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Product Number: AS52-MCC=
This document describes how to replace 6-port MICA modules and carrier cards in Cisco AS5200 universal access servers. The part numbers are as follows:
This document includes the following sections:
Follow these guidelines to ensure general safety:
Safety warnings appear throughout this publication in procedures that, if performed incorrectly, may harm you. A warning symbol precedes each safety warning.
 | Warning .Means danger. You are in a situation that could cause bodily injury. Before you work on any equipment, you must be aware of the hazards involved with electrical circuitry and familiar with standard practices for preventing accidents. To see translations of the warnings that appear in this publication, refer to the Regulatory Compliance and Safety Information document that accompanied this device. |
Waarschuwing Dit waarschuwingssymbool betekent gevaar. U verkeert in een situatie die lichamelijk letsel kan veroorzaken. Voordat u aan enige apparatuur gaat werken, dient u zich bewust te zijn van de bij elektrische schakelingen betrokken risico's en dient u op de hoogte te zijn van standaard maatregelen om ongelukken te voorkomen. Voor vertalingen van de waarschuwingen die in deze publicatie verschijnen, kunt u het document Regulatory Compliance and Safety Information (Informatie over naleving van veiligheids- en andere voorschriften) raadplegen dat bij dit toestel is ingesloten.
Varoitus Tämä varoitusmerkki merkitsee vaaraa. Olet tilanteessa, joka voi johtaa ruumiinvammaan. Ennen kuin työskentelet minkään laitteiston parissa, ota selvää sähkökytkentöihin liittyvistä vaaroista ja tavanomaisista onnettomuuksien ehkäisykeinoista. Tässä julkaisussa esiintyvien varoitusten käännökset löydät laitteen mukana olevasta Regulatory Compliance and Safety Information -kirjasesta (määräysten noudattaminen ja tietoa turvallisuudesta).
Attention 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. Pour prendre connaissance des traductions d'avertissements figurant dans cette publication, consultez le document Regulatory Compliance and Safety Information (Conformité aux règlements et consignes de sécurité) qui accompagne cet appareil.
Warnung Dieses Warnsymbol bedeutet Gefahr. Sie befinden sich in einer Situation, die zu einer Körperverletzung führen könnte. Bevor Sie mit der Arbeit an irgendeinem Gerät beginnen, seien Sie sich der mit elektrischen Stromkreisen verbundenen Gefahren und der Standardpraktiken zur Vermeidung von Unfällen bewußt. Übersetzungen der in dieser Veröffentlichung enthaltenen Warnhinweise finden Sie im Dokument Regulatory Compliance and Safety Information (Informationen zu behördlichen Vorschriften und Sicherheit), das zusammen mit diesem Gerät geliefert wurde.
Avvertenza Questo simbolo di avvertenza indica un pericolo. La situazione potrebbe causare infortuni alle persone. Prima di lavorare su qualsiasi apparecchiatura, occorre conoscere i pericoli relativi ai circuiti elettrici ed essere al corrente delle pratiche standard per la prevenzione di incidenti. La traduzione delle avvertenze riportate in questa pubblicazione si trova nel documento Regulatory Compliance and Safety Information (Conformità alle norme e informazioni sulla sicurezza) che accompagna questo dispositivo.
Advarsel Dette varselsymbolet betyr fare. Du befinner deg i en situasjon som kan føre til personskade. Før du utfører arbeid på utstyr, må du vare oppmerksom på de faremomentene som elektriske kretser innebærer, samt gjøre deg kjent med vanlig praksis når det gjelder å unngå ulykker. Hvis du vil se oversettelser av de advarslene som finnes i denne publikasjonen, kan du se i dokumentet Regulatory Compliance and Safety Information (Overholdelse av forskrifter og sikkerhetsinformasjon) som ble levert med denne enheten.
Aviso Este símbolo de aviso indica perigo. Encontra-se numa situação que lhe poderá causar danos físicos. Antes de começar a trabalhar com qualquer equipamento, familiarize-se com os perigos relacionados com circuitos eléctricos, e com quaisquer práticas comuns que possam prevenir possíveis acidentes. Para ver as traduções dos avisos que constam desta publicação, consulte o documento Regulatory Compliance and Safety Information (Informação de Segurança e Disposições Reguladoras) que acompanha este dispositivo.
¡Advertencia! Este símbolo de aviso significa peligro. Existe riesgo para su integridad física. Antes de manipular cualquier equipo, considerar los riesgos que entraña la corriente eléctrica y familiarizarse con los procedimientos estándar de prevención de accidentes. Para ver una traducción de las advertencias que aparecen en esta publicación, consultar el documento titulado Regulatory Compliance and Safety Information (Información sobre seguridad y conformidad con las disposiciones reglamentarias) que se acompaña con este dispositivo.
Varning! Denna varningssymbol signalerar fara. Du befinner dig i en situation som kan leda till personskada. Innan du utför arbete på någon utrustning måste du vara medveten om farorna med elkretsar och känna till vanligt förfarande för att förebygga skador. Se förklaringar av de varningar som förkommer i denna publikation i dokumentet Regulatory Compliance and Safety Information (Efterrättelse av föreskrifter och säkerhetsinformation), vilket medföljer denna anordning.
| Warning Read the installation instructions before you connect the system to its power source. |
| Warning Ultimate disposal of this product should be handled according to all national laws and regulations. |
| Warning Only trained and qualified personnel should be allowed to install or replace this equipment. |
| Warning Before working on a chassis or working near power supplies, unplug the power cord on AC units; disconnect the power at the circuit breaker on DC units. |
Follow these guidelines when working on equipment powered by electricity:
Electrostatic discharge (ESD) can damage equipment and impair electrical circuitry. It occurs when electronic printed circuit cards are improperly handled and can result in complete or intermittent failures. Always follow ESD prevention procedures when removing and replacing cards. Ensure that the chassis is electrically connected to earth ground. Wear an ESD-preventive wrist strap, ensuring that it makes good skin contact. Connect the clip to an unpainted surface of the chassis frame to safely channel unwanted ESD voltages to ground. To properly guard against ESD damage and shocks, the wrist strap and cord must operate effectively. If no wrist strap is available, ground yourself by touching the metal part of the chassis.
 | Caution For safety, periodically check the resistance value of the antistatic strap, which should be between 1 and 10 megohm (Mohm). |
The MICA carrier card requires the following images:
| Caution Before physically installing a MICA carrier card in an Cisco AS5200, you must upgrade the boot Flash image in the access server's boot Flash memory as described in the section "Installing a New MICA Carrier Card." |
To install the MICA modules and carrier cards, you will need the following tools and equipment which are not included:
The LEDs on the front panel of the MICA carrier card (see Figure 1) indicate the current operating condition of the 6-port MICA modules installed on the card. You can observe the LEDs, note any fault condition that the product is encountering, and then contact your system administrator or a customer service representative, if necessary. See the section "Cisco Connection Online," for details. Refer to Table 1 for a description of the LEDs.
| LED | State | Description |
|---|---|---|
| Activity (ACT)1 | Flickering | There is modem call activity on the MICA modules. |
| Off | There is no modem call activity on the MICA modules. | |
| Board OK (OK) | One flash | The carrier card is powering up. |
| On | The carrier card has passed initial power-up diagnostics tests and is operating normally. | |
| Off | A fault condition occurred. |
Successful installation of the new MICA modem carrier card requires these steps:
See the following sections for details.
If you own a SMARTnet contract, you can obtain the Cisco IOS image at Cisco's Software Center home page at the following URL (this is subject to change without notice):
http://www.cisco.com/kobayashi/sw-center
Before you physically install your new 6-port MICA carrier card, you must upgrade the boot Flash image in the access server boot Flash memory.
| Caution Unless you upgrade the image before installing the carrier card, the installation will not be successful. Also, if your access server has only 4 MB of boot Flash, Cisco recommends upgrading to 8 MB of boot Flash as you might not have enough room to upgrade to the new boot Flash image. If you do not upgrade the boot Flash and wish to upload the new image to the 4-MB boot Flash, we recommend copying the contents of your boot Flash to a PC hard disk or network server location, and then erasing the boot Flash when prompted by the system. You can follow the procedures in the sections, "Upgrading Modem Code from the Cisco CCO TFTP Server" and "Upgrading Modem Code from Diskettes," later in this configuration note, to grade the boot Flash image. |
| Caution Before installing the card, make sure you have upgraded the Cisco IOS image and the boot Flash image, as described in the sections Upgrade the Cisco IOS Image, page 6 and Upgrade the Boot Flash Image, page 6. |
| Warning Before working on a chassis or working near power supplies, unplug the power cord on AC units; disconnect the power at the circuit breaker on DC units. |
| Warning Before opening the chassis, disconnect the telephone-network cables to avoid contact with telephone-network voltages. |
| Warning Do not work on the system or connect or disconnect cables during periods of lightning activity. |
| Warning This equipment is intended to be grounded. Ensure that the host is connected to earth ground during normal use. |
| Warning Before working on equipment that is connected to power lines, remove jewelry (including rings, necklaces, and watches). Metal objects will heat up when connected to power and ground and can cause serious burns or weld the metal object to the terminals. |
For DC-powered units only, note the following warning:
| Warning Before performing any of the following procedures, ensure that power is removed from the DC circuit. To ensure that all power is OFF, locate the circuit breaker on the panel board that services the DC circuit, switch the circuit breaker to the OFF position, and tape the switch handle of the circuit breaker in the OFF position. |
To install a new MICA module carrier card (see Figure 2), do the following:
Step 1 Remove the carrier card from the ESD-preventive mat.
Step 2 Slide the carrier card into the slot until it touches the backplane connector.
Step 3 Align the captive screws with their holes, and then seat the carrier card completely.
Step 4 Tighten the two captive screws to secure the carrier card to the chassis.
Step 5 If the access server is configured with fewer than three cards, ensure proper airflow inside the chassis by installing a blank slot cover is installed over each open slot. Note that you can order blank slot covers from Cisco. The part number is AS52M-BLANK=.
| Caution The MICA carrier cards are not hot-swappable (that is, you cannot remove or install them when the power to the access server is ON). Be sure to turn OFF the power to the access server before installing or removing carrier cards. Failure to do so can damage the access server. |
| Warning Before working on a chassis or working near power supplies, unplug the power cord on AC units; disconnect the power at the circuit breaker on DC units. |
| Warning Before opening the chassis, disconnect the telephone-network cables to avoid contact with telephone-network voltages. |
| Warning Do not work on the system or connect or disconnect cables during periods of lightning activity. |
| Warning This equipment is intended to be grounded. Ensure that the host is connected to earth ground during normal use. |
| Warning Before working on equipment that is connected to power lines, remove jewelry (including rings, necklaces, and watches). Metal objects will heat up when connected to power and ground and can cause serious burns or weld the metal object to the terminals. |
For DC-powered units only, note the following warning:
| Warning Before performing any of the following procedures, ensure that power is removed from the DC circuit. To ensure that all power is OFF, locate the circuit breaker on the panel board that services the DC circuit, switch the circuit breaker to the OFF position, and tape the switch handle of the circuit breaker in the OFF position. |
To remove the MICA carrier card, perform the following steps:
Step 1 Attach an ESD-preventive wrist strap.
Step 2 Power OFF the access server.
Step 3 On the back of the access server, locate the MICA carrier card (see Figure 1).
Step 4 Loosen the two captive screws that secure the carrier card to the chassis until each screw is free of the chassis (see Figure 2).
Step 5 Hold the captive screws and gently pull the carrier card free of the chassis. If the card is hard to remove, insert a flat-head screwdriver vertically into the left and right sides of the board and gently pry the board loose (see Figure 3). Then, hold the captive screws and gently pull out the carrier card.
Step 6 Set the removed carrier card aside on an ESD-preventive mat.
| Caution The EMI protective devices on the carrier cards are designed to make the cards fit tightly. When removing the cards, they can release suddenly. Exercise caution when removing cards. |
To remove the 6-port MICA modules, perform the following steps:
Step 1 Make sure that you have attached an ESD-preventive wrist strap and that the system is powered OFF.
Step 2 On the carrier card, locate the 6-port MICA module you will replace (see Figure 4).
Step 3 Orient the module so that the MICA module socket faces away from you.
Step 4 Gently pry the edges of the 6-port MICA module away from the standoffs, as shown in Figure 5.
Step 5 Push the two socket latches away from the MICA module, as shown in Figure 6.
Step 6 Remove the MICA module from its socket, as shown in Figure 7.
To install a 6-port MICA module:
Step 1 Insert the 6-port MICA module into the socket at a 45× angle.
Step 2 Seat the 6-port MICA module in the socket and press its edges onto the standoffs, as shown in Figure 8.
Modem code is a generic term applied to a modem code file, which is also called portware for MICA modems and firmware for Microcom modems.
With new systems, Cisco loads a Cisco IOS software-compatible version of modem code and copies the version to the installed modem modules. A map of the version(s) of modem code copied to the modem RAM for each modem module is stored in nonvolatile random-access memory (NVRAM) so that it is retained over power cycles.
You can acquire new modem code in several ways:
This section describes how to upgrade modem code on your access server modems by:
 | Caution Cisco ships the access server with the latest version of modem code installed in the boot Flash memory and mapped to the modems. If you choose to use the modem code bundled with your installed Cisco IOS software, you could be reverting to a previous version of modem code. Also note that once you map the bundled modem code (using the copy-ios bundled modem command) to your modems, each time you upgrade the Cisco IOS software, the new bundled modem code is automatically mapped to your modems. See "Displaying Modem Code Versions," later in this document, for details on displaying mode code versions mapped to modems, installed in boot Flash memory, and bundled with the Cisco IOS software on your access server. |
You can obtain modem code in one of two ways:
There are several commands you use to upgrade modem code. For examples on using the commands, see "Upgrading Modem Code from the Cisco CCO TFTP Server," "Upgrading Modem Code from Diskettes," and "Using the Modem Code Bundled with Cisco IOS Software," later in this document, for details.
Because of multiple versions of modem code and the way Cisco IOS software processes these versions, Cisco suggests that you choose one of the following two strategies:
| Caution Cisco ships the access server with the latest version of modem code installed in the boot Flash memory and mapped to the modems. If you choose to use the modem code bundled with your installed Cisco IOS software, you could be reverting to a previous version of modem code. Also note that once you map the bundled modem code (using the copy-ios bundled modem command) to your modems, each time you upgrade the Cisco IOS software, the new bundled modem code is automatically mapped to your modems. See "Displaying Modem Code Versions," later in this document, for details on displaying mode code versions mapped to modems, installed in boot Flash memory, and bundled with the Cisco IOS software on your access server. |
To help with the decision, Figure 9 shows a hypothetical release process. Using the modem code bundled with Cisco IOS software is the easier strategy and enables you to take advantage of new modem code whenever you upgrade your Cisco IOS software. Note that you can also control the modem code by reverting to previous versions using the copy command as discussed later.
Table 2 provides scenarios that can occur when you upgrade Cisco IOS software or modem code.
| No. | Scenario | Update Process |
|---|---|---|
| 1 | You receive a new access server from the Cisco factory. |
|
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2 | You update Cisco IOS software, and decide to use the version of modem code selected by Cisco IOS software. |
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3 | You update Cisco IOS software, and decide not to use the modem code selected by Cisco IOS software. |
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4 | The modems are running a version of modem code from boot Flash memory that is different than the version bundled with Cisco IOS software. You decide to revert to the bundled version. |
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5 | Cisco releases new modem code, which is a later version than the version currently running on the modems. You decide to use the new Cisco modem code.3 |
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Figure 10 shows a release timeline and Table 3 explains the resulting versions of Cisco IOS software and modem code.
| Update Event Time | Update Event | Resulting Version of Cisco IOS Software and Modem Code |
|---|---|---|
| 1 | You upgrade Cisco IOS software to Release B.
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2 | You upgrade Cisco IOS software to Release C. (Cisco IOS software uses mapping from last copy command at Time 1).1 | Cisco IOS Release C Modem Code Version 1 |
| You enter the copy ios-bundled modem command. | Cisco IOS Release C Modem Code Version 3 | |
| 3 | New Modem Code Version 4 is released, you copy the file to boot Flash memory, enter copy bootflash modem, and specify Modem Code Version 4. | Cisco IOS Release C Modem Code Version 4 |
4 | You upgrade Cisco IOS software to Release D. | Cisco IOS Release D Modem Code Version 4 |
| You enter the copy ios-bundled modem command. | Cisco IOS Release D Modem Code Version 3 |
Table 4 provides a list of modem code terminology and a description of how the terms are used in the modem code update process.
| Term | Description |
|---|---|
| Modem Code | Modem code resides in and runs out of modem RAM. Cisco IOS software transfers a version of modem code to modem RAM on each reboot and reload.
Boot Flash memory can contain several versions of modem code: a version bundled with Cisco IOS software and multiple versions that resulted from previous copy tftp bootflash commands. |
| copy ios-bundled command | This command transfers the version of modem code bundled with Cisco IOS software to the modem RAM and maps that version to the modem modules specified by the modem range.
This command does not affect any existing versions of modem code that reside in boot Flash memory. After one copy ios-bundled modem command, future Cisco IOS upgrades will potentially result in the downloading of new Cisco IOS software bundled firmware to the modems. (If the new Cisco IOS image contains the same modem code as the old one, no new code will be downloaded to the modems.) |
| copy tftp bootflash filename command | Places a copy of the modem code in boot Flash memory. |
| copy bootflash modem command | This command transfers the version of modem code in boot Flash memory to the modem RAM and maps that version to the modem modules specified by the modem range. |
| Mapping commands | The copy commands map a specific version of modem code to a group of modem slots/ports. The copy ios-bundled modem command maps the slots/ports to the bundled version, and the copy bootflash modem command maps the slots/ports to the boot Flash memory version.
Cisco IOS software uses the mapping to determine which version of modem code should be downloaded to the modems. If Cisco IOS software finds no mapping or invalid mapping, it downloads the bundled version. Although modem ranges are specified as slot/port, the modem code is downloaded on a per module basis. The show modem mapping command lists all Cisco IOS software and modem code files (bundled and unbundled) and their versions in the boot Flash memory and system Flash memory. This will help you decide if you need to update your modem code files.1 |
Use the show modem mapping command to list all modem code files in the boot Flash memory, system Flash memory, and the modem code files bundled with Cisco IOS software. This will help you decide if you need to update your modem code files.
5200# show modem mapping
Slot 1 has Mica Carrier card.
Modem Firmware Firmware
Module Numbers Rev Filename
0 1/0 - 1/5 2.2.3.0 bootflash:mica-modem-portware.2.2.3.0.bin
1 1/6 - 1/11 2.2.3.0 mica-modem-portware.2.2.3.0.bin
2 1/12 - 1/17 2.2.3.0 mica-modem-portware.2.2.3.0.bin
3 1/18 - 1/23 2.2.3.0 mica-modem-portware.2.2.3.0.bin
4 1/24 - 1/29 2.2.3.0 mica-modem-portware.2.2.3.0.bin
Slot 2 has Mica Carrier card.
Modem Firmware Firmware
Module Numbers Rev Filename
0 2/0 - 2/5 2.2.3.0 flash:1:mica-modem-portware.2.2.3.0.bin
1 2/6 - 2/11 2.2.3.0 mica-modem-portware.2.2.3.0.bin
2 2/12 - 2/17 2.2.3.0 mica-modem-portware.2.2.3.0.bin
4 2/24 - 2/29 2.2.3.0 mica-modem-portware.2.2.3.0.bin
IOS Bundled Firmware Information:
Mica Boardware Version : 1.0.0.0
Mica Portware Version : 2.2.30
Firmware files on Boot Flash:
Firmware-file Version Firmware-Type
============= ======= =============
bootflash:mica-modem-portware.2.2.3.0.bin 2.2.3.0 Mica Portware
Upgrading modem code from the Cisco CCO TFTP server is a two-step process:
You can download software from the CCO TFTP server using an Internet browser or FTP application. Both procedures are described below.
Step 1 Launch an Internet browser.
Step 2 Bring up the Cisco Software Center home page at the following URL (this is subject to change without notice):
http://www.cisco.com/kobayashi/sw-center/
Step 3 Click Access Products (under Cisco Software Products) to open the Access Products window.
Step 4 Click Cisco AS5200 Series Software.
Step 5 Click the modem code you want and download it to your workstation or PC.
Step 6 Click the modem code file you want to download, and then follow the remaining download instructions. If you are downloading the modem code file to a PC, make sure you download it to the c:\tftpboot directory; otherwise, the download process will not work.
Step 7 When the modem code is downloaded to your workstation, transfer the file to a TFTP server in your LAN using a terminal emulation software application.
Step 1 Log in to Cisco CCO FTP server called cco.cisco.com:
ftp cco.cisco.com
Step 2 Enter your CCO registered username and password (for example, harry and letmein):
harry
letmein
Step 3 Specify the directory path that holds the modem modem code you want to download. For example, the directory path for the Cisco AS5200 modem code is /cisco/access/5200:
cd /cisco/access/5200
Step 4 View the contents of the directory with the ls command:
ls
Step 5 Specify a binary image transfer:
binary
Step 6 Copy the modem code files from the Cisco AS5200 to your local environment with the get command.
get images/mica-modem-portware.2.2.3.0.bin
Step 7 Quit your terminal session:
quit
Step 8 Verify you successfully transferred the files to your local directory:
ls -al
pwd
Step 9 Transfer these files to a local TFTP or RCP server that your access server can access.
The procedure for copying the modem code file from your local TFTP server to the modems involves two steps. First, you need to transfer the code to the access server's boot Flash memory. Then, you need to transfer the code to the modems.
These two steps are performed only once. After you copy the modem code file into boot Flash memory for the first time, you should not have to perform these steps again. Because the modem code runs from modem RAM, the Cisco IOS software automatically copies the modem code to each modem each time the access server power cycles.
Perform the following steps to download modem code to MICA modems:
Step 1 Establish an xterm session to the access server if using a UNIX workstation, or a HyperTerminal session to the access server if using a PC. For details on establishing a HyperTerminal session, see "Upgrading Modem Code from Diskettes," later in this document, for details.
Step 2 Enter the access server enable mode (the prompt is displayed as 5200#):
Step 3 Check the files in the access server boot Flash memory:
Step 4 Download the modem code file from TFTP server into the access server boot Flash memory using the copy tftp bootflash command. After you enter the command, you are prompted for the download destination and the remote host name as requested by the system software.
Step 5 Verify the file has been copied into the access server boot Flash memory:
Step 6 Copy the modem code file from the access server boot Flash memory to the modems by entering the copy bootflash modem command:
This section describes how to copy modem code from diskettes to your hard disk in a PC environment, and then upload the modem code to the modems. The steps are similar if you are using a Macintosh or UNIX workstation.
This section describes how to copy the modem code file to your hard disk in a PC environment. The steps are similar if you are using a Macintosh or a UNIX workstation.
Step 1 Insert the modem code diskette in the diskette drive.
Step 2 Use Microsoft Windows 95 Explorer to create a folder named tftpboot at your hard disk root c:.
Step 3 Use the Microsoft Windows 95 Explorer to copy the modem code file into the c:/tftpboot folder.
If you are using a PC running Microsoft Windows 95, installing the modem code from a hard drive onto a Cisco AS5200 involves installing a TFTP application on your PC, connecting your PC and the access server, establishing a HyperTerminal session on your PC, pinging the PC and access server to make sure they are talking to each other, copying the modem code from the PC to the access server, and then mapping the modem code to the modems. See the following sections for details.
Step 1 Install the TFTP application on the PC.
Step 2 Launch the TFTP application by double-clicking the application icon or its filename.
Step 3 Set your TFTP server root directory:
| Caution If you do not select the c:\tftpboot directory as your TFTP server directory, you will not be able to perform the copy procedure. This also applies if you are using RCP on your system. |
In this step, you connect your PC and access server.
Step 1 Use straight-through cables to connect the PC and access via a 10BaseT hub, as shown in Figure 11. Also note that both Ethernet ports must have the same baseband.
Step 2 Connect your PC COM port to the Cisco AS5200 console port, as shown in Figure 11.
Step 3 Make sure your PC and access server are powered on.
Use the steps in this section to establish a HyperTerminal session from your local PC to the Cisco AS5200. You will use the HyperTerminal session to talk to the access server.
Step 1 In Microsoft Windows 95 on your PC, choose Start/Programs/Accessories/HyperTerminal.
Step 2 Double-click Hypertrm.exe to display the Connection Description dialog box.
Step 3 Enter a name for your connection (for example, Console) and click OK. HyperTerminal displays the Phone number dialog box.
Step 4 Choose the COM port connecting the PC and the access server in the Connect using list box. You have options to connect directly to one of four COM ports.
Step 5 Click OK. HyperTerminal displays the COM Properties dialog box.
Step 6 Choose these options in the COM Properties dialog box:
Step 7 Click OK. The HyperTerminal dialog box appears.
Step 8 Press Enter to display the 5200# prompt.
Ping the access server and the PC to make sure they are talking to each other and there are no configuration problems on your access server.
Step 1 Choose the correct Ethernet adapter connecting to the access server and note the PC IP address:
(a) Choose Start/Run to display the Run dialog box.
(b) Enter winipcfg and click OK to display the IP Configuration dialog box.
(c) Choose the PC Ethernet adapter connector used for the connection to the access server if you have more than one Ethernet adapter connector installed on your PC.
(d) Make a note of the PC IP address, and then click OK.
5200# prompt to verify the access server has an IP address assigned. If the access server does not have an IP address, assign an IP address before continuing.
Step 2 In the HyperTerminal dialog box (see the previous section "Establish a HyperTerminal Session" for details), enter the access server enable mode (the prompt is displayed as 5200#):
Step 3 Enter the ping command with your PC IP address:
5200# ping 131.108.1.1
The access server displays five exclamation points (!) if everything is working and it displays five dots (.) if there is a problem. In the latter case, check the cabling between the router and the PC and check the access server configuration.
The procedure for copying the modem code file from your PC set up as a local TFTP server to the access server boot Flash memory is a two-step process.
These two steps are performed only once. After you copy the modem code file into boot Flash memory for the first time, you should not have to perform these steps again. Because the modem code runs from modem RAM, the Cisco IOS software automatically copies the code to each modem each time the access server power cycles.
Step 1 Check the modem code version in the access server boot Flash memory:
Step 2 Download the modem code file from the TFTP server into the access server boot Flash memory using the copy tftp bootflash command. After you enter the command, you are prompted for the download destination and the remote host name as requested by the system software.
Step 3 Verify the modem code file has been copied into the access server boot Flash memory:
Step 4 Copy the modem code file from the access server boot Flash memory to the modems by entering the copy bootflash modem command:
Use this procedure to update modem code on the modems in your access server if you decide to use the version of modem code bundled with Cisco IOS software instead of the version already mapped to your modems.
| Caution Cisco ships the access server with the latest version of modem code installed in the boot Flash memory and mapped to the modems. If you choose to use the modem code bundled with your installed Cisco IOS software, you could be reverting to a previous version of modem code. Also note that after you map the bundled modem code (using the copy-ios bundled modem command) to your modems, each time you upgrade the Cisco IOS software, the new bundled modem code is automatically mapped to your modems. See "Displaying Modem Code Versions," earlier in this document, for details on displaying mode code versions mapped to modems, installed in boot Flash memory, and bundled with the Cisco IOS software on your access server. |
To set the modem code mapping to the modem code version bundled with Cisco IOS software, enter the following commands.
Step 1 Enter the access server enable mode (the prompt is displayed as 5200#):
Step 2 Enter the copy ios-bundled modem command:
5200# copy ios-bundled modem
Modem Numbers (<slot/<port | group <number | all)? all
Type of service [busyout/reboot] busyout
Copy bundled firmware from IOS image to modems? [yes/no] yes
5200#
*Dec 1 00:12:02.835: %MODEM-5-DL_START: Modem (1/6) started firmware download
*Dec 1 00:12:02.839: %MODEM-5-DL_START: Modem (1/7) started firmware download
*Dec 1 00:12:02.839: %MODEM-5-DL_START: Modem (1/8) started firmware download
*Dec 1 00:12:02.843: %MODEM-5-DL_START: Modem (1/9) started firmware download
*Dec 1 00:12:02.843: %MODEM-5-DL_START: Modem (1/10) started firmware download
*Dec 1 00:12:02.847: %MODEM-5-DL_START: Modem (1/11) started firmware download
*Dec 1 00:12:13.643: %MODEM-5-DL_GOOD: Modem (1/6) completed firmware
download:
*Dec 1 00:12:13.647: %MODEM-5-DL_GOOD: Modem (1/7) completed firmware
download:
*Dec 1 00:12:13.651: %MODEM-5-DL_GOOD: Modem (1/8) completed firmware
download:
*Dec 1 00:12:13.651: %MODEM-5-DL_GOOD: Modem (1/9) completed firmware
download:
*Dec 1 00:12:13.655: %MODEM-5-DL_GOOD: Modem (1/10) completed firmware
download:
*Dec 1 00:12:13.659: %MODEM-5-DL_GOOD: Modem (1/11) completed firmware
download:
The copy ios-bundled modem command does not affect any existing modem code in boot Flash memory in case you later want to revert to it. If you decide to delete the code from boot Flash memory, remember that all files in boot Flash memory will be deleted, therefore save and restore any important files (for example, the Cisco IOS software image).
This section explains how to display options for a command. To display options for a command, enter a ? at the configuration prompt or after entering part of a command followed by a space. The configuration parser displays options available with the command. For example, if you were in global configuration mode, typed the command arap, and wanted to see all the keywords and arguments for that command, you would type arap ?.
Table 5 shows examples of this function.
| Command | Comment |
|---|---|
5200> enable
| Enter enable mode.
Enter the password. You have entered enable mode when the prompt changes to |
5200# config terminal
| Enter global configuration mode (the prompt changes to 5200(config)#).
|
5200(config)# controller t1 ?
| Specify the T1 controller that you want to configure using the controller T1 number global configuration command |
5200(config-controller)# ?
| Display controller configuration commands. |
5200(config-controller)# cas-group ?
| Display the options for the cas-group controller configuration command. This command is used to configures the channel-associated signaling on an T1 controller. |
5200(config-controller)# cas-group 1 ?
| Display the only command (timeslots) available in cas-group 1. |
5200(config-controller)# cas-group 1 timeslots ?
| Display the range for the timeslot option. Specifies a timeslot range of values from 1 to 24. You can specify timeslot ranges (for example, 1-24), individual timeslots separated by commas (for example 1, 3, 5), or a combination of the two (for example 1-3, 8, 17-24). The 16th time slot is not specified in the command line, because it is reserved for transmitting the channel signaling. |
5200(config-controller)# cas-group 1 timeslots 1-24 ?
| Display the two commands (service and type) available for the timeslots. |
| 5200(config-controller)# cas-group 1 timeslots 1-24 type ?
| List supported signaling types. |
5200(config-controller)# cas-group 1 timeslots 1-24 type e&m-fgb ?
| Display the types of channel-associated signaling available for the e&m-fgb type. |
5200(config-controller)# cas-group 1 timeslots 1-24 type e&m-fgb dtmf ?
| Display the options supported for the DTMF tone signaling option. |
If you need further assistance, refer to the sections "Cisco Connection Online" and "CD-ROM/WWW Feedback," later in this document, for more information.
Take the following steps to configure the 6-port MICA modules:
Step 1 Configure the asynchronous group interface.
Step 2 Configure the modems.
Step 3 Configure modem pooling.
Step 4 Configure the controllers.
Step 5 Configure the serial interfaces.
Step 6 Configure R2 signaling.
Use the following table to configure the asynchronous group interface. You can assign the asynchronous interfaces to a group so that you can configure them as a group, instead of individually. Use the commands in Table 6 to configure the asynchronous group interfaces.
 | Time Saver Because there are so many asynchronous interfaces on the access server, configuring them as a group will save you time. |
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200> enable
Password: <password>
5200#
| Enter enable mode.
Enter the password. You have entered enable mode when the prompt changes to |
| 2 | 5200# config term
Enter configuration commands, one per line. End with CNTL/Z.
5200(config)#
| Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
| 3 | 5200(config)# interface group-async 1
5200(config-if)#
| Place all asynchronous interfaces in a single group, so that you configure the same parameters quickly on all interfaces at one time. |
| 4 | 5200(config-if)# ip unnumbered ethernet 0
| To conserve IP addresses, configure the asynchronous interfaces as unnumbered and assign the IP address of the Ethernet interface to them. |
| 5 | 5200(config-if)# encapsulation ppp
| Enable PPP to run on the set of interfaces in the group. |
| 6 | 5200(config-if)# async mode interactive
| Configure interactive mode on the asynchronous interface. |
| 7 | 5200(config-if)# ppp authentication chap pap
| Enable CHAP and PAP authentication on the interface. |
| 8 | 5200(config-if)# peer default ip address pool default
| Support dial-in PC clients. At the global level, define the pool of addresses. |
| 9 | 5200(config-if)# group-range 1 48
Building configuration...
5200(config-if)#
| Define the group range of the interface. The number you use with the group-range command depends on the number of asynchronous interfaces you have on your access server. That is, if your access server has 48 asynchronous interfaces, you can specify group-range 1 48. If 60, specify group-range 1 60. |
| 10 | 5200(config-if)# end
5200#
%SYS-5-CONFIG_I: Configured from console by console
5200#
| Return to enable mode.
This message is normal and does not indicate an error. |
To verify your group interface configuration, use the following command.
5200# show interface async 1
Async1 is up, line protocol is up
modem(slot/port)=1/0, csm_state(0x00000204)=CSM_IC4_CONNECTED, bchan_num=18
modem_status(0x0002): VDEV_STATUS_ACTIVE_CALL.
Hardware is Async Serial
Interface is unnumbered. Using address of FastEthernet0 (15.0.0.60)
MTU 1500 bytes, BW 115 Kbit, DLY 100000 usec, rely 255/255, load 1/255
Encapsulation PPP, loopback not set, keepalive not set
DTR is pulsed for 5 seconds on reset
LCP Open
Open: IPCP
Last input 00:00:00, output 00:00:00, output hang never
Last clearing of "show interface" counters never
Queueing strategy: fifo
Output queue 0/5, 0 drops; input queue 1/5, 0 drops
5 minute input rate 37000 bits/sec, 87 packets/sec
5 minute output rate 0 bits/sec, 0 packets/sec
31063 packets input, 1459806 bytes, 0 no buffer
Received 0 broadcasts, 0 runts, 0 giants, 0 throttles
0 input errors, 0 CRC, 0 frame, 0 overrun, 0 ignored, 0 abort
33 packets output, 1998 bytes, 0 underruns
0 output errors, 0 collisions, 0 interface resets
0 output buffer failures, 0 output buffers swapped out
0 carrier transitions
Check for errors and the local and remote addresses.
5200# show async status maps
Async protocol statistics:
Rcvd: 27887 packets, 1294133 bytes
0 format errors, 0 checksum errors, 0 overrun, 0 no buffer
Sent: 2141 packets, 117673 bytes, 0 dropped
Int Local Remote Qd InPack OutPac Inerr Drops MTU
* 1 15.0.0.60 50.2.8.1 0 542 35 0 0 1500
* 2 15.0.0.60 50.3.8.1 0 544 35 0 0 1500
* 3 15.0.0.60 100.2.1.1 0 542 35 0 0 1500
* 4 15.0.0.60 50.1.1.1 0 544 35 0 0 1500
* 5 15.0.0.60 99.2.7.1 0 542 34 0 0 1500
* 6 15.0.0.60 99.1.4.1 0 543 34 0 0 1500
* 7 15.0.0.60 100.2.3.1 0 451 34 0 0 1500
* 8 15.0.0.60 100.2.5.1 0 451 34 0 0 1500
* 9 15.0.0.60 100.2.6.1 0 452 34 0 0 1500
* 10 15.0.0.60 100.2.8.1 0 452 34 0 0 1500
* 11 15.0.0.60 30.2.6.1 0 449 34 0 0 1500
* 12 15.0.0.60 30.3.5.1 0 450 34 0 0 1500
* 13 15.0.0.60 30.2.4.1 0 450 34 0 0 1500
* 14 15.0.0.60 30.2.8.1 0 450 34 0 0 1500
15 15.0.0.60 None 0 0 0 0 0 1500
* 16 15.0.0.60 50.3.5.1 0 355 27 0 0 1500
5200# debug ppp negot 5200# debug ppp authen
Mar 28 15:40:40.963: ppp: sending CONFREQ, type = 2 (CI_ASYNCMAP), value = 0xA0000
Mar 28 15:40:40.967: ppp: sending CONFREQ, type = 3 (CI_AUTHTYPE), value = 0xC023
Mar 28 15:40:40.967: ppp: sending CONFREQ, type = 5 (CI_MAGICNUMBER), value =
0xC9BAE6A0
Mar 28 15:40:41.091: PPP Async1: state = REQsent fsm_rconfack(0xC021): rcvd id 3
Mar 28 15:40:41.095: ppp: config ACK received, type = 2 (CI_ASYNCMAP), value =
0xA0000
Mar 28 15:40:41.099: ppp: config ACK received, type = 3 (CI_AUTHTYPE), value =
0xC023
.
.
.
Configure the modems to allow users to dial in to your network by using the commands in Table 7.
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200> enable
Password: <password>
5200#
| Enter enable mode.
Enter the password. You have entered enable mode when the prompt changes to |
| 2 | 5200# config term
Enter configuration commands, one per line. End with CNTL/Z.
5200(config)#
| Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
| 3 | 5200(config)# modem country mica country name
| Specify the country to set the modem parameters (including country code and encoding) for MICA modems. The default is usa if the access server is configured with T1 interfaces and e1-default if the access server has E1 interfaces. For list of country codes, see "Country Code Tables" later in this section. |
| 4 | 5200(config-if)# line 1 48
5200(config-line)#
| Enter the number of modem lines to configure. If you have 48 modems, enter line 1 48. If 60, enter line 1 60. |
| 5 | 5200(config-line)# transport input all
| Allow all protocols to be used when connecting to the line. |
| 6 | 5200(config-line)# autoselect ppp
| Enable remote IP users running a PPP application to dial in, bypass the EXEC facility, and connect directly to the network. |
| 7 | 5200(config-line)# modem inout
| Enable incoming and outgoing calls. |
| 8 | 5200(config-line)# end
5200#
%SYS-5-CONFIG_I: Configured from console by console
5200#
| Return to enable mode. This message is normal and does not indicate an error. |
Table 8 lists the current MICA modem codes.
.
| Country | Code | Country | Code |
|---|---|---|---|
| Australia | australia
| Netherlands | netherlands
|
| Austria | austria
| New Zealand | new-zealand
|
| Belgium | belgium
| Norway | norway
|
| China | china
| Poland | poland
|
| Cyprus | cyprus
| Portugal | portugal
|
| Czech/Slovak Republic | czech-republic
| Russia | russia
|
| Denmark | denmark
| Singapore | singapore
|
| Default E1 (A Law) | e1-default
| South Africa | south-africa
|
| Finland | finland
| Spain | spain
|
| France | france
| Sweden | sweden
|
| Germany | germany
| Switzerland | switzerland
|
| Hong Kong | hong-kong
| Default T1 (u Law) | t1-default
|
| India | india
| Taiwan | taiwan
|
| Ireland | ireland
| Thailand | thailand
|
| Israel | israel
| Turkey | turkey
|
| Italy | italy
| United Kingdom | united-kingdom
|
| Japan | japan
| USA | usa
|
| Malaysia | malaysia
| |
To reset to default settings for country codes, enter the following commands in global configuration mode:
Use modem pooling to define, select, and use separate pools of modems within a single access server to enable different dial-in services for different customers. The primary application is to allocate specific modems based on called party numbers and a predetermined number of modem ports based on Dialed Number Information Service (DNIS).
If you do not configure any modem pools, all the modems are placed into a single pool. There is no restriction on the number of modem pools that you can configure. A pool can contain a minimum of one modem and a maximum equal to all the modems in the system.
This section briefly shows how to set up a minimum configuration. For detailed information on using this feature, refer to the command reference documents shipped with your access server.
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200> enable
| Enter enable mode.
Enter the password. You have entered enable mode when the prompt changes to |
| 2 | 5200# configure terminal
| Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
| 3 | 5200(config)# controller [t1 | e1] [0 | 1 ]
| Enter controller configuration mode to configure your controller port. The controller ports are labeled 0 through 1 on the T1/PRI and E1/PRI cards. |
| 4 | 5200(config-controller)# cas-group 1 timeslots [1-24 | 1-31] <type>
| Configure all channels for E&M, FXS, and SAS analog signaling. Enter 1-24 for T1. If E1, enter 1-31.
Signaling types include e&m-fgb, e&m-fgd, e&m-immediate-start, fxs-ground-start, fxs-loop-start, sas-ground-start, and sas-loop-start. Note: To set up e&m-fgb to support modem pooling, see step 8 in this table. You must use the same type of signaling that your central office uses. For E1 using the Anadigicom converter, use cas e&m-fgb signaling. |
| 5 | 5200(config-controller)# cas-group 1 timeslots 1-24 e&m-fgb mf dnis
[or] | Configure e&m-fgb signaling to support modem pooling and the digital number identification service (DNIS) over channelized T1 lines.
You must specify the tone type: mf or dtmf. By configuring DNIS as part of the cas-group command, the system collects DNIS digits for incoming calls, which are redirected to specific modem pools. You must be running MICA modems in the system and have at least 10% of your total modems in the default modem pool. Free modems are needed in the default pool to detect the incoming called number or DNIS before handing the call off to the appropriate modem pool. Therefore, a second modem is needed to handle each incoming call. Note: Make sure your switch provides inband address information for incoming analog calls before you enable this feature. |
| 6 | 5200(config-controller)# controller t1 1
[or] | Repeat Steps 3 to 5 to configure the second controller. In this example, note that the controller number is 1, instead of 0. And the cas-group is 2, instead of 1. |
| 7 | 5200(config)# modem-pool name
| Enter the name of the modem to configure for pooling. |
| 8 | 5200(config-modem-pool)# pool-range number-number
| Define the range of the modems in the pool. A dash is required between the two numbers. |
| 9 | 5200(config-modem-pool)# called number phone # max-conn number
| Specify the DNIS to be used for this modem pool. The DNIS string can have an integer x to indicate a don't care digit for that position.
The max-conn option specifies the maximum number of connections allowed for this DNIS. If you do not specify a max-conn value, the default (total number of modems in the pool) is used. The max-conn values can range from one to the total number of modems in the pool. |
| 10 | 5200(config-modem-pool)# Ctrl-Z5200#
| Return to enable mode. |
To verify your modem pooling configuration:
5200# show modem-pool modem-pool: System-def-Mpool modems in pool: 60 active conn: 0 0 no free modems in pool modem-pool: test modems in pool: 1 active conn: 0 0 no free modems in pool called_party_number: 1000 0 max-conn exceeded, 0 no free modems in pool
If you are having trouble:
Use Table 10 to configure the controllers.
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200(config)# isdn switch-type primary-5ess
| Enter your telco's switch type. The following switch types are available: primary-4ess, primary-5ess, primary-dms100, primary-net5, primary-ntt, and primary-ts014. |
| 2 | 5200(config)# controller t1 0[or]controller e1 0
| Enter controller configuration mode to configure your controller port. On the Cisco AS5200, the controller ports are labeled 0 and 1 on the dual T1/PRI and dual E1/PRI cards. |
| 3 | 5200(config-controller)# framing esf
| Enter your telco's framing type. The following framing types are available: esf, sf, crc4, and nocrc4. |
| 4 | 5200(config-controller)# linecode b8zs
| Enter your telco's line code type. The following line code types are available: ami, b8zs, and hdb3. |
| 5 | 5200(config-controller)# clock source line primary
| Enter the clock source for the line. Configure one line as the primary or most stable clock source line. Configure the other line as the secondary clock source line. |
| 6 | 5200(config-controller)# pri-group timeslots 1-24[or]pri-group timeslots 1-31
| Configure all channels for ISDN. Enter pri-group timeslots 1-24 for T1. If E1, enter pri-group timeslots 1-31. |
| 7 | 5200(config-controller)# controller t1 1[or]controller e1 0
| Repeat steps 2 to 6 to configure subsequent controllers. Note that the controller number is 1, 2, or 3, instead of 0. And the clock source is secondary, instead of primary. |
| 8 | 5200(config-controller)# Ctrl-Z5200#
| Return to enable mode. |
Use Table 11 to configure the serial interfaces.
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200(config-controller)# interface serial0:23
| Enter serial interface configuration mode. After you have configured the controller, a corresponding D-channel serial interface is created instantly. Serial interface 0:23 is the D-channel for controller 0. You must configure each serial interface to receive incoming and send outgoing modem signaling. |
| 2 | 5200(config-if)# isdn incoming-voice modem
| Configure all incoming voice calls to go to the modems. |
| 3 | 5200(config-if)# end
| Return to enable mode. When this message appears, press Return to get the |
| 4 | 5200# copy running-config startup-configBuilding configuration... <Return>5200#
| Save the configuration changes to NVRAM. |
R2 signaling is an international signaling standard that is common to channelized E1 networks. You can configure a channelized E1 interface to support different types of R2 signaling, which is used in older analog telephone networks. Note that this feature is available for MICA modems. UseTable 12 to configure R2 signaling.
| Step | Command | Purpose |
|---|---|---|
| 1 | 5200> enable
Password: <password>
5200#
| Enter enable mode.
Enter the password. You have entered enable mode when the prompt changes to |
| 2 | 5200# configure terminal
Enter configuration commands, one per line.
5200(config)#
| Enter global configuration mode. You have entered global configuration mode when the prompt changes to 5200(config)#.
|
| 3 | 5200(config)# controller e1 [0 | 1 ]
5200(config-controller)#
| Enter controller configuration mode to configure your E1 controller port. The E1 controller ports are labeled 0 and 1 on the E1/PRI cards. |
| 4 | 5200(config-controller)# framing crc4
[or] 5200(config-controller)# framing no-crc4
| Configure framing to E1 with CRC1. Configure framing to E1 only. |
| 5 | 5200(config-controller)# linecode ami
[or] 5200 (config-controller)# linecode hdb3
| Configure line code to AMI2 encoding. Configure line code to HDB33 encoding. |
| 6 | 5200(config-controller)# clock source internal[or] clock source line primary[or] clock source line secondary
| Configure the clock source to the internal clock. Configure the clock source to the primary recovered clock. Configure the clock source to the secondary recovered clock. |
| 7 | 5200(config-controller)# cas-group 1 timeslots 1-30 type r2-analog r2-compelled ani
| Configure the timeslots that belong to each E1 circuit for R2 signaling. Sets R2 signaling to R2 ITU Q411, the tone signal to R2 Compelled Register Signaling, and the ANI addr info provisioned option.
R2 line signaling options include: r2-analog, r2-digital, and r2-pulse. Tone signaling options include dtmf (default), r2-compelled, r2-non-compelled, and r2-semi-compelled. You can also set ani (ANI addr info provisioned) for any of the above options. |
| 8 | 5200(config-controller-cas)# cas-custom 1
| Enter the channel number to customize. |
| 9 | 5200(config-ctrl-cas)# country country name use-default
| Use defaults for the specified country. Note: To view the parameters for the country (if the country defaults are the same as ITU defaults), enter write term.
The default setting for all countries is ITU. See "Country Codes for R2 Signaling" later in this section for a list of supported countries. |
| 10 | 5200(config-ctrl-cas)# answer-signal group-b 6
[or] 5200(config-ctrl-cas)# default answer-signal group-b 6
[or] 5200(config-ctrl-cas)# no answer-signal group-b 6
5200(config-ctrl-cas)# exit
| Set the cas custom command answer-signal to group-b to 6.
Cas custom commands include: caller-digits, category, country, unused-abcd, invert-abcd, metering, ka, kd, dnis-digits, answer-signal, and nc-congestion.
Reset answer-signal group-b 6 to the default value. Note: The parameters you do not set are automatically set to the ITU default by the Cisco AS5200. |
| 11 | 5200(config-if)# Ctrl-Z
5200#
%SYS-5-CONFIG_I: Configured from console by console
| Return to enable mode. This message is normal and does not indicate an error. |
Table 13 lists the country codes supported for R2 signaling.
.
| Country | Code |
|---|---|
| Argentina | argentina |
| Australia | australia |
| Brazil | brazil |
| China | china |
| Columbia | columbia |
| Costa Rica | costarica |
| East Europe | easteurope |
| Ecuador ITU | ecuador-itu |
| Ecuador LME | ecuador-lme |
| Greece | greece |
| Guatemala | guatemala |
| Hong Kong (China variant) | hongkong-china |
| Indonesia | indonesia |
| Israel | israel |
| ITU (default) | itu |
| Korea | korea |
| Malaysia | malaysia |
| New Zealand | newzealand |
| Paraguay | paraguay |
| Peru | peru |
| Philippines | philippines |
| Saudi Arabia | saudiarabia |
| Singapore | singapore |
| South Africa Panafte | southafrica-panaftel l |
| Telmex | telmex |
| Telnor | telnor |
| Thailand | thailand |
| Uruguay | uruguay |
| Venezuela | venezuela |
| Vietnam | vietnam |
To verify your R2 signaling configuration:
5200# show controller e1 0
E1 0 is up.
Applique type is Channelized E1 - balanced
No alarms detected.
Version info of Slot 0: HW: 2, Firmware: 4, PLD Rev: 2
Manufacture Cookie is not programmed.
Framing is CRC4, Line Code is HDB3, Clock Source is Line Primary.
Data in current interval (785 seconds elapsed):
0 Line Code Violations, 0 Path Code Violations
0 Slip Secs, 0 Fr Loss Secs, 0 Line Err Secs, 0 Degraded Mins
0 Errored Secs, 0 Bursty Err Secs, 0 Severely Err Secs, 0 Unavail Secs
Total Data (last 13 15 minute intervals):
0 Line Code Violations, 0 Path Code Violations,
0 Slip Secs, 12 Fr Loss Secs, 0 Line Err Secs, 0 Degraded Mins,
0 Errored Secs, 0 Bursty Err Secs, 0 Severely Err Secs, 12 Unavail Secs
5200# show modem csm 1/0 MODEM_INFO: slot 1, port 0, unit 0, tone r2-compelled, modem_mask=0x0000, modem_port_offset=0 tty_hwidb=0x60E63E4C, modem_tty=0x60C16F04, oobp_info=0x00000000, modem_pool=0x60BC60CC modem_status(0x0002): VDEV_STATUS_ACTIVE_CALL. csm_state(0x0205)=CSM_IC5_CONNECTED, csm_event_proc=0x600CFF70, current call thru CAS line invalid_event_count=0, wdt_timeout_count=0 wdt_timestamp_started is not activated wait_for_dialing:False, wait_for_bchan:False pri_chnl=TDM_PRI_STREAM(s0, u3, c7), modem_chnl=TDM_MODEM_STREAM(s1, c0) dchan_idb_start_index=0, dchan_idb_index=0, call_id=0x0239, bchan_num=6 csm_event=CSM_EVENT_DSX0_CONNECTED, cause=0x0000 ring_no_answer=0, ic_failure=0, ic_complete=3 dial_failure=0, oc_failure=0, oc_complete=0 oc_busy=0, oc_no_dial_tone=0, oc_dial_timeout=0 remote_link_disc=2, stat_busyout=2, stat_modem_reset=0 oobp_failure=0 call_duration_started=00:04:56, call_duration_ended=00:00:00, total_call_duration=00:01:43 The calling party phone number = The called party phone number = 9993003 total_free_rbs_timeslot = 0, total_busy_rbs_timeslot = 0, total_dynamic_busy_rbs_timeslot = 0, total_static_busy_rbs_timeslot = 0, min_free_modem_threshold = 0
If you are having trouble, enable the modem management Call Switching Module (CSM) debug mode using the following command.
5200# debug modem csm 1/0 *May 15 04:05:46.675: VDEV_ALLOCATE: slot 2 and port 39 is allocated. *May 15 04:05:46.675: CSM_RX_CAS_EVENT_FROM_NEAT:(04BF): EVENT_CALL_DIAL_IN at slot 2 and port 39 *May 15 04:05:46.675: CSM_PROC_IDLE: CSM_EVENT_DSX0_CALL at slot 2, port 39 *May 15 04:05:46.675: Mica Modem(2/39): Configure(0x0) *May 15 04:05:46.675: Mica Modem(2/39): Configure(0x3) *May 15 04:05:46.675: Mica Modem(2/39): Configure(0x6) *May 15 04:05:46.675: Mica Modem(2/39): Call Setup *May 15 04:05:46.891: Mica Modem(2/39): State Transition to Call Setup *May 15 04:05:46.891: Mica Modem(2/39): Went offhook *May 15 04:05:46.891: CSM_PROC_IC1_RING: CSM_EVENT_MODEM_OFFHOOK at slot 2, port 39 . . .
When the E1 controller comes up, you will see the following messages:
%CONTROLLER-3-UPDOWN: Controller E1 0, changed state to up It also shows these messages for individual timeslots: %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 1 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 2 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 3 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 4 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 5 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 6 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 7 is up %DSX0-5-RBSLINEUP: RBS of controller 1 timeslot 8 is up . . .
For details on configuring new features available after the release of this document, see the following URL:
http://www.cisco.com/univercd/cc/td/doc/product/access/acs_serv/as5200/52spares/index.htm
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