cards
Overview
ADSL WICs
LEDs on ADSL WICs
Supported Platforms
G.SHDSL WICs
LEDs on G.SHDSL WICs
Supported Platforms
G.SHDSL High Speed WICs (HWICs)
LEDs on G.SHDSL HWICs
Supported Platforms
ADSL High Speed WICs (HWICs)
LEDs on ADSL HWICs
Supported Platforms
Cables
Connecting a DSL Interface Card to the Network
Connecting the DSL Ports on WICs and HWICs
Connecting the ISDN Ports on HWICs
Connecting the SHDSL Port on the G.SHDSL HWICs
Using POTS Splitters and Microfilters with an ADSL-over-POTS WIC (WIC-1ADSL)
POTS Splitters
Microfilters
Common Splitter and Microfilter Configurations
Related Documentation
Obtaining Documentation, Obtaining Support, and Security Guidelines
DSL Interface Cards
Revised: 12/06/07, OL-12846-01
Overview
This document describes Cisco digital subscriber line (DSL) interface cards and how to connect Cisco DSL interface cards to a network. It contains the following sections:
•
ADSL WICs
• G.SHDSL WICs
• G.SHDSL High Speed WICs (HWICs)
• ADSL High Speed WICs (HWICs)
• Cables
• Connecting a DSL Interface Card to the Network
• Using POTS Splitters and Microfilters with an ADSL-over-POTS WIC (WIC-1ADSL)
• Related Documentation
• Obtaining Documentation, Obtaining Support, and Security Guidelines
For an overview of Cisco interface cards used for Cisco access routers see the Cisco Interface Cards for Cisco Access Routers document.
ADSL WICs
The DSL wide area network (WAN) interface cards (WICs) support one DSL line between a single customer premises equipment (CPE) subscriber and a central office.
Asymmetric digital subscriber line (ADSL) WICs are available in three variations:
•ADSL over POTS (WIC-1ADSL)
•ADSL over POTS with Dying Gasp support (WIC-1ADSL-DG)
•ADSL over ISDN with Dying Gasp support (WIC-1ADSL-I-DG)
The ADSL over POTS interface card is commonly used to provide ADSL services over ordinary telephone lines. The ADSL-over-ISDN interface card is used to provide ADSL services in those areas of the world that have extensive ISDN backbones already in place.
Note The term dying gasp refers to power status as defined in ITU-T standard G.991.2, section 7.1.2.5.3.
LEDs on ADSL WICs
ADSL WICs have three LEDs, which are shown in Figure 62 and are described in Table 14.
Figure 62 ADSL and G.SHDSL WIC Front Panels
Table 14 ADSL WIC LEDs
LED
|
Color
|
Description
|
CD LED
|
Green
|
Lit when the unit is connected to the network and operating normally. On ADSL interface cards only, this LED blinks while training with DSLAMs. Does not apply to the WIC-1SHDSL-V2 or WIC-1SHDSL-V3 interface cards.
|
LP LED
|
Yellow
|
DSL interface is in loopback mode.
|
Off
|
Normal operation.
|
OK LED
|
Green
|
Enabled when the card is detected by the router.
|
LINK (CD) LED
|
Green and Yellow
|
Green when cells or frames are passing between the host and the DSLAM. Yellow when the T1E1 framer detects an alarm. Applies only to the WIC-1SHDSL-V2 and WIC-1SHDSL-V3 interface cards.
|
Supported Platforms
For a list of the platforms supported by a Cisco interface card refer to Platform Support for Cisco Interface Cards.
Finding Support Information for Platforms and Cisco IOS Software Images
Use Cisco Feature Navigator to find information about platform support and Cisco IOS software image support. Access Cisco Feature Navigator at http://www.cisco.com/go/fn. You must have an account on Cisco.com. If you do not have an account or have forgotten your username or password, click Cancel at the login dialog box and follow the instructions that appear.
G.SHDSL WICs
The Multirate Symmetrical High-Speed Digital Subscriber Line (G.SHDSL) cards support two or more DSL lines.
The G.SHDSL WICs are available in the following variations:
•The WIC-1SHDSL is a 1-port interface card that supports one pair of copper wire (2-wire G.SHDSL). It is compatible with Cisco G.SHDSL line cards in the Cisco 6015, Cisco 6130, Cisco 6160, or Cisco 6260 digital subscriber line access multiplexer (DSLAM).
•The WIC-1SHDSL-V2 and WIC-1SHDSL-V3 interface cards are 1-port cards. They support all G.SHDSL features, and supply two twisted pairs of wires to implement 4-wire (two-line) G.SHDSL. These WICs support dying gasp and wetting current. They also provide a higher symmetrical bandwidth and longer reach than 2-wire G.SHDSL.
Caution To comply with the Telcordia GR-1089 NEBS standard for electromagnetic compatibility and safety, connect the 1-port G.SHDSL interface card (WIC-1SHDSL-V2 and WIC-1SHDSL-V3) only to intra-building or non-exposed wiring or cabling. The intrabuilding cable must be shielded and the shield must be grounded at both ends.
LEDs on G.SHDSL WICs
The ADSL and G.SHDSL WICs have three LEDs, which are shown in Figure 63 and are described in Table 15.
Figure 63 G.SHDSL WIC Front Panels
Table 15 G.SHDSL WIC LEDs
LED
|
Color
|
Description
|
CD LED
|
Green
|
Lit when the unit is connected to the network and operating normally. On ADSL interface cards only, this LED blinks while training with DSLAMs. Does not apply to the WIC-1SHDSL-V2 or WIC-1SHDSL-V3 interface cards.
|
LP LED
|
Yellow
|
DSL interface is in loopback mode.
|
Off
|
Normal operation.
|
OK LED
|
Green
|
Enabled when the card is detected by the router.
|
LINK (CD) LED
|
Green and Yellow
|
Green when cells or frames are passing between the host and the DSLAM. Yellow when the T1E1 framer detects an alarm. Applies only to the WIC-1SHDSL-V2 and WIC-1SHDSL-V3 interface cards.
|
Supported Platforms
Table 16 lists the Cisco router platforms that are compatible with each mode available on the WIC-1SHDSL-V2 interface card.
Table 16 Cisco router platforms compatible with WIC-1SHDSL-V2 interface card
Mode
|
Cisco Platforms
|
2-wire ATM
|
•Cisco 1721
•Cisco 1751
•Cisco 1760
•Cisco 1841
•Cisco 26xxXM
•Cisco 2691
•Cisco 28xx
•Cisco 3631
•Cisco 37xx
•Cisco 38xx
|
2-wire T1/E1 in back-to-back configurations
|
•Cisco 1721
•Cisco 1751
•Cisco 1760
•Cisco 26xxXM
|
4-wire ATM
|
•Cisco 1721
•Cisco 1751
•Cisco 1760
•Cisco 1841
•Cisco 26xxXM
•Cisco 2691
•Cisco 28xx
•Cisco 3631
•Cisco 37xx
•Cisco 38xx
|
Table 17 lists the Cisco router platforms that are compatible with each mode available on the WIC-1SHDSL-V3 interface card.
Table 17 Cisco router platforms compatible with WIC-1SHDSL-V3 interface card
Mode
|
Cisco Platforms
|
2-wire ATM
|
•Cisco 1721
•Cisco 1751
•Cisco 1760
•Cisco 1841
•Cisco 26xxXM
•Cisco 2691
•Cisco 28xx
•Cisco 37xx
•Cisco 38xx
|
4-wire ATM
|
•Cisco 1721
•Cisco 1751
•Cisco 1760
•Cisco 1841
•Cisco 26xxXM
•Cisco 2691
•Cisco 28xx
•Cisco 37xx
•Cisco 38xx
|
For a list of the platforms supported by a Cisco interface card refer to Platform Support for Cisco Interface Cards.
Finding Support Information for Platforms and Cisco IOS Software Images
Use Cisco Feature Navigator to find information about platform support and Cisco IOS software image support. Access Cisco Feature Navigator at http://www.cisco.com/go/fn. You must have an account on Cisco.com. If you do not have an account or have forgotten your username or password, click Cancel at the login dialog box and follow the instructions that appear.
G.SHDSL High Speed WICs (HWICs)
The G.SHDSL high speed WICs (HWICs) are available in the following variations:
•The G.SHDSL HWICs support up to four pairs of DSL: two inverse multiplexing over ATM (IMA) lines, and two ATM segmentation and reassembly (SAR) lines. The four DSL pairs are bundled in groups and configured in the Cisco IOS command-line interface (CLI) by using the dsl-group command.
– The HWIC-2SHDSL provides two ports of connectivity through one RJ-11 connector. It supports 1-Pair groups or 2-Pair groups.
–The HWIC-4SHDSL provides four ports of connectivity through one RJ-45 connector. It combines four ports of data into one line or two lines with either inverse multiplexing over ATM (IMA) groups or M-pair groups, and it supports 1-Pair groups or 2-Pair groups.
Note The Cisco HWIC-2SHDSL provides support for the Dying Gasp feature; however, the Cisco HWIC-4SHDSL does not provide support for this feature. The term dying gasp refers to power status as defined in ITU-T standard G.991.2, section 7.1.2.5.3.
LEDs on G.SHDSL HWICs
The G.SHDSL HWICs have 4 LEDs that indicate DSL functionality. Figure 64 and Figure 65 show the front panels and LEDs for the HWIC-2SHDSL and HWIC-4SHDSL. The LED descriptions follow.
Figure 64
HWIC-2SHDSL Front Panel
Figure 65
HWIC-4SHDSL Front Panel
EN
|
Status of the system:
Green—Operating system is running.
Amber—Interface card is resetting.
Blinking—System is initializing.
|
L0, L1, L2, L3
|
Status of link:
On—Link is active.
Off—Link is inactive (disabled).
Blinking— Link is training / Link alarm.
|
Supported Platforms
For a list of the platforms supported by a Cisco interface card refer to Platform Support for Cisco Interface Cards.
Finding Support Information for Platforms and Cisco IOS Software Images
Use Cisco Feature Navigator to find information about platform support and Cisco IOS software image support. Access Cisco Feature Navigator at http://www.cisco.com/go/fn. You must have an account on Cisco.com. If you do not have an account or have forgotten your username or password, click Cancel at the login dialog box and follow the instructions that appear.
ADSL High Speed WICs (HWICs)
ADSL high speed WICs (HWICs) provide ADSL support to platforms with HWIC-enabled interface slots, such as the Cisco 1800 series (modular), Cisco 2800 series, and Cisco 3800 series integrated services routers. Standard ADSL, ADSL2, ADSL2+, and Dying Gasp are supported.
ADSL HWICs are available in the following variations:
•ADSL over POTS (ADSLoPOTS) HWICs
–HWIC-ADSL, a 1-port ADSLoPOTS card
–HWIC-ADSL-B/ST, a 2-port card with a port for ADSLoPOTS and a data-only backup port for an ISDN BRI S/T connection
•ADSL over ISDN (ADSLoISDN) HWICs
–HWIC-ADSLI, a 1-port ADSLoISDN card
–HWIC-ADSLI-B/ST, a 2-port card with a port for ADSLoISDN and a data-only backup port for an ISDN BRI S/T connection
Note ADSL HWICs can be inserted only in those interface slots that are enabled to receive HWICs. To determine which slots in your router are enabled to receive HWICs, refer to the Interface Card Slot Locations and Numbering on Cisco Access Routers section of the Overview of Cisco Interface Cards for Access Routers chapter of the Cisco Interface Cards Hardware Installation Guide.
ADSL HWICs are all packaged in Cisco's standard single-wide HWIC form factor.
The ADSL port is connected to the WAN with a straight-through RJ-11 cable supplied with the card.
The ISDN port is connected to an NT1 device with a straight-through RJ-45 cable, not supplied.
LEDs on ADSL HWICs
ADSL HWICs have 3 LEDs that indicate DSL functionality. Those ADSL HWICs with a backup ISDN port have three additional LEDs that indicate ISDN functionality.
Figure 66 and Figure 67 show the front panels and LEDs for the ADSLoPOTS and ADSLoISDN HWICs. The LED descriptions are listed in Table 18.
Figure 66 ADSLoPOTS HWIC Front Panel
Figure 67 ADSLoISDN HWIC Front Panel
Table 18 ADSL HWIC LEDs
LED
|
Color
|
Description
|
LP
|
Yellow
|
DSL interface is in loopback mode.
|
Off
|
Normal operation.
|
CD
|
Green
|
Lit when the unit is connected to the network and operating normally. This LED blinks slowly while downloading ADSL firmware, and blinks rapidly while training with DSLAMs.
|
OK (ADSL)
|
Green
|
Enabled when the card is detected by the router. This LED blinks while downloading firmware.
|
B1
|
Green
|
ISDN port. Blinks with active connection on the first B channel.
|
B2
|
Green
|
ISDN port. Blinks with active connection on the second B channel.
|
OK (ISDN)
|
Green
|
ISDN port has established a connection with the central office switch (D channel).
|
Supported Platforms
For a list of the platforms supported by a Cisco interface card refer to Platform Support for Cisco Interface Cards.
Finding Support Information for Platforms and Cisco IOS Software Images
Use Cisco Feature Navigator to find information about platform support and Cisco IOS software image support. Access Cisco Feature Navigator at http://www.cisco.com/go/fn. You must have an account on Cisco.com. If you do not have an account or have forgotten your username or password, click Cancel at the login dialog box and follow the instructions that appear.
Cables
The twisted-pair straight-through cable for customer premises equipment (CPE) applications is supplied. The RJ-45-to-RJ-45 BRI cable to connect the ISDN BRI ports on ADSLoISDN HWICs is not supplied. The two-line Y-cable for central office (CO) and 4-wire patch panel applications is not supplied.
Note The Y-cable must have the wires for pins 3 and 4 twisted together; wires for pins 2 and 5 must also be twisted together. Each pair goes to its own connector at the patch panel end.
Connecting a DSL Interface Card to the Network
See the following sections for information on connecting DSL interface cards to a network.
• Connecting the DSL Ports on WICs and HWICs
• Connecting the ISDN Ports on HWICs
• Connecting the SHDSL Port on the G.SHDSL HWICs
Connecting the DSL Ports on WICs and HWICs
Use a straight-through RJ-11 cable for this connection.
Table 19 shows the ADSL WIC and HWIC pinouts.
Table 19 ADSL WIC and HWIC Pinouts
Pin
|
Signal
|
3
|
Tip
|
4
|
Ring
|
Note If you are connecting an ADSL interface card to an RJ-11 wall jack that has the DSL pair wired for pins 2 and 5, you must use an RJ-11 crossover cable (lavender with blue stripe). The RJ-11 crossover cable is orderable separately as a spare.
Table 20 shows the WIC-1SHDSL pinouts.
Table 20 WIC-1SHDSL Pinouts
Pin
|
Signal
|
3
|
Tip
|
4
|
Ring
|
Table 21 shows the RJ-14C pinouts on the WIC-1SHDSL-V2 and WIC-1SHDSL-V3 interface cards.
Table 21 WIC-1SHDSL-V2 RJ-14C Pinouts
Pins
|
Signal
|
Line
|
3 and 4
|
3 = Tip, 4 = Ring
|
0
|
2 and 5
|
2 = Tip, 5 = Ring
|
1
|
To connect a DSL interface card to the WAN, complete the following steps:
Step 1 Confirm that the router is turned off.
Warning To comply with the Telcordia GR-1089 NEBS standard for electromagnetic compatibility and safety, connect the HWIC-2SHDSL and HWIC-4SHDSL interface cards only to intra-building or unexposed wiring or cable. The intra-building port(s) of the equipment or subassembly must not be metallically connected to interfaces that connect to the OSP or its wiring. These interfaces are designed for use as intra-building interfaces only (Type 2 or Type 4 ports as described in GR-1089-CORE, Issue 4) and require isolation from the exposed OSP cabling. The addition of Primary Protectors is not sufficient protection in order to connect these interfaces metallically to OSP wiring.
Step 2 Connect one end of the cable to the ADSL or G.SHDSL port on the card.
Step 3 Connect the other end to the wall jack (RJ-11) at your site, as shown in Figure 68.
Figure 68 Connecting an ADSL Card to the Wall Jack
Alternately, when connecting a G.SHDSL card to a 4-wire patch panel, use a Y-cable as shown in Figure 69.
Figure 69 Connecting a G.SHDSL Card to a Patch Panel With a Y-Cable
Step 4 Turn on power to the router.
Step 5 To connect the card to the network, you must configure the DSL interface card in the router to the no shutdown state. Enter the no shut command in the router configuration. Verify that the CD LED comes on, indicating that the interface card is connected to the network.
Note Step 5 does not apply to the WIC-1SHDSL-V2 or WIC-1SHDSL-V3.
Connecting the ISDN Ports on HWICs
Use an RJ-45-to-RJ-45 BRI cable (not included) to connect the ISDN BRI port to an ISDN NT1 device. Refer to the online document Cisco Modular Access Router Cable Specifications for pinouts.
To connect an ISDN BRI S/T port to the WAN, follow these steps:
Step 1 Confirm that the router is turned off.
Warning To comply with the Telcordia GR-1089 NEBS standard for electromagnetic compatibility and safety, connect the HWIC-ADSL-B/ST or HWIC-ADSLI-B/ST ISDN BRI S/T port only to intra-building or unexposed wiring or cable. The intra-building port(s) of the equipment or subassembly must not be metallically connected to interfaces that connect to the OSP or its wiring. These interfaces are designed for use as intra-building interfaces only (Type 2 or Type 4 ports as described in GR-1089-CORE, Issue 4) and require isolation from the exposed OSP cabling. The addition of Primary Protectors is not sufficient protection in order to connect these interfaces metallically to OSP wiring.
Step 2 Connect one end of a straight-through RJ-45-to-RJ-45 cable to the S/T interface.
Step 3 Connect the other end of the cable to the NT1 device, as shown in Figure 70.
Figure 70 Connecting the BRI S/T Port
Step 4 Connect the NT1 device to the ISDN wall jack according to the documentation that came with the NT1 device.
Step 5 Turn on power to the router.
Connecting the SHDSL Port on the G.SHDSL HWICs
Connect Cisco G.SHDSL HWICs as described next:
•Cisco HWIC-2SHDSL—Use a standard RJ-11 straight-through cable to establish connection between the HWIC and a network device.
•Cisco HWIC-4SHDSL—Use a standard RJ-45 straight-through cable to establish connection between the HWIC and a network device.
Warning To comply with the Telcordia GR-1089 NEBS standard for electromagnetic compatibility and safety, connect the HWIC-2SHDSL and HWIC-4SHDSL interface cards only to intra-building or unexposed wiring or cable. The intra-building port(s) of the equipment or subassembly must not be metallically connected to interfaces that connect to the OSP or its wiring. These interfaces are designed for use as intra-building interfaces only (Type 2 or Type 4 ports as described in GR-1089-CORE, Issue 4) and require isolation from the exposed OSP cabling. The addition of Primary Protectors is not sufficient protection in order to connect these interfaces metallically to OSP wiring.
Figure 71 shows the RJ-45 pin assignment. Table 22 identifies the RJ-45 signal assignment by pin.
Caution Inserting an
RJ-11 connector into the Cisco HWIC-4SHDSL port may deform pins 1 and 8, which may prevent solid contact between the connector and the plug in subsequent connections. If solid contact is prevented, line -1 tip and line -3 ring will not work properly.
Figure 71
RJ-45 Pin Assignment
Table 22 RJ-45 Signal Assignment by Pin
Pin
|
Signal
|
1
|
Line 1 tip
|
2
|
Line 1 ring
|
3
|
Line 2 tip
|
4
|
Line 0 tip
|
5
|
Line 0 ring
|
6
|
Line 2 ring
|
7
|
Line 3 tip
|
8
|
Line 3 ring
|
To connect the Cisco HWIC-4SHDSLwith a DSLAM that supports two or four RJ-11 connections, modify the standard RJ-45 cable, using one of the following diagrams as applicable:
• Figure 72 shows how to modify the cable and connect the Cisco HWIC-4SHDSL with a DSLAM that supports four RJ-11 cable connections.
• Figure 73 shows how to modify the cable and connect the Cisco HWIC-4SHDSL with a DSLAM that supports two RJ-11 cable connections.
Figure 72
Standard RJ-45 Connector to Four Standard RJ-11 Connectors
Figure 73
Standard RJ-45 Connector to Two Standard RJ-11 Connectors
Using POTS Splitters and Microfilters with an ADSL-over-POTS WIC (WIC-1ADSL)
POTS splitters and microfilters apply to the ADSL-over-POTS WIC only. They are used on telephone lines to ensure voice- and data-call quality. POTS splitters result in the best data and voice performance when the router and the telephone are used on the same telephone line.
POTS Splitters
A POTS splitter (also called a splitter) is installed on a telephone line that is connected to both data (high-frequency) and voice (low-frequency) devices. The splitter routes the high-frequency and low-frequency signals on the telephone line to the correct device. Signals intended for the router can disrupt voice calls; signals intended for voice calls can affect router operation.
Most splitters must be installed by the telephone company; however, some splitters can be installed by the customer. If you are not sure what type of splitter to use, contact your service provider.
Figure 74 is an example of a type of POTS splitter that is installed at the customer premises by the customer. Other types of POTS splitters are installed by the telephone company on an exterior wall of the customer premises.
Figure 74 POTS Splitters
Microfilters
Microfilters are installed on telephones to improve voice-call quality when voice and data equipment are using the same telephone line (twisted pair). You should use microfilters only when the two following conditions exist:
•The documentation for the telephone you are using with the router states that microfilters should be used with the phone.
•Poor telephone call quality can be resolved by installing a microfilter on the phone line.
Figure 75 shows one type of microfilter.
Figure 75 Microfilter
Common Splitter and Microfilter Configurations
This section describes the most common scenarios for using splitters and microfilters. The scenarios are listed from most common to least common.
Telephone Company-Installed Splitter
This scenario is described below and illustrated in Figure 76.
•The telephone company has provisioned a single copper pair to be used by both the telephone (POTS) service and the router with a DSL interface card, so a POTS splitter must be installed.
•The splitter is installed by the telephone company on the customer premises. This type of splitter is also referred to as a network interface device (NID).
•The router and telephone are on separate lines (twisted pair) to the splitter.
•The router and telephone share the same telephone line (twisted pair) to the telephone company.
Figure 76 Telephone Company-Installed Splitter
Customer-Installed Splitter
This scenario is described below and illustrated in Figure 77.
•The telephone company has provisioned a single copper pair to be used by both the telephone (POTS) service and the router with a DSL interface card, so a POTS splitter must be installed.
•The splitter is installed by the customer on the customer premises.
•The router and telephone are directly connected to the splitter, which is connected to the telephone line.
•The router and telephone share the same telephone line (twisted pair) to the telephone company.
•For optional telephones connected through the splitter, microfilters are optional. They should be installed only if they improve telephone call quality.
•For telephones connected directly to the telephone line, microfilters are required.
Figure 77 Customer-Installed Splitter
Router and Telephone Using Separate Telephone Lines
This scenario is described below and illustrated in Figure 78.
•The telephone company has provisioned a single copper pair to be used exclusively by the router with a DSL interface card and a separate copper pair to be used exclusively by the telephone (POTS) service; therefore, neither a POTS splitter nor a microfilter is needed.
•The microfilter is optional; it should be installed only if it improves telephone call quality.
Figure 78 No Splitter, Optional Microfilter
Related Documentation
Related documentation is available on Cisco.com or on the Product Documentation DVD. For more information, see the "Obtaining Documentation, Obtaining Support, and Security Guidelines" section.
Feature Modules
– Configuring Cisco G.SHDSL HWICs in Cisco Access Routers
– 1-Port ADSL WAN Interface Card for Cisco 2600 Series and Cisco 3600 Series Routers, Cisco IOS Release 12.2(4)T
– 1-Port ADSL WAN Interface Card, Cisco IOS Releases 12.1(3)XJ and 12.2(2)T
– 1-Port ADSL WAN Interface Card, Cisco IOS Release 12.1(5)YB
– ATM Mode for Two-Wire or Four-Wire SHDSL, Cisco IOS Release 12.3(7)T
– T1/E1 Mode for SHDSL, Cisco IOS Release 12.3(7)T
– 1-Port G.SHDSL WAN Interface Card for Cisco 2600 Series Routers, Cisco IOS Release 12.2(4)XL
– Enhanced Voice and QoS for ADSL and G.SHDSL, Cisco IOS Release 12.3(2)T
– Enhanced Voice and QoS for ADSL and G.SHDSL on Cisco 1700 Series, Cisco 2600 Series, Cisco 3600 Series, and Cisco 3700 Series Routers, Cisco IOS Releases 12.2(8)YN and 12.2(13)T
– Voice and Quality of Service Features for ADSL and G.SHDSL on Cisco 1700, Cisco 2600, and Cisco 3600 Series Routers, Cisco IOS Releases 12.2(4)XL and 12.2(13)T
Sample Configurations
– Configuring IPSec Over ADSL on a Cisco 2600/3600 With ADSL-WIC and Hardware Encryption Modules
– Configuring a Cisco 1700/2600/3600 ADSL WIC With a Single IP Address, DHCP, PPPoA, and PPP-PAP
– Configuring a Cisco 1700/2600/3600 ADSL WIC With IP Unnumbered E0, DHCP, PPPoA, and PPP-PAP
– Configuring a Cisco 1700/2600/3600 ADSL WIC With IP Unnumbered E0, PPPoA, PPP-PAP, and Manually Configured Local LAN Devices
– Configuring a Cisco 1700/2600/3600 ADSL WIC (Unnumbered Interface) With RFC1483 Routing Using AAL5SNAP Protocol IP
– Configuring a Cisco 1700/2600/3600 ADSL WIC With RFC1483 Routing Using AAL5SNAP Protocol IP
– Configuring a Cisco 1700/2600/3600 ADSL WIC Using PPPoA With CHAP and PAP
– Configuring a Cisco 1700/2600/3600 ADSL WIC With IRB and NAT Using RFC1483 Bridging
– Configuring a Cisco 1700/2600/3600 ADSL WIC With NAT, a DHCP Server, and Easy IP Using PPPoA (aal5mux ppp)
– Configuring a Cisco 1700/2600/3600 ADSL WIC as a PPPoE Client With NAT,
– Configuring Network Address Translation and Static Port Address Translation to Support an Internal Web Server
– Configuring a Cisco 1700/2600/3600 ADSL WIC With AAL5MUX IP Routing, Multiple PVCs, and Terminating on a Cisco 6400 UAC-NRP
– Configuring a Cisco 1700/2600/3600 ADSL WIC to Support PPPoE Clients, Terminating on a Cisco 6400 UAC
– Configuring a Cisco 1700/2600/3600 ADSL WIC and a Cisco 6400 Configured With IRB Using RFC1483 Bridging (aal5snap)
– Configuring a Cisco 1700/2600/3600 ADSL WIC and a Cisco 6400 in RBE Mode Using RFC1483 Bridging
Obtaining Documentation, Obtaining Support, and Security Guidelines
For information on obtaining documentation, obtaining support, providing documentation feedback, security guidelines, and also recommended aliases and general Cisco documents, see the monthly What's New in Cisco Product Documentation, which also lists all new and revised Cisco technical documentation, at:
http://www.cisco.com/en/US/docs/general/whatsnew/whatsnew.html
Any Internet Protocol (IP) addresses used in this document are not intended to be actual addresses. Any examples, command display output, and figures included in the document are shown for illustrative purposes only. Any use of actual IP addresses in illustrative content is unintentional and coincidental.
© 2007 Cisco Systems, Inc. All rights reserved.
