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Nortel Circuit Card Installation Manual

Nortel Circuit Card Installation Manual

Nortel networks circuit card description and installation
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Table of Contents

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Title page
Nortel Communication Server 1000
Nortel Communication Server 1000 Release 4.5
Circuit Card
Description and Installation
Document Number: 553-3001-211
Document Release: Standard 3.00
Date: August 2005
Year Publish FCC TM
Copyright © Nortel Networks Limited 2005
All Rights Reserved
Produced in Canada
Information is subject to change without notice. Nortel Networks reserves the right to make changes in design
or components as progress in engineering and manufacturing may warrant.
Nortel, Nortel (Logo), the Globemark, This is the Way, This is Nortel (Design mark), SL-1, Meridian 1, and
Succession are trademarks of Nortel Networks.

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  • Page 1 All Rights Reserved Produced in Canada Information is subject to change without notice. Nortel Networks reserves the right to make changes in design or components as progress in engineering and manufacturing may warrant. Nortel, Nortel (Logo), the Globemark, This is the Way, This is Nortel (Design mark), SL-1, Meridian 1, and...

  • Page 3: Revision History

    Option 11C and 11C mini Technical Reference Guide (553-3011-100) (Content from Option 11C and 11C mini Technical Reference Guide (553-3011-100) also appears in Telephones and Consoles: Description, Installation, and Operation (553-3001-367).) • Circuit Card Reference (553-3023-211) Circuit Card Description and Installation Page 3 of 906...
  • Page 4 Page 4 of 906 Revision history 553-3001-211 Standard 3.00 August 2005...

  • Page 5: Table Of Contents

    Circuit card installation ........
  • Page 6 Circuit card grid ........
  • Page 7 Functional description ........Circuit Card...
  • Page 8 Front panel connector pin assignments ......NT5D11 and NT5D14 Lineside T1 Interface cards ......193 Contents .
  • Page 9 Functional description ........Circuit Card...
  • Page 10 NT6D80 MSDL card ......389 Contents ..........Introduction ..
  • Page 11 Connector pin assignments ........Circuit Card Description and Installation...
  • Page 12 Configuration ..........Applications .
  • Page 13 Functional description ........Circuit Card...
  • Page 14 NTAK79 2.0 Mb PRI card ....745 Contents ..........Introduction ..
  • Page 15 Functional description ........Circuit Card...
  • Page 16 Software description ........Hardware description .
  • Page 17 Description of procedure ........Circuit Card...
  • Page 18 Page 18 of 906 Contents 553-3001-211 Standard 3.00 August 2005...

  • Page 19: List Of Procedures

    Testing a trunk card using a system terminal ..96 Procedure 10 Testing tone and digit switch cards ....97 Circuit Card Description and Installation...

  • Page 20: Connecting Two Or More Lineside T1 Cards To The

    Page 20 of 906 LIst of procedures Procedure 11 Connecting to the MDF ......215 Procedure 12 Connecting two or more lineside T1 cards to the MMI terminal .

  • Page 21: About This Document

    Note 4: Synchronous operation is permitted on all MSDL ports. Port 0 can be configured as an asynchronous Serial Data Interface (SDI). For detailed procedures for removing a specific circuit card and installing a replacement, see Communication Server 1000M and Meridian 1: Large System Maintenance (553-3021-500).

  • Page 22: Applicable Systems

    information about system messages, see the Software Input/Output: System Messages (553-3001-411). Note on legacy products and releases This NTP contains information about systems, components, and features that are compatible with Nortel Communication Server 1000 Release 4.5 software. For more information on legacy products and releases, click the Technical Documentation link under Support &...

  • Page 23: Intended Audience

    This document is intended for individuals responsible for maintaining Internet Enabled systems. Maps to this CS 1000M system CS 1000M Chassis CS 1000M Cabinet CS 1000M Half Group CS 1000M Single Group CS 1000M Multi Group CS 1000M Multi Group Circuit Card Description and Installation...

  • Page 24: Conventions

    Conventions Terminology In this document, the following systems are referred to generically as “system”: • Communication Server 1000S (CS 1000S) • Communication Server 1000M (CS 1000M) • Communication Server 1000E (CS 1000E) • Meridian 1 The following systems are referred to generically as “Small System”: •...

  • Page 25: Related Information

    Maintenance (553-3021-500) • Communication Server 1000S: Installation and Configuration (553-3031-210) • Meridian Link description (553-3201-110) Online To access Nortel documentation online, click the Technical Documentation link under Support & Training on the Nortel home page: www.nortel.com Circuit Card Description and Installation...
  • Page 26 Page 26 of 906 About this document CD-ROM To obtain Nortel documentation on CD-ROM, contact your Nortel customer representative. 553-3001-211 Standard 3.00 August 2005...

  • Page 27: Overview

    Maintenance ......... . . Page 27 of 906 Circuit Card Description and Installation...

  • Page 28: Line Cards

    Line cards The following line cards are designed using the Intelligent Peripheral Equipment (IPE) architecture and are recommended for use in all new system designs. Each of the line cards was designed to fit a specific system need. Table 2 lists the line card characteristics.
  • Page 29 CS 1000S, CS 1000M, and Meridian 1 switch and modular digital telephones. Each of the 16 channels support voice-only or simultaneous voice and data service over a single twisted pair of standard telephone wire. Circuit Card Description and Installation...

  • Page 30: Nt8D09 Analog Message Waiting Line Card

    NT8D09 analog message waiting line card The NT8D09 Analog Message Waiting Line card is an intelligent 16-channel analog line card designed to be used with 2-wire terminal equipment such as analog (500/2500-type) telephones, modems, and key systems. This card can also provide a high-voltage, low-current signal on the Tip and Ring pair of each line to light the message waiting lamp on phones equipped with that feature.

  • Page 31: Operation

    These differences are summarized in Table 3 on Host interface bus Cards based on the IPE bus have a built-in microcontroller. The IPE microcontroller is used to do the following: • perform local diagnostics (self-test) page Circuit Card Description and Installation...
  • Page 32 • configure the card according to instructions issued by the system • report back to the system information such as card identification (type, vintage, and serial number), firmware version, and programmed configuration status) Table 3 IPE module architecture Parameter Card Dimensions Network Interface Communication Interface Microcontroller...
  • Page 33 • reporting of firmware version • downloading line interface unit parameters • reporting of line interface unit configuration • enabling/disabling of the DS-30X network loop bus • reporting of card status or T1 link status Circuit Card Description and Installation...
  • Page 34 Figure 2 Typical IPE analog line card architecture Input/output interface control Front panel Micro- controller Card slot address Back- plane Card LAN interface Async card LAN link Tx PCM Rx PCM Con- troller DS-30X card 5.12 MHz interface clock 1 kHz frame sync Power supplies 553-3001-211...
  • Page 35 24 successive DS-30X frames. Conversely, when the switch sends signaling data to the line card, it is sent as a 24-bit word divided among 24 successive DS-30X frames. Circuit Card Description and Installation...
  • Page 36 Figure 3 DS-30X loop data format DS-30X loop data words Frame sync 5.12 MHz 2.56 MHz Frame sync DS-30X loop W31DV W0B7 data bits SB = SIGNALING BIT DS-30Y network loops extend between controller cards and superloop network cards in the Common Equipment (CE). They function in a manner similar to DS-30X loops.

  • Page 37: Analog Line Interface Units

    4-wire transmission path to a 2-wire transmission path, and driven onto the analog telephone line. Figure 4 on page 38 shows a typical example of the logic that performs these functions. Each part of the analog line interface unit is discussed in the following section. Circuit Card Description and Installation...
  • Page 38 Figure 4 Typical analog line interface unit block diagram DS-30X or SL-1 network loop Tx PCM Rx PCM CODEC Off-hook Ringing Message Message waiting waiting 553-3001-211 Standard 3.00 Balancing Network Variable gain filters 2-wire 4-wire conversion August 2005 Impedance matching transformer Line interface...
  • Page 39 The line interface unit has a relay that applies the ringing voltage onto the phone line. See Figure 4 on page 38. The RSYNC signal from the 20 Hz Circuit Card Description and Installation...

  • Page 40: Digital Line Interface Units

    Page 40 of 906 Overview (nominal) ringing voltage power supply is used to prevent switching of the relay during the current peak. This eliminates switching glitches and extends the life of the switching relay. The off-hook detection circuit monitors the current draw on the phone line. When the current draw exceeds a preset value, the circuit generates an off-hook signal that is transmitted back to the system controller.
  • Page 41 15.5 dB at 256 KHz and a maximum DC loop resistance of 210 ohms. Signaling The digital line interface units also contain signaling and control circuits that establish, monitor, and take down call connections. These circuits work with 4-wire 2-wire conversion Circuit Card Description and Installation TCM loop interface protection Ring 553-6154...

  • Page 42: Analog Line Call Operation

    Page 42 of 906 Overview the system controller to operate the digital line interface circuits during calls. The circuits receive outgoing call signaling messages from the controller and return incoming call status information to the controller over the DS-30X network loop. Analog line call operation The applications, features, and signalling arrangements for each line interface unit are configured in software and implemented on the card through software...
  • Page 43 CPU removes timeslot assignments. Person High- at near-end station recognizes end of Ground on tip/ resistance call and hangs up. battery on ring loop Line card unit is ready for the next call. Remarks Circuit Card Description and Installation 553-AAA1113...
  • Page 44 Figure 7 Call connection sequence – near-end originating call Far-end System station through PSTN State Ground on tip/ battery on ring Line card unit idle Call request Dial tone Outpulsing Dial tone Ringback (or busy) (2-way voice connection) Near-end station on hook Ground on tip/ battery on ring...
  • Page 45 Figure 8 on page 47. When the far-end answers, these polarities are reversed. The reversed battery connection is maintained as long as the call is established. When the far-end disconnects, the system sends a message that Circuit Card Description and Installation...

  • Page 46: Digital Line Call Operation

    causes the line card to revert the battery and ground signals to the normal state to signal that the call is complete. Hook Flash disconnect supervision Hook flash disconnect supervision is only used for incoming calls that terminate at the terminal device (typically a Key system). See Figure 9 on page 48.
  • Page 47 High- assignments, and restores normal ground/battery polarity resistance to the near-end station. loop Near-end station detects battery reversal and goes on hook. Line card unit is then ready for the next call. Remarks Circuit Card Description and Installation 553-AAA1115...
  • Page 48 Figure 9 Hook flash disconnect supervision sequence System Far-end station State Ground on tip/ battery on ring Line card unit idle Call request Ringing Alert Near-end station off hook Ground on tip/ battery on ring (2-way voice connection) Tip open/ battery on ring Far-end station on hook...
  • Page 49 1 during ring off). When an incoming call is answered by the terminal equipment going off-hook, the terminal equipment simulates tripping the ringing and shutting off ringing, causing the lineside T1 card’s receive A bit to be changed from 0 to 1. Circuit Card Description and Installation...
  • Page 50 Outgoing calls During outgoing calls from the terminal equipment, a channel is seized when the station goes off-hook. This simulates a low-resistance loop across the tip and ring leads toward the lineside T1 card, causing the lineside T1’s receive A bit to be changed from 0 to 1. This bit change prepares the lineside T1 to receive digits.
  • Page 51 • Ringing is applied from lineside T1 card • Terminal equipment goes off-hook • Lineside T1 card stops ringing Outgoing Calls: • Idle • Terminal equipment goes off-hook Call Disconnect from far end: Overview Page 51 of 906 Transmit Circuit Card Description and Installation Receive...
  • Page 52 Table 4 Loop Start Call Processing A/B Bit Settings (Part 2 of 2) State • Steady state (call in progress) • Far end disconnects by dropping loop current and lineside T1 card changes Transmit A bit to 1 momentarily. • Terminal equipment responds causing Receive A bit to change to 0.
  • Page 53 For the lineside T1 card to support distant end disconnect in ground start mode, the following configuration parameters must exist: • The Supervised Analog Line (SAL) feature must be configured for each lineside T1 port. Circuit Card Description and Installation...
  • Page 54 Note: By default, the SAL feature opens the tip side for 750 m/s in loop start operation. This is configurable in 10 m/s increments. • In order to detect distant end disconnect for calls originating on the lineside T1 card, the “battery reversal” feature within the SAL software must be enabled.
  • Page 55 T1 card has operational limitations compared to typical ground start interface equipment relating to start of dialing, distant end disconnect and glare potential. Overview Page 55 of 906 Transmit Circuit Card Description and Installation Receive...
  • Page 56 Page 56 of 906 Overview Distant end disconnect restrictions If the SAL feature is not available in the CS 1000 Release 4.5 software, the lineside T1 card is not capable of indicating to the Customer Premise Equipment (CPE) when a call has been terminated by the distant end. In this case, the lineside T1 card will continue to provide a grounded tip indication (A=0) to the CPE until it detects an open loop indication (A=0) from the CPE, at which time it will provide an open tip indication (A=1).

  • Page 57: Voice Frequency Audio Level

    Absolute protection from lightning strikes and other stray voltages cannot be guaranteed, but the use of line protection devices significantly reduces the possibility of damage. Circuit Card Description and Installation...

  • Page 58: Line Protection Grounding

    Nortel has tested line protection devices from three manufacturers. See Table 6. Each manufacturer offers devices for protection of digital as well as analog telephone lines. Table 6 Line protection device ordering information Device order code Analog Line UP2S-235 ESP-200 These devices are compatible with 66 type M1-50 split blocks or equivalent.

  • Page 59: Trunk Cards

    NT1R20 Off-Premise Station Line card • NT8D02 Digital Line card • NT8D03 Analog Line card Trunk cards The following trunk cards are designed using the IPE architecture, and are recommended for use in all new system designs. Circuit Card Description and Installation...
  • Page 60 Each of the trunk cards was designed to fit a specific system need. Use Table 7 to help select the trunk card that will best meet system needs. Table 7 Trunk card characteristics Part Number Description NT8D14 Universal Trunk card NT8D15 E&M Trunk card NTCK16...

  • Page 61: Installation

    Configure the jumpers and switches on the trunk card (if any) to meet the system needs. Install the trunk card into the selected slot. page 62 shows where an IPE trunk card can be installed in an Circuit Card Description and Installation...
  • Page 62 Figure 10 IPE trunk cards installed in an NT8D37 IPE module PE Module PE Pwr Sup Install the cable that connects the backplane connector on the IPE module to the module I/O panel. Connect a 25-pair cable from the module I/O panel connector to the Main Distribution Frame (MDF).

  • Page 63: Operation

    31.75 x 25.4 x 2.2 cm. (12.5 x10.0 x 0.875 in.) DS-30X Loops card LAN Link 8031 NT8D01 Controller card NT8D04 Superloop Network card NT8D37 IPE module Circuit Card page 64 shows a Description and Installation...
  • Page 64 Figure 11 Typical IPE trunk card architecture Input/output interface control Front panel Micro- controller Card slot address Back- plane Card LAN interface Async card LAN link Tx PCM Rx PCM Con- troller DS-30X card 5.12 MHz interface clock 1 kHz frame sync Power Supplies 553-3001-211...
  • Page 65 ID (card type and hardware vintage) • reporting of firmware version • downloading trunk interface unit configuration • reporting of trunk interface unit configuration • enabling/disabling of the DS-30X network loop bus • reporting of card status Circuit Card Description and Installation...
  • Page 66 Page 66 of 906 Overview DS-30X loops The interfaces provided by the line and trunk cards connect to conventional 2-wire (tip and ring) line facilities. IPE analog line and trunk cards convert the incoming analog voice and signaling information to digital form, and route it to the Common Equipment (CE) CPU over DS-30X network loops.
  • Page 67 IPE line or trunk cards and the CE CPU by way of the NT8D01 Controller Card. Maintenance data is transported via the card LAN link. This W0B6 W0B5 W0B4 W0B3 W0B2 W0B1 W0B0 W0SB W0DV W1B7 DV = DATA VALID page Circuit Card 553-6151 Description and Installation...
  • Page 68 Figure 13 Network connections to IPE modules Common Equipment (Network) DS-30Y NT8D04 Superloop Network Card Large System Network loop QPC414 Network Card 553-3001-211 Standard 3.00 NT8D37 IPE Module loop NT8D01 DS-30X Controller Card NT8D13 PE Module QPC659 Dual-Loop Peripheral Buffer Card August 2005 NT8D14 Universal...

  • Page 69: Trunk Interface Unit

    0s. Trunk interface unit Once the 8-bit digital voice signal has been received by the trunk card, it must be converted back into an analog signal, filtered, and driven onto the analog Circuit Card Description and Installation...
  • Page 70 trunk line through an impedance matching and balance network. The trunk interface also includes the logic necessary to place outgoing call signaling onto the trunk, or the logic to connect to special services such as recorded announcement and paging equipment. Figure 14 shows a typical example of the logic that performs these functions.
  • Page 71 Signaling circuits are relays that place outgoing call signaling onto the trunk. Signal detection circuits monitor the incoming call signaling. Control signals Control signals and logic are provided when the trunk is going to be connected to special services such as recorded announcement and paging equipment. Circuit Card Description and Installation...

  • Page 72: Serial Data Interface (Sdi) Cards

    Serial Data Interface (SDI) cards The NT8D41BA QSDI paddle board provides four bidirectional asynchronous serial ports for the system processor, and the QPC841 QSDI card also provides four. Any device that conforms to the RS-232-C serial communication standard can be connected to these serial ports. The QPC513 ESDI card provides two fully synchronous serial ports for the system processor.

  • Page 73: Uses

    — RS-232-C interface — 8–bit ASCII data with parity and stop bit — Asynchronous, start-stop operation — Data rates of 150, 300, 600, 1200, 2400, 4800, and 9600 baud Circuit Card Description and Installation...

  • Page 74: Specifications

    — Data terminal equipment (DTE) emulation mode — Data communication equipment (DCE) emulation mode • enable/disable switch and LED • input/output (I/O) device address selectable by on-board switches. The QPC513 ESDI card provides these features: • fully synchronous serial data interface ports, each supporting —...
  • Page 75 0° to 50°C; –55° to +70°C; (32° to 122°F) (–58° to 158°F) 5% to 95% 0% to 95% 3500m; (11000 ft) (50000 ft) Circuit Card Description and Installation Page 75 of 906 QPC841 1.5 Amp 100 mA 100 mA Storage 15000m;...

  • Page 76: Installation

    Electromagnetic interference The CS 1000S, CS 1000M, and Meridian 1 systems meet the requirements of FCC Part 15 and CSA C108.8 electromagnetic interference (EMI) standards as a class “A” computing device. To accomplish this, the SDI cables must exit the module through EMI filters on the I/O panel. Reliability The Mean Time Between Failure (MTBF) for all SDI cards is 55 years at 40°C and 29 years at 55°C.
  • Page 77 LD 48 Link Diagnostic – For checking Automatic Call Distribution (ACD) and Meridian Link ports. Instructions for running the various maintenance programs are found in Software Input/Output: Administration (553-3001-311). System messages are interpreted in Software Input/Output: System Messages (553-3001-411). Circuit Card Description and Installation...
  • Page 78 Page 78 of 906 Overview 553-3001-211 Standard 3.00 August 2005...

  • Page 79: Circuit Card Installation

    Circuit card installation ........

  • Page 80: Circuit Card Installation

    Circuit card installation Table 12 Large System card slots (Part 1 of 4) Component A0786611 Call Processor Pentium II A0810486 Call Processor Pentium II NT1P61 Fiber Superloop Network card NT1P62 Fiber Peripheral Controller card NT1R52 Remote Carrier Interface NT1R20 Off-Premise Station...
  • Page 81 IPE: any slot but “Contr” IPE: any slot but “Contr” IPE: any slot but “Contr” IPE: any slot but “Contr” IPE: any slot but “Contr” 61C Core/Net: 12 61C Core/Net: 15 and 16 IPE: any slot but “Contr” Circuit Card Description and Installation...
  • Page 82 Table 12 Large System card slots (Part 3 of 4) Component NT6D71 U Interface Line card NT6D72 Basic Rate Signal Concentrator card NT6D73 Multi-purpose ISDN Signaling Processor card NT6D80 MSDL NT7D16 Data Access card NT7R51 Local Carrier Interface NT8D01 Controller card NT8D02 Digital Line card NT8D04 Superloop Network card NT8D09 Analog Message Waiting Line card...
  • Page 83 Core/Net: 0–7 Net: 5–11, 13–14 61C Core/Net: slot 14. For 81C use NT8D35 Net slot 13; in QSD39 shelf, use Net slot 2; in QSD40 shelf, use slot 13. IPE: any slot but “Contr” Core/Net: 0-7 Circuit Card Description and Installation...

  • Page 84: Precautions

    Circuit cards may contain a lithium battery. There is a danger of explosion if the battery is incorrectly replaced. Do not replace components on any circuit card; you must replace the entire card. Dispose of circuit cards according to the manufacturer’s instructions.
  • Page 85 Wait five full minutes between turning off the circuit breaker and removing the power supply from the module. • Software disable cards, if applicable, before they are removed or inserted. Module rear Bare metal strip Module Bare metal strip front Circuit Card Description and Installation 553-5000...

  • Page 86: Installation

    This procedure provides detailed installation instructions for circuit cards. Procedure 1 Installation Open the protective carton and remove the circuit card from the antistatic bag. Return the antistatic bag to the carton and store it for future use. Inspect the card components, faceplate, locking devices, and connectors for damage.
  • Page 87 Figure 16 Installing the circuit card in the card cage Card locking device Latch post Insert the card into the card aligning guides in the card cage. Gently push the card into the slot until you feel resistance. The tip of the locking device must be behind the edge of the card cage (see Figure 16).
  • Page 88 If there is an enable/disable switch, set it to Enb. Note: Do not enable the switch on an NT8D04 Superloop Network card or QPC414 Network card until network loop cables are installed. 10 If you are adding a voice, conference, or tone and digit loop, press the manual initialize (Man Int) button on the NT5D03 or the NT5D10 Call Processor if the card is associated with the active Call Processor: Note: An initialization causes a momentary interruption in call...

  • Page 89: Acceptance Tests

    Test procedures for most circuit cards require that internal and external cabling be installed. See the appropriate installation document for your system and Telephones and Consoles: Description, Installation, and Operation (553-3001-367) for cabling procedures. Page 89 of 906 Circuit Card Description and Installation...

  • Page 90: Testing Conference Cards

    Conference cards Procedure 2 Testing conference cards Use this procedure to test a conference card or to test the conference function of an NT8D17 Conference/TDS card. Log into the system: LOGI (password) Request the status of a loop on the conference card: LD 38 STAT loop Conference status is formatted as follows:...
  • Page 91 Entering G steps through the conference groups. There are 15 channels per group and 15 groups per conference card. Entering an asterisk (*) and END stops the test. Circuit Card Description and Installation...

  • Page 92: Testing Digitone Receiver Cards

    Again, see “LD 38” in the Software Input/Output: Maintenance (553-3001-511) for detailed information on using this command. End the session in LD 38: **** Digitone receiver cards Procedure 3 Testing digitone receiver cards Use this procedure to test a Digitone receiver (DTR) card, a DTR daughterboard, or the DTR function on the NT8D18 Network/DTR card.

  • Page 93: Testing Line Cards

    UNTT l s c u If the system response is other than OK, see the Software Input/Output: Administration (553-3001-311) to analyze the messages. End the session in LD 30: **** loop, shelf, card, and unit numbers End of Procedure Circuit Card Description and Installation...

  • Page 94: Testing Multifrequency Sender Cards

    Multifrequency sender cards Procedure 5 Testing multifrequency sender cards Use this procedure to test a multifrequency sender (MFS) card or the MFS function of an NT8D17 Conference/TDS card. Log into the system: LOGI (password) Test and enable an MFS loop: LD 46 MFS loop (on the NT8D17 Conference/TDS card, the TDS/MFS loop is the even...

  • Page 95: Testing Network Cards

    If the system response is other than OK, see the Software Input/ Output: Administration (553-3001-311) to analyze the messages. End of Procedure can be a specific loop number or ALL Circuit Card Description and Installation...

  • Page 96: Trunk Cards

    End the session in LD 30: **** Trunk cards Use the following procedures to test a trunk card. Procedure 8 Testing a trunk card using a maintenance telephone Access the system from a maintenance telephone. See “Communicating with the Meridian 1” in the Software Input/Output: Administration (553-3001-311) for details on accessing the system from a maintenance telephone.

  • Page 97: Testing Tone And Digit Switch Cards

    LD 34 and LD 46 to address even loops and in LD 38 to address odd loops.) Enabling the loops with the command ENLL does not enable the hardware for the card. loop, shelf, and card numbers End of Procedure Circuit Card Description and Installation...
  • Page 98 For other than an NT8D17 Conference/TDS card, enter: ENLL loop Test the TDS loop: TDS loop If the system response is other than OK, see the Software Input/Output: Administration (553-3001-311) to analyze the messages. End the session in LD 34: **** Using a maintenance telephone, log into the system.
  • Page 99 Table 13 TDS tone tests RNG#loop## 764#loop## **** Provides ring tone from TDS loop specified. Exits TDS test program. Circuit Card Description and Installation...
  • Page 100 Page 100 of 906 Acceptance tests 553-3001-211 Standard 3.00 August 2005...

  • Page 101: Option Settings

    Circuit card grid ........

  • Page 102: Circuit Card Grid

    (such as SW2) printed on the circuit board (see Figure 17). Positions on a switch (for example, positions 1, 2, 3, and 4 on SW2) are labeled on the switch block. On a circuit card: • ON may be indicated by the word “on,” the word “up,” the word “closed,”...
  • Page 103 Throughout this document, if neither ON nor OFF is given (there is a blank space) for a position on a switch, that position may be set to either ON or OFF because it has no function for the option described. Figure 17 Circuit card grid (switch 4 at coordinate B11)

  • Page 104: Nt1R20 Off-Premise Station Card

    NT1R20 Off-Premise Station card Table 14 lists option settings for the NT1R20 Off-Premise Station analog card. Table 14 OPS analog line card configuration (Part 1 of 3) Application On-premise station (ONS) Class of Service (CLS) (Note 1) Loop resistance (ohms) Jumper strap Both JX.0 and JX.1 setting (Note 6)
  • Page 105 Store unused straps on the OPS analog line card by installing them on a single jumper pin as shown below: Jumper block >1.5–2.5 >2.5–3.0 0–1.5 ohms ohms ohms OPX CLS 600 ohms 3COM2 Jumper pin Jumper strap 553-5924 Circuit Card Off-premise station (OPS) >1.5–2.5 >2.5–4.5 >4.5–15 ohms ohms Description and Installation ohms...
  • Page 106 Table 14 OPS analog line card configuration (Part 3 of 3) Application On-premise station (ONS) Class of Service (CLS) (Note 1) BIMP (Notes 1, 4) ohms Gain treatment (Note 5) Note 1: Configured in the Analog (500/2500-type) Telephone Administration program (LD 10). Note 2: The maximum signaling range supported by the OPS analog line card is 2300 ohms.

  • Page 107: Nt5D12Aa Dual Dti/Pri (Ddp) Card

    Yellow Alarm Method Zero Code Suppression Mode Unused Description For future use SW9/SW15 switch setting off - ESF on - SF off - FDL on - Digit2 off - B8ZS on - AMI SW4/SW10 switch setting Circuit Card Description and Installation...
  • Page 108 A set of three switches provides selection of dB values. Use SW5, SW6, and SW7 for Trunk 0; use SW11, SW12, and SW13 for Trunk 1 (see Table 17). Table 17 Trunk interface line build out switch settings Description A set of four DIP switches provides selection among three values for receiver impedance.
  • Page 109 - Ring line is not grounded on - Ring line is grounded off - Ring line is not grounded on - Ring line is grounded off - Ring line is not grounded on - Ring line is grounded Circuit Card Description and Installation...
  • Page 110 DCH mode and address select switches One switch selects an on-board NTBK51AA D-Channel daughterboard and an external MSDL/DCHI card. Four other switches provide the daughterboard address (see Table 20). Table 20 DCH mode and address select switch settings Switch Table 21 NTBK51AA daughterboard address select switch settings (Part 1 of 2) Device Address 553-3001-211...
  • Page 111 Note 2: Device address 0 is commonly assigned to the System Monitor. Illustrations of switch locations and settings Figure 18 on NT5D12AA DDP card. Switch Setting page 112 displays functional areas for switches on the Circuit Card Description and Installation...
  • Page 112 Figure 18 Switch functions and areas Faceplate 553-3001-211 Standard 3.00 Port 0 General Purpose Switches Receiver Line Transmission DCH Mode and Address Select August 2005 Port 1 Impedence Build Out Switches Mode 553-7308...
  • Page 113 Figure 19 displays default settings for switches on the NT5D12AA DDP card. Figure 19 Switch default settings Circuit Card 553-7309 Description and Installation...

  • Page 114: Nt6D42 Ringing Generator Dc

    NT6D42 Ringing Generator DC Tables 22 through 27 list option settings for the NT6D42 Ringing Generator. Table 22 NT6D42 recommended options for North American and British Telecom Ringing Application frequency North America 20 Hz British Telecom 25 Hz Table 23 NT6D42 jumper locations P4 and P5 High voltage message waiting Disable...
  • Page 115 70 V ac 70 V ac Message waiting voltage –120 V dc –150 V dc –120 V dc –150 V dc –120 V dc –150 V dc –120 V dc –150 V dc Circuit Card Position SW1 Description and Installation...
  • Page 116 Table 27 NT6D42CC SW2 Ringing voltage 86 V ac 86 V ac 80 V ac 80 V ac 75 V ac 75 V ac 70 V ac 70 V ac 553-3001-211 Standard 3.00 Message waiting voltage –100 V dc –150 V dc –100 V dc –150 V dc –100 V dc...

  • Page 117: Nt5D2101/Nt9D1102 Core/Network Module Backplane

    Core/Network 1 Jumper plug not installed Core 1 Jumper plug not installed Plug installed Plug installed Plug installed Circuit Card Core/Network 0 Plug installed Core 0 Plug installed Plug installed Plug installed Plug installed Description and Installation...

  • Page 118: Nt6D80 Multi-Purpose Serial Data Link Card

    NT6D80 Multi-purpose Serial Data Link card Table 30 NT6D80 Multi-purpose Serial Data Link card RS-232-D DTE or DCE* RS-422-A DTE (terminal) RS-422-A DCE (modem) RS-232-D DTE or DCE* RS-422-A DTE RS-422-A DCE RS-232-D DTE or DCE* RS-422-A DTE RS-422-A DCE RS-232-D DTE or DCE* RS-422-A DTE RS-422-A DCE...

  • Page 119: Nt8D14 Universal Trunk Card

    Note 1: off = no strap present. Note 2: Locations (J1, J2) apply to all eight units. Location Jumper strap J1, J2 J1, J2 J1, J2 J1, J2 J1, J2 J1, J2 J1, J2 J1, J2 Circuit Card Description and Installation...
  • Page 120 Table 32 NT8D14 vintages BA/BB jumper strap settings—factory standard Trunk types Loop length CO/FX/WATS Zero–1524 m (5000 ft) 2-way tie (LDR) 2-way tie (OAID) Zero–600 ohms RAN: continuous Not applicable: RAN operation mode and paging trunks should not leave the Paging building.
  • Page 121 J1.X J2.X Balance network for loop lengths (Note 2) Zero–915 m 915–1524 m (zero–3000 ft) (3000–5000 ft) 600 ohms 3COM1 600 ohms 3COM1 Circuit Card J3.X J4.X 1–2 2–3 1–2 2–3 2–3 1–2 > 1524 m (> 5000 ft) 3COM2...
  • Page 122 Table 34 NT8D14 vintages BA/BB trunk types—termination impedance and balance network (Part 2 of 2) Terminating impedance Trunk types (Note 1) 2-way tie (OAID) 600 or 900 ohms DID (loop < 600 600 or 900 ohms) ohms DID (loop Š 600 600 or 900 ohms) ohms...
  • Page 123 915 m (3000 ft) 1524 m (5000 ft) 2225 m (7300 ft) 3566 m (11700 ft) 5639 m (18500 ft) Cable loop loss (dB) (non-loaded at 1kHz) 24 AWG 26 AWG 22 AWG 1544 Circuit Card 24 AWG 26 AWG Description and Installation...

  • Page 124: Nt8D15 E&M Trunk Card

    NT8D15 E&M Trunk card Table 36 NT8D15 E&M Trunk card 2-wire trunk Jumper (Note 1) Type I J1.X J2.X J3.X J4.X J5.X J6.X J7.X J8.X J9.X Pins 2–3 Note 1: Jumper strap settings J1.X through J9.X apply to all 4 units; “X” indicates the unit number, 0–3.

  • Page 125: Nt8D17 Conference/Tds Card

    Level 24 db 30 db Jumper at J3 connect pins 2 and 3 connect pins 1 and 2 SW2 (see Note) Jumper at J2 connect pins 1 and 2 connect pins 2 and 3 Circuit Card Description and Installation...

  • Page 126: Nt8D21 Ringing Generator Ac

    NT8D21 Ringing Generator AC Frequency 20 Hz 25 Hz 25 Hz 25 Hz 50 Hz 50 Hz 553-3001-211 Standard 3.00 Amplitude 86 V ac open 70 V ac open 80 V ac open 86 V ac open 70 V ac 1–4 7–10 80 V ac...

  • Page 127: Nt8D22 System Monitor

    The master system monitor, located in the column with CP 0, must be numbered 0. Slave system monitors are numbered from 1 to 63. For examples of system monitor option settings in basic configurations, see “Sample settings for NT8D22 System Monitors.” Circuit Card Description and Installation...
  • Page 128 Configure the system monitor in Remote Peripheral Equipment (RPE) columns as slaves. There is no serial connection between RPE columns. Table 37 NT8D22 SW1 SW1 function Not used Meridian 1 columns only Position 1 is OFF (Meridian 1 columns only) Not used Position 1 is ON, master column contains CP:master slaves...
  • Page 129 Table 39 NT8D22 SW3 SW3 indication FAIL MAJOR Configure 3–8 according to the Table 40 page Configure 3–8 according to the Table 41 page master slave master slave master slave master slave Circuit Card Position 130. 131. Position Description and Installation...
  • Page 130 Table 40 NT8D22 settings for total number of slaves—SW2 on master Switch position How many slave units 553-3001-211 Standard 3.00 How many slave units August 2005 Switch position...
  • Page 131 Table 41 NT8D22 slave address—SW2 on slave Position Slave unit address Slave unit address Position Circuit Card Description and Installation...

  • Page 132: Nt8D41Ba Quad Serial Data Interface Paddle Board

    NT8D41BA Quad Serial Data Interface Paddle Board Baud rate Switches SW13, SW10, SW11, and SW12 determine the baud rate for ports 1, 2, 3, and 4, respectively. See the configuration for these switches in Table 42. Table 42 QSDI paddle board baud rate switch settings Baud Baud Clock rate...
  • Page 133 Example: Port 1 is changed from DTE to DCE by reversing every switch position on SW3 and SW2; i.e., switches that were off for DTE are turned on for DCE, and switches that were on for DTE are turned off for DCE. Circuit Card Switch settings Description and Installation...

  • Page 134: Nt8D72 Primary Rate Interface Card

    Table 44 QSDI paddle board DTE/DCE mode switch settings Mode DTE (terminal) DCE (modem) Port 2 — SW 5 DTE (terminal) DCE (modem) DTE (terminal) DCE (modem) DTE (terminal) DCE (modem) NT8D72 Primary Rate Interface card The NT8D72 Primary Rate Interface card allows the configuration of interface impedance by way of DIP switches.
  • Page 135 Figure 20 NT8D72 DIP switch settings NT8D72AA, NT8D72AB 75 ohm switch setting NT8D72BA 75 ohm switch setting 120 ohm switch setting (default) 120 ohm switch setting (default) Circuit Card 553-7463 Description and Installation...

  • Page 136: Qpc43 Peripheral Signaling Card

    QPC43 Peripheral Signaling card Options (minimum vintage N) NT5D21 Core/Network module NT8D35 Network module QPC71 E&M/DX Signaling and Paging Trunk cards Unit 0 E35 switch Application E&M Paging DX 2-wire (conductor loop < 2.5 K ¾) DX 2-wire (conductor loop > 2.5 K ¾) DX 4-wire (conductor...

  • Page 137: Qpc414 Network Card

    Even loop: J1 faceplate connector, jumper at J4 or S1 Odd loop: J2 faceplate connector, jumper at J3 or S2 Pin connection J3/S2 and J4/S1 connect pins 1 and 2 (pin 1 is next to the white dot) Circuit Card Description and Installation...

  • Page 138: Qpc441 3-Port Extender Cards

    QPC441 3-Port Extender cards For CS 1000M SG and Multi Group systems, QPC441 vintage F or later must be used in all modules. Table 45 QPC441 3PE card installed in the NT4N41CP PII Core/Net modules Jumper Settings: Set Jumper RN27 at E35 to “A”. Switch Settings Module NT4N41 CP Core/Net modules only...
  • Page 139 Group 0 Group 1 Group 2 Group 3 Group 4 Group 5 Group 6 Group 7 Group 0 Group 1 Group 2 Group 3 Group 4 Group 5 Group 6 Group 7 Circuit Card D20 switch position Description and Installation...
  • Page 140 Table 47 QPC441 3PE card installed in the NT8D35 module Jumper Settings: Set Jumper RN27 at E35 to “A”. Modules Option 81, 81C (Note 1) Shelf 553-3001-211 Standard 3.00 Switch Settings Group August 2005 D20 switch position...

  • Page 141: Qpc559, Qpc560 Loop Signaling Trunk Cards

    Other than outgoing ANI 600 ¾ resistive impedance 3-component complex impedance page 142 list option settings for loop signaling Single density—Unit 0/1 F30/F8 switch Jumpers (QPC560) Units 0/1/2/3 connect pins 1 and 2 connect pins 2 and 3 Circuit Card Description and Installation...
  • Page 142 Table 49 QPC559, QPC560 double density Application Outgoing ANI only: loop pulsing battery and ground pulsing Other than outgoing ANI 600 ¾ resistive impedance 3-component complex impedance 553-3001-211 Standard 3.00 Double density—Unit 0/1/2/3 H17/H3/A17/A3 switch Jumpers (QPC560) Units 0/1/2/3 connect pins 1 and 2 connect pins 2 and 3 August 2005...

  • Page 143: Qpc528 Co/Fx/Wats Trunk Cards

    Pin 1 to 2 Pin 1 to 2 Pin 1 to 2 Pin 2 to 3 Pin 2 to 3 Pin 2 to 3 Circuit Card Unit 2 Unit 3 Jumper Pin 1 to 2 Pin 2 to 3 Description and Installation...

  • Page 144: Qpc471 Clock Controller Card

    QPC471 Clock Controller card Table 51 lists option settings for the QPC471 Clock Controller card. Table 51 QPC471 vintage H System 81C with Fiber Network If there is only one Clock Controller card in the system, set to OFF. If there are two Clock Controller cards, determine the total cable length between the J3 connectors (no single cable can exceed 25 ft.) and set these two switch positions for this cable length, as shown above.

  • Page 145: Qpc525, Qpc526, Qpc527, Qpc777 Co Trunk Card

    Always select loop start signalling for QPC777 CO trunk cards. Note 2: On QPC777 CO trunk cards, the pads are in for short line lengths and the pads are out for long line lengths. Switches at E29/E9/A29/A11 Units 0/1/2/3 Circuit Card Description and Installation...

  • Page 146: Qpc550 Direct Inward Dial Trunk Card

    QPC550 Direct Inward Dial Trunk card Tables 52 through 56 give the option settings for the QPC550 DID Trunk card. Table 52 QPC550 vintages A and B—real/complex balance impedance selection Device Device location designation S4.0 S4.1 S4.2 S4.3 Table 53 QPC550 vintage A—600/900 Ohm impedance selection Device Device...
  • Page 147 Device location designation Table 55 QPC550 vintage B—attenuation level control Device Device location designation S2.0/1 S2.2/3 Unit Switch number number Switch number Unit number Circuit Card 2 dB pad control (pad in) 2 dB option Description and Installation (pad out)
  • Page 148 Table 56 QPC550 vintage B—software control for 2dB pad Device Device location designation S1.0/1 S1.2/3 553-3001-211 Standard 3.00 Unit Switch number number August 2005 2 dB pad control (pad in) (pad out)

  • Page 149: Qpc551 Radio Paging Trunk Card

    S5 (E38) Impedance termination Real Complex S3 (E2) S4 (F2) Unit 0, Unit 1 S6 (D1) Unit 0 Unit 1 S1 (F33) S2 (G33) Address Circuit Card Description and Installation...

  • Page 150: Qpc595 Digitone Receiver Cards

    QPC595 Digitone Receiver cards 12 DTMF tones 16 DTMF tones QPC577, QPC596 Digitone Receiver daughterboards 16/12 tone options jumper 16 tone (4 x 4) 12 tone (3 x 4) Note: When a DTR daughterboard is installed, check YES on the faceplate of the QPC659 Dual Loop Peripheral Buffer.
  • Page 151 PRI in LD17 with the DLOP, LCMT, and YALM prompts. All SW3 switch positions should be OFF. To repeater facility 136–225 m (451–750 ft) Switch 3 option for DTI with ESF Circuit Card To cross-connect point 101–200 m (356–655 ft) Description and Installation...

  • Page 152: Qpc775 Clock Controller Card

    QPC775 Clock Controller card Tables 58 and 59 give option settings for the QPC775 Clock Controller card. Table 58 QPC775 (before vintage E) switch settings System CS 1000M MG CS 1000M SG Table 59 QPC775 vintage E switch settings System CS 1000M SG CS 1000M MG If there is only one Clock Controller card in the system, set to OFF.

  • Page 153: Qpc841 4-Port Serial Data Interface Card

    Note 1: On SW16, positions 1, 2, 3, and 4 must be OFF. Note 2: To avoid address conflicts, SW14 and SW15 can never have identical setting. Note 3: To disable ports 1 and 2, set SW14 position 1 to ON. Circuit Card SW14 Description and Installation...
  • Page 154 Device number Port 3 Port 4 Note 1: On SW16, positions 1, 2, 3, and 4 must be OFF. Note 2: To avoid address conflicts, SW14 and SW15 can never have identical setting. Note 3: To disable ports 3 and 4, set SW15 position 1 to ON. Table 61 QPC841 baud rate Port 1 SW10...
  • Page 155 Table 62 QPC841 DTE or DCE selection Mode DTE (terminal) DCE (modem) NT1P61 (Fiber) NT1P61 (Fiber) Port 1—SW8 Port 2—SW6 Port 3—SW4 Port 4—SW2 Circuit Card Port 1—SW9 Port 2—SW7 Port 3—SW5 Port 4—SW3 Description and Installation...

  • Page 156: Standard 3.00 August

    Page 156 of 906 Option settings 553-3001-211 Standard 3.00 August 2005...

  • Page 157: Nt1R20 Off-Premise Station Analog Line Card

    Each line has integral hazardous and surge voltage protection to protect the system from damage due to lightning strikes and accidental power line connections. This card is normally Page 157 of 906 Circuit Card Description and Installation...

  • Page 158: Physical Description

    used whenever the phone lines have to leave the building in which the switch is installed. The NT1R20 OPS analog line card provides: • line supervision • hookflash • battery reversal Each unit is independently configured by software control in the Analog (500/ 2500 type) Telephone Administration program LD 10.
  • Page 159 Figure 21 OPS analog line card – faceplate Card lock latch Card lock latch Anlg LC This symbol indicates that field-selectable jumper strap settings are located on this card NT1R20 Rlse 0x Circuit Card 553-6190 Description and Installation...

  • Page 160: Functional Description

    Functional description This functional description of the NT1R20 Off-Premise Station (OPS) analog line card is divided into two parts. First, a description of the card’s control, signaling, and power interfaces is given, followed by a description of how the card itself functions. See Figure 22. Figure 22 OPS analog line card –...

  • Page 161: Card Interfaces

    • enabling/disabling of the DS-30X network loop busy • reporting of card status Power interface Power is provided to the NT1R20 OPS analog line card by the NTAK78 ac/dc or NTAK72 DC power supply. Circuit Card Description and Installation...

  • Page 162: Card Control Functions

    Line interface units The NT1R20 OPS analog line card contains eight independently configurable interface units. Relays are provided in each unit to apply ringing onto the line. Signal detection circuits monitor on-hook/off-hook signaling. Two codecs are provided for performing Analog/Digital (A/D) and Digital/Analog (D/A) conversion of analog voiceband signals to digital PCM signals.
  • Page 163 LD 10 is also used to select unit terminating impedance and balance network impedance at the TIMP and BIMP prompts, respectively. The message waiting interrupted dial tone and call forward reminder tone features are enabled by entering data into the customer data block using LD 15. page Circuit Card Description and Installation...
  • Page 164 See Software Input/Output: Administration (553-3001-311) for LD 10 service change instructions. Table 63 OPS analog line card configuration Application On-premise station (ONS) Class of service Loop resistance Jumper strap Both JX. 0 and JX 1 off setting Loop loss dB 0-1.5 TIMP BIMP...

  • Page 165: Electrical Specifications

    86 Vrms ac at 20 Hz on –48 V dc. The Rsync signal is used to switch the 20 Hz ringing on and off at the zero cross-over point to lengthen the life of the switching circuits. Circuit Card Description and Installation...

  • Page 166: Analog Line Interface

    Analog line interface Table 64 lists the electrical characteristics of NT1R20 OPS analog line card line interface units. Table 64 OPS analog line card – electrical characteristics Characteristic Terminal impedance (TIMP) Balance impedance (BIMP) DC signaling loop length (max) Battery supply voltage Minimum detected loop current Ground potential difference Line leakage...

  • Page 167: Power Requirements

    OPS analog line card – ringer limitations (Part 1 of 2) ONS Loop Range 0–10 ohms > 10–460 ohms Tolerance Current (max.) ± 5% 150 mA ± 2% 200 mA ± 5% 100 mA ± 5% 350 mA Maximum Number of Ringers (REN) Circuit Card Description and Installation...

  • Page 168: Environmental Specifications

    Table 66 OPS analog line card – ringer limitations (Part 2 of 2) OPS Loop Range 0 – 10 ohms > 10 – 900 ohms > 900 – 2300 ohms Environmental specifications Table 67 shows the environmental specifications of the OPS analog line card.

  • Page 169: Incoming Calls

    The system detects increase in loop current, tips ringing, and put call through to near-end station. If near end station hangs-up first, the line card detects the drop in loop current. Line card unit is ready for the next call. Circuit Card Description and Installation...

  • Page 170: Outgoing Calls

    Table 68 Call connection sequence—near-end station receiving call (Part 2 of 2) Signal / Direction State Far-end / Near-end Far end station High resistance loop hangs up first Line card unit idle Ground on tip/battery on ring High resistance loop Outgoing calls For outgoing calls from a telephone, a line unit is seized when the telephone goes off-hook, placing a low-resistance loop across the tip and ring leads...
  • Page 171 If the far-end hangs-up first, the system detects disconnect signalling from the trunk. The person at the near-end recognizes the end of the call and hangs-up. Line card unit is ready for the next call. Circuit Card Description and Installation...

  • Page 172: Connector Pin Assignments

    Connector pin assignments The OPS analog line card brings the eight analog telephone lines to the IPE backplane through a 160-pin connector shroud. The backplane is cabled to the input/output (I/O) panel on the rear of the module, which is then connected to the Main Distribution Frame (MDF) by 25-pair cables.
  • Page 173 Cross-connect Module I/O Panel Connector (W-BL) (BL-W) (W-O) (O-W) (W-G) (G-W) (W-BR) (BR-W) (W-S) (S-W) (R-BL) (BL-R) Part of 25-pair cable Circuit Card OPS or ONS telephone connections Ring Ring Ring 553-AAA1117 Description and Installation...

  • Page 174: Configuring The Ops Analog Line Card

    Configuring the OPS analog line card The line type, terminating impedance, and balance network configuration for each unit on the card is selected by software service change entries at the system terminal and by jumper strap settings on the card. Jumper strap settings Each line interface unit on the card is equipped with two jumper blocks that are used to select the proper loop current depending upon loop length.

  • Page 175: Application

    An OPS line serves a terminal – usually a telephone – remote from the PBX either within the same serving area as the Off-premise station (OPS) ONP CLS OPX CLS 600 ohms 600 ohms 600 ohms 3CM2 page 180 Circuit Card Description and Installation describes some...
  • Page 176 Page 176 of 906 NT1R20 Off-Premise Station Analog Line card Figure 24 OPS analog line card – jumper block locations 553-6191 553-3001-211 Standard 3.00 August 2005...
  • Page 177 CO or PBX. Do not confuse CLS OPS (assigned in the Analog (500/2500-type) Telephone Administration program LD 10) with OPX, which denotes Off-Premise Extension service. page 178. Circuit Card Description and Installation...
  • Page 178 Page 178 of 906 NT1R20 Off-Premise Station Analog Line card Figure 25 Traditional OPS application configuration System OPS analog CO trunk line card port card port 4.5 dB maximum 0–3.5 dB Local OPS line Public facility Network Distant termination Non-switched thru connections 7.0 dB total maximum 553-AAA1118...

  • Page 179: Other Applications

    NT1R20 OPS analog line card. They are important when considering configurations other than the traditional OPS application as shown in Figure 25 on page guidelines for various OPS applications. 178. The following provides basic transmission planning Circuit Card page 178. Examples of such Description and Installation...
  • Page 180 Port-to-port loss Loss is inserted between OPS analog line card ports and other ports in accordance with the loss plan. This plan determines the port-to-port loss for each call. When a port is configured for CLS OPS, loss is programmed into the OPS analog line card on a call-by-call basis.
  • Page 181 OPS port is served by a line card using a constant-current feeding bridge • the OPS termination is to telephones behind a local switch providing local current feed, such as a fax machine or a key telephone system Circuit Card Description and Installation...
  • Page 182 Page 182 of 906 NT1R20 Off-Premise Station Analog Line card OPS line terminations with loudness characteristics designed for other applications can also impact transmission performance. For example, wireless portables loudness characteristics are selected for connections to switching systems for wireless communication systems; if used in an OPS arrangement without consideration for these characteristics, the result could be a significant deviation from optimum loudness performance.

  • Page 183: Nt4N39Aa Cp Pentium Iv Card

    The NT4N39AA card measures 23 cm by 16 cm (9,2 in. by 6.3 in.). See Figure 26 on page 185 and Figure 27 on page 185 and Figure 27 on page Circuit Card Page 183 of 906 page 186. 186. Description and Installation...
  • Page 184 The CP PIV front panel is equipped with an EMC gasket and two ejector/ injector handles. A reset button and two double LED packages (four LEDs in total) are placed at the front panel as well. The front panel features the following: •...
  • Page 185 NT4N39AA CP Pentium IV Card Page 185 of 906 Figure 26 CP PIV card (front) Lan 2 Lan 1 COM 2 COM 1 Circuit Card Description and Installation...

  • Page 186: Functional Description

    Figure 27 CP PIV card (side) Fixed Media Drive (FMD) Removable Media Drive (RMD) Functional description The card employs an Intel Pentium Processor as the central processing unit. The internal core clock frequency reaches from 600MHz to1.1GHz. The processor is manufactured in 0.09 um process technology and provides 32 KB of on die data and instruction cache as well as 1 MB of on die L2 cache running at core clock frequency.

  • Page 187: Front Panel Connector Pin Assignments

    The physical interface for the COM1 and COM2 ports to the front panel is through a stacked dual Male DB9 Connector. The corresponding pin details are shown in Table 72. Table 72 COM1 and COM2 pin assignments Pin number Pin name Circuit Card Description and Installation...
  • Page 188 Table 72 COM1 and COM2 pin assignments 553-3001-211 Standard 3.00 August 2005...

  • Page 189: Usb Port

    The physical interface for the two 10/100/1000 Mbps Ethernet ports to the front panel is through a stacked dual RJ 45 connector with magnetics and LEDs. The corresponding pin details are shown in Table 74. Table 74 Ethernet connector pin outs Pin number Pin name Circuit Card Description and Installation...

  • Page 190: Front Panel Led Indicators

    Front panel LED indicators The CP PIV card has a total of five LEDS on the front panel which are 15 KV ESD protected and can be controlled via CPLD. Table 75 explains the function of each LED. Author’s note: Are there 5 or 4? Table 75 Front panel LED functionality...
  • Page 191 Using a GPCS from Super I/O X-bus, data lines are latched using latch 74F374. These help identify Post 80 codes. This feature is available only in debug boards. Signal Name RESETN TRSTN Circuit Card Description and Installation...
  • Page 192 Page 192 of 906 NT4N39AA CP Pentium IV Card 553-3001-211 Standard 3.00 August 2005...

  • Page 193: Nt5D11 And Nt5D14 Lineside T1

    The NT5D11 lineside T1 Interface card is an intelligent 24-channel digital line card that is used to connect the switch to T1 compatible terminal equipment on the lineside. T1 compatible terminal equipment includes voice Page 193 of 906 Circuit Card Description and Installation...

  • Page 194: Physical Description

    mail systems, channel banks containing FXS cards, and key systems such as the Nortel Norstar. The lineside T1 card differs from trunk T1 cards in that it supports terminal equipment features such as hookflash, transfer, hold, and conference. This card occupies two card slots in the main or expansion cabinets. The lineside T1 card can be installed in the system’s main cabinet or one of the expansion cabinets (there are no limitations on the number of cards that can be installed in the Cabinet system).
  • Page 195 Lineside T1 card faceplate Card lock latch Card status LED Warning LEDs Card lock latch This symbol indicates that field-selectable switch settings are located on this card YEL ALM RED ALM MAINT NT5D11 Rlse 0x Circuit Card 553-6478 Description and Installation...
  • Page 196 In general, the LEDs operate as shown in Table 76. Table 76 NT5D14AA Lineside T1 faceplate LEDs State STATUS On (Red) On (Red) On (Yellow) MAINT On (Red) STATUS its self test, and is functional. When the card is installed, this LED remains lit for two to five seconds as the self-test runs.
  • Page 197 If a yellow alarm signal is detected, this LED will light. LED indicates if the lineside T1 card is fully operational because MAINT of certain maintenance commands being issued through the MMI. See for information on T1 link maintenance. page 225 Circuit Card Description and Installation...

  • Page 198: Functional Description

    “Man-Machine T1 maintenance interface software” on information on T1 link maintenance. If the card detects that tests are being run or that alarms have been disabled through the MMI, this LED will light and will remain lit until these conditions are no longer detected, then it will turn off.
  • Page 199 D4 or ESF channel framing formats as well as AMI or B8ZS coding. Because it uses standard PCM in standard T1 timeslots, existing T1 test equipment remains compatible for diagnostic and fault isolation purposes. Circuit Card Description and Installation...

  • Page 200: Card Interfaces

    Card interfaces The lineside T1 card passes voice and signaling data over DS-30X loops through the DS-30X Interfaces circuits and maintenance data over the card LAN link. T1 interface circuit The lineside T1 card contains one T1 line interface circuit which provides 24 individually configurable voice interfaces to one T1 link in 24 different time slots.
  • Page 201 The microcontroller must service the sanity timer every 1.2 seconds. If the timer is not properly serviced, it times out and causes the microcontroller to be hardware reset. Circuit Card Description and Installation...

  • Page 202: Electrical Specifications

    Man-Machine Interface The lineside T1 card provides an optional Man-Machine Interface (MMI) that is primarily used for T1 link performance monitoring and problem diagnosis. The MMI provides alarm notification, T1 link performance reporting and fault isolation testing. The interface is accessed through connections from the I/O panel to a terminal or modem.

  • Page 203: Power Requirements

    When the card is used to service off-premise terminal equipment through the public telephone network, install a Channel Service Unit (CSU) as part of the terminal equipment to provide external line protection. Current (max.) 1.6 Amp 150 mA. 150 mA. Circuit Card Description and Installation...

  • Page 204: Environmental Specifications

    Environmental specifications Table 79 lists the environmental specifications of the lineside T1 card. Table 79 Lineside T1 card – environmental specifications Parameter Operating temperature-normal Operating temperature-short term Operating humidity-normal Operating humidity-short term Storage temperature Storage humidity Installation and configuration Installation and configuration of the lineside T1 card consists of six basic steps: Configure the dip switches on the lineside T1 card for the environment.

  • Page 205: Dip Switch Settings

    The lineside T1 card contains two dip switches, each containing eight switch positions. They are located in the upper right corner of the motherboard circuit card as shown in Figure 31 on page Tables 80 through 83.
  • Page 206 Figure 31 Lineside T1 card – T1 protocol dip switch locations LD 97 for type: XPE. However, this is not mandatory, and, since the dip switch is limited to 16, this will not always be possible. 553-3001-211 Standard 3.00 August 2005 switches 553-6479...
  • Page 207 This setting is used only if daisy-chaining the cards to the MMI terminal or modem. This setting determines whether this card is a master or a slave in the MMI daisy-chain. Select the master setting if this card is the card that is Circuit Card Description and Installation...
  • Page 208 cabled directly into the MMI terminal or modem; select the slave setting if this card is cabled to another lineside T1 card in a daisy chain. Tables 80 through 83 describes the proper dip switch settings for each type of T1 link.
  • Page 209 Position 4 S1 Switch S1 Switch Position 5 Position 6 Selection On = D4 Off = ESF On = AMI Off = B8ZS See Table 83 on page 210 On = On-hook Off = Off-hook Circuit Card Description and Installation...
  • Page 210 Table 82 Lineside T1 card – T1 Switch 2 (S2) dip switch settings (Part 2 of 2) Dip Switch Number Characteristic Daisy-chaining to MMI MMI Master or Slave Table 83 Lineside T1 card – CPE or CSU distance dip switch settings (Switch S2, positions 3 – 5) Distance 0–133 134–266...
  • Page 211 For modules with vintage levels that cabled 24 ports to the I/O panel, the lineside T1 card can be installed in any pair of card slots 015. Number of ports cabled to I/O panel 16 ports 24 ports 16 ports 16 ports 24 ports Circuit Card Description and Installation...
  • Page 212 Vintage levels cabling 16 ports For modules with vintage levels that cabled 16 ports to the I/O panel, the lineside T1 card can be installed into the following card slot pairs: Available: The lineside T1 card cannot be installed into the following card slot pairs: Restricted: If the lineside T1 card must be installed into one of the restricted card slot pairs, rewire the IPE module card slot to the I/O panel by installing an...
  • Page 213 The lineside T1 card is cabled from its backplane connector through connections from the motherboard circuit card only (no cable connections are made from the daughterboard circuit card) to the input/output (I/O) panel on the rear of the IPE module. The connections from the lineside T1 card to the I/O panel are made with the NT8D81AA Tip and Ring cables provided with the IPE module.
  • Page 214 Figure 32 Lineside T1 card – connection using the NT5D13AA lineside T1 cable System NT8D81 NT8D37 Tip & Ring Cable Module Slot 0 (bl-w) (w-bl) (o-w) (w-o) (g-w) (w-g) (br-w) (w-br) Line (s-w) Side T-1 (w-s) Card (bl-r) (r-bl) (or-r) (r-or) (gr-r) (r-gr)

  • Page 215: Procedure

    Lineside T1 card – backplane pinouts (Part 1 of 2) Backplane I/O Panel Connector Pin Connector Pin End of Procedure is provided as a reference and diagnostic aid at Signal T1 Tip, Receive Data T1 Ring, Receive Data Circuit Card Description and Installation Page 215 of 906...
  • Page 216 Table 85 Lineside T1 card – backplane pinouts (Part 2 of 2) Backplane Connector Pin 553-3001-211 Standard 3.00 I/O Panel Connector Pin August 2005 Signal T1 Tip, Transmit Data T1 Ring, Transmit Data Alarm out, Normally open Alarm out, Common Alarm out, Normally closed No Connection No Connection...
  • Page 217 Lineside T1 card is CPE transmit to network and receive from network DB9 male to external alarm (P3) DB9 male towards MMI (P5) Wired as DCE Data is transmitted on pin 2 (RXD) and received on pin 3 (TXD) Circuit Card Description and Installation...
  • Page 218 Table 86 Lineside T1 card – NT5D13AA connector pinouts (Part 2 of 2) I/O panel connector Lead designations Ground Control 1 Control 2 Away from MMI terminal Transmit Data Away from MMI terminal Receive Data T1 connections T1 signaling for all 24 channels is transmitted over P2 connector pins 1, 3, 9, and 11 as shown in Table 86 on labeled “P2”...
  • Page 219 221. Cards can be located in up to 16 separate IPE shelves. Any card slot in the IPE shelf can be connected to any other card slot; the card slots connected together do not need to be consecutive. Circuit Card Description and Installation...

  • Page 220: Procedure

    Procedure 12 Connecting two or more lineside T1 cards to the MMI terminal Follow this procedure for connecting two or more lineside T1 cards to the MMI terminal: Cable the DB9 male connector labeled “P5” (towards MMI terminal) to one of the COM ports on the back of any TTY, a PC running a terminal emulation program, or a modem.
  • Page 221 1 LTI card LTI card no. 2 no. 3 IPE module backplane Alarm Tx & Rx (tip & ring) I/O panel on rear of IPE module Last LTI card in daisy chain Circuit Card Description and Installation connection 553-6481...

  • Page 222: Terminal Configuration

    (0-7) units on the daughterboard to 24 T1 channels. The motherboard circuit card is located in the left card slot, and the daughterboard circuit card is located in right card slot. For example, if the lineside T1 card is installed into card slots 0 and 1, the motherboard would reside in card slot 0 and the daughterboard would reside in card slot 1.
  • Page 223 Table 87 DX-30 to T1 time slot mapping (Part 1 of 2) Item Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Daughterboard Daughterboard Daughterboard Daughterboard T1 Channel Number Circuit Card Description and Installation...
  • Page 224 Table 87 DX-30 to T1 time slot mapping (Part 2 of 2) Daughterboard Daughterboard Daughterboard Daughterboard Disconnect supervision The lineside T1 card supports far-end disconnect supervision by opening the tip side toward the terminal equipment upon the system's detecting a disconnect signal from the far-end on an established call.

  • Page 225: Man-Machine T1 Maintenance Interface Software

    Descriptions of each of these T1 link alarm conditions, instructions on how to configure alarm parameters, and access alarm reporting can be found in “Alarm operation and reporting” on page 204 for instructions on how to install page 236. Circuit Card Description and Installation...
  • Page 226 Two levels of alarm severity exist for bit errors and frame slip errors. For these conditions, two different threshold and duration configurations are established. When the first level of severity is reached (alarm level 1), the MMI will do the following: •...

  • Page 227: Login And Password

    CS 1000 Release 4.5 software), plus the two-digit address of the card slot that the motherboard occupies. For example, to login to a card located in shelf 13, card slot 4, type: L 13 4 <CR> page 239. page 241. Circuit Card Description and Installation...

  • Page 228: Basic Commands

    A space is inserted between the login command (L), the shelf address, and the card slot address. The MMI then prompts for a password. The password is “LTILINK”, and it must be typed all in capital letters. After logging in, the prompt will then look like this: •...
  • Page 229 USAGE: Display [Alarm | Status | Perform | History] [Pause] USAGE: Help | ? USAGE: Set [Time | Date | Alarm | Clearing | Name | Memory] USAGE: Test [Carrier All] USAGE: Quit [ ] - Optional Circuit Card | - Either/ Description and Installation...
  • Page 230 Table 88 MMI commands and command sets (Part 2 of 3) Command Description Clear Error Clears the error counter for the T1. D A [P] Display Alarms [Pause] Displays the alarm log – a list of the most recent 100 alarms along with time and date stamps.
  • Page 231 Sets date or verifies current date. Set time Sets time or verifies current time. Test Initiates the T1 carrier test function. To terminate a test in process, enter the STOP TEST (S) command at any time. Circuit Card Description and Installation...

  • Page 232: Configuring Parameters

    Configuring parameters The MMI has been designed with default settings so that no configuration is necessary. However, it can be configured to suit a specific environment. Set Time Before configuring the MMI, login to the system and enter the current time. Do this by typing in the Set Time (S T) command set.
  • Page 233 1–218 seconds 15/second 1–2148 seconds 1.5/second 1–3600 seconds 1.5/10 seconds 10–3600 seconds 1.5/100 seconds 100–3600 seconds 1.5/1000 seconds 1000–3600 seconds ) are restricted to longer durations since it takes Circuit Card Description and Installation Allowable 1–21 seconds . Higher bit...
  • Page 234 Clearing” option has been set. Otherwise, the alarm will continue until the command set Clear Alarm (C A) has been entered. When an alarm is cleared, the following activity caused by the alarm will be cleared: • the external alarm hardware will be deactivated (the contact normally open will be reopened) •...
  • Page 235 Answer Y or N to the question: “Enable Self Clearing? (YES or NO)”. If “Enable Self-Clearing” is chosen (the factory default condition), the system will automatically clear alarms after the alarm condition is no longer detected for the corresponding duration period. –6 Circuit Card Description and Installation...
  • Page 236 The “Disable Self-Clearing” option causes the system to continue the alarm condition until the Clear Alarm (C A) command set is entered. Line processing and the yellow alarm indication to the CPE is terminated as soon as the alarm condition clears, even if “Disable Self-Clearing” is set. Display Configuration The Display Configuration (D C) command set displays the various configuration settings established for the lineside T1 card.
  • Page 237 The Alarm Enable (A E) command set does the opposite of the Alarm Disable command set. It enables the external alarm contacts. When this command set is typed in, the MMI will display the message “Alarms Enabled.” In this Circuit Card Description and Installation...
  • Page 238 mode, yellow alarms can be sent and the lineside T1 card can enter line processing mode. Clear Alarm The Clear Alarm (C A) command set will clear all activity initiated by an alarm: the external alarm hardware will be deactivated (the contact normally open will be reopened), the LED light will go out, an entry will be made in the alarm log of the date and time the alarm was cleared, and line processing will cease (for alarm level 2 only).
  • Page 239 10 consecutive severely errored seconds (excluding the final 10 non-severely errored seconds). Severely errored seconds are defined as more than 320 CRC-6 errors, or one or more out of frames in a second. Software Version 1.01 Circuit Card 3/03/95 1:50 Description and Installation...
  • Page 240 • Loss of frame seconds – loss of frame or loss of signal for three consecutive seconds. • Framer slip seconds – one ore more frame slips in a second. The MMI also maintains an overall error counter that is a sum of all the errors counted for the five performance criteria listed above.
  • Page 241 Test 1: Local Loopback Test Test 2: External Loopback Test Test 3: Network Loopback Test (1,2,3 or S to cancel): 3/03/95 1:35 Bursty Unavaila Loss Frame Second Seconds Seconds Circuit Card Frame Error Slip Seconds Counte Description and Installation...
  • Page 242 Tests can be performed once (for 1 through 98 minutes), or continuously (selected by entering 99 minutes) until a “Stop Test” command is entered. Tests continue for the duration specified even if a failure occurs, and terminate at the end of the time period or when a “Stop Test” command is issued.
  • Page 243 To isolate the failure to the CPE device, tests 2 and 3 must be run Line side T-1 link interface card Line side External T-1 link network interface card Circuit Card Customer External premise T-1 link network equipment (CPE) Customer premise T-1 link...

  • Page 244: Applications

    in tandem. Figure 36 demonstrates how the signaling is looped back toward the CPE equipment. Figure 36 MMI network loopback test System Common Equipment Applications The lineside T1 interface is an IPE line card that provides cost-effective connection between T1-compatible IPE and a system or off-premise extensions over long distances.
  • Page 245 (500/2500-type) telephone lines. See Figure 38 on be provided as well. System Line-side T1 interface page 246. An audible message-waiting indicator can Circuit Card Trunks Public network 553-AAA1123 Description and Installation...
  • Page 246 Page 246 of 906 NT5D11 and NT5D14 Lineside T1 Interface cards Figure 38 Lineside T1 interface in off-premise application System Channel bank Public network 553-AAA1124 553-3001-211 Standard 3.00 August 2005...
  • Page 247 Norstar system is equipped with a T1 interface. Figure 39 Lineside T1 interface connection to Norstar system System Note: The lineside T1 card audio levels must be considered when determining the appropriateness of an application. Public network Circuit Card Norstar 553-AAA1125 Description and Installation...
  • Page 248 Page 248 of 906 NT5D11 and NT5D14 Lineside T1 Interface cards 553-3001-211 Standard 3.00 August 2005...

  • Page 249: Nt5D33 And Nt5D34 Lineside E1

    The LEI interfaces one E1 line, carrying 30 channels, to the CS 1000S, CS 1000M, or Meridian 1, and emulates an analog line card to the system software. Each channel is independently configured by software control Page 249 of 906 Circuit Card Description and Installation...

  • Page 250: Physical Description

    in the Analog (500/2500-type) Telephone Administration program LD 10. The LEI also comes equipped with a Man-Machine Interface (MMI) maintenance program, which provides diagnostic information regarding the status of the E1 link. • NT5D33AC/NT5D34AC – Enhanced Lineside E1 Interface (ELEI) cards The ELEI card is similar to an LEI card, but has been enhanced to allow the capability of transporting caller information using the proprietary...
  • Page 251 The LEI faceplate is twice as wide as the other standard analog and digital line cards. It occupies two card slots. The LE1 faceplate has four LEDs. See Figure 40 on page 252 system). (IPE version), and Figure 41 on Circuit Card Description and Installation page 253 (Cabinet...
  • Page 252 Page 252 of 906 NT5D33 and NT5D34 Lineside E1 Interface cards Figure 40 NT5D33AB LEI card – faceplate 553-3001-211 Standard 3.00 August 2005...
  • Page 253 NT5D33 and NT5D34 Lineside E1 Interface cards Page 253 of 906 Figure 41 NT5D34AB LEI card – faceplate Circuit Card Description and Installation...
  • Page 254 The LEDs give status indications on the operations as described in Table 92. Table 92 LEI card LED operation Status Red alarm Yellow alarm Maint The STATUS LED indicates if the LEI has successfully passed its self test, and therefore, if it is functional. When the card is installed, this LED remains lit for two to five seconds as the self-test runs.

  • Page 255: Functional Description

    Figure 42 on contained on the LEI card. Each of these functions is described on the following pages. page 284 page 256 shows a block diagram of the major functions Circuit Card page 284 for information on E1 link Description and Installation...
  • Page 256 Page 256 of 906 NT5D33 and NT5D34 Lineside E1 Interface cards Figure 42 LEI card – block diagram 553-3001-211 Standard 3.00 August 2005...

  • Page 257: Card Interfaces

    Australian P2 signaling scheme. Card interfaces The LEI passes voice and signaling data over DS-30X loops through the DS-30X Interface circuits and maintenance data over the card LAN link. Circuit Card Description and Installation...
  • Page 258 E1 interface circuit The LEI contains one E1 line-interface circuit which provides 30 individually configurable voice interfaces to one E1 link in 30 different time slots. The circuit demultiplexes the 2.56 Mbps DS-30X transmit signaling bitstreams from the DS-30X network loop and converts it into 2.048 mHz E1 transmit signaling bitstreams onto the E1 link.
  • Page 259 Man-Machine Interface The LEI provides an optional Man-Machine Interface (MMI) that is primarily used for E1 link performance monitoring and problem diagnosis. The MMI page Circuit Card Description and Installation...
  • Page 260 provides alarm notification, E1 link performance reporting, and fault isolation testing. The interface is accessed through connections from the I/O panel to a terminal or modem. Multiple cards (up to 64) can be served through one MMI terminal or modem by linking the LEIs through a daisy chain. The MMI is an optional feature, since all E1 configuration settings are performed through dip switch settings or preconfigured factory default settings.

  • Page 261: Electrical Specifications

    LEI card — line interface unit electrical characteristics Characteristics Framing Coding Signaling Distance to LTU lists the maximum power consumed by the card. Circuit Card page Description CRC-4 or FAS, only AMI or HDB3 Loop or ground start A/B robbed-bit 0-199.6 meters (0-655 feet)

  • Page 262: Environmental Specifications

    Power requirements Table 94 shows the voltage and maximum current that the LEI requires from the backplane. One NT8D06 IPE Power Supply AC or NT6D40 IPE Supply DC can supply power to a maximum of eight LEIs. Table 94 LEI card – power required Foreign and surge voltage protections In-circuit protection against power line crosses or lightning strikes is not provided on the LEI.

  • Page 263: Installation And Configuration

    The LEI contains two dip switches, each containing eight switch positions. They are located in the upper right corner Specifications –50° to + 70° C (–58° to 158° F), ambient 5% to 95% RH (non-condensing) page 284. Circuit Card Description and Installation...
  • Page 264 Figure 44 on settings for these switches are shown in Table 96 on Table 99 on When the LEI card is oriented as shown in Figure 44 on switches are ON when they are up, and OFF when they are down. The dip...
  • Page 265 E1 Coding The LEI is capable of interfacing with LTU equipment using either AMI or HDB3 coding. Make the selection for this dip switch position based on the type of coding the LTU equipment supports. Circuit Card Description and Installation...
  • Page 266 Figure 44 LEI card – E1 protocol dip switch locations R P17 U 81 553-3001-211 Standard 3.00 R P15 U 57 U 56 U 42 R P14 U 73 U 39 R P13 U 72 U 71 R P12 R P11 R P10 R P8 R P9...
  • Page 267 LEI card – Switch #1 dip switch settings (Part 1 of 2) Characteristic MMI port speed selection E1 signaling shows the dip switch settings for Switch #2. Switch Selection Position 1200 baud 2400 baud Ground start Loop start Circuit Card Switch Factory Setting Default Description and Installation...
  • Page 268 Table 96 LEI card – Switch #1 dip switch settings (Part 2 of 2) Characteristic IPE Shelf address for LEI Card type for ringer allocation E1 signaling When dip switch #1, positions 2 and 8 are set to “Table,” AB Bits are configured by the user through the Set Mode MMI command (see “Set Mode”...
  • Page 269 Table 98 LEI card – XPEC address dip switch settings (Switch S1, positions 3-6) XPEC S1 Switch Address Position 3 S1 Switch S1 Switch Position 4 Position 5 Circuit Card Description and Installation S1 Switch Position 6...
  • Page 270 When setting E1 Switch 2 dip switch settings, there are differences between vintages. For NT5D33AB or NT5D34AB cards, use Table 99. For NT5D33AC or NT5D34AC cards, use Table 99 on Table 99 LEI card – E1 Switch 2 (S2) dip switch settings Characteristic E1 framing E1 coding...

  • Page 271: Installation

    These restrictions depend on the type Switch Selection Position CRC-4 Disabled CRC-4 Enabled HDB3 leave ON leave ON LEI Mode ELEI Mode On-hook Off-hook Master Slave Circuit Card Switch Setting page 284 for details on this and the rest Description and Installation Factory Default...
  • Page 272 of module or cabinet. In all other modules or cabinets where the conditions listed below do not exist, the LEI will work in any two adjacent card slots: • In the NTAK12 Small Remote IPE Expansion Cabinet only card slots 10-15 are available.
  • Page 273 This will permit the connection of the NT5D35AA or NT5D36AA LEI card carrier and maintenance external I/O cable at the IPE and CE module I/O panel connector for card slots that are otherwise restricted. Circuit Card Description and Installation...
  • Page 274 MMI terminal (optional). The LEI is cabled from its backplane connector through connections from the motherboard circuit card only to the I/O panel on the rear of the IPE module. No cable connections are made from the daughterboard circuit card. The connections from the LEI to the I/O panel are made with the NT8D81AA Tip and Ring cables provided with the IPE module.
  • Page 275 E1 Tip, Receive data E1 Ring, Receive data E1 Tip, Transmit data E1 Ring, Transmit data Alarm out, normally open Alarm out, common Alarm out, normally closed No connection No connection Away from MMI terminal, receive data Circuit Card Description and Installation...
  • Page 276 Table 102 LEI card – LEI backplane and I/O panel pinouts (Part 2 of 2) Backplane connector pin Table 103 shows the pin assignments from the I/O panel relating to the pin assignments of the lineside E1 I/O cable. Table 103 LEI card –...
  • Page 277 LEI Cable Connector to External or Pin Equipment DB9 male toward MMI (P5). Wired as DCE. Data is transmitted on pin 2 (RXD) and received on pin 3 (TXD) DB9 female away from MMI terminal (P4) Circuit Card Description and Installation page 276.
  • Page 278 Page 278 of 906 NT5D33 and NT5D34 Lineside E1 Interface cards CPE at the far-end will likewise have transmit and receive wired straight from the RJ48 demarc at the far-end of the carrier facility. For 75 ohm coaxial installations, E1 signaling for all 30 channels is transmitted over P2 connector pins 1, 3, 9, and 11 though an adapter and out two coaxial connectors Tx (transmit) and Rx (receive).

  • Page 279: Procedure

    If two LEIs are too far apart to connect the “P4” and “P5” connectors connect them with an off-the-shelf DB9 female to DB9 male straight-through extension cable, available at any PC supply store. page 280. Cards can be located End of Procedure Circuit Card Description and Installation...
  • Page 280 Figure 45 LEI card – connecting two or more cards to the MMI Terminal configuration For the MMI terminal to be able to communicate to the LEI, the interface characteristics must be set to: • speed – 1200 or 2400 bps •...
  • Page 281 30 E1 channels. The motherboard circuit card is located in the left card slot, and the daughterboard circuit card is located in right card slot. For example, if installing the LEI into card slots 0 and 1, the motherboard would reside in card slot 0 and the daughterboard would reside in card slot 1.
  • Page 282 Table 104 Card unit number to E1 channel mapping (Part 2 of 3) Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard Daughterboard 553-3001-211 Standard 3.00 Item Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard Motherboard August 2005 E1 Channel Number...
  • Page 283 The LED will go out if either the motherboard or daughterboard is enabled by the software. If the LED continually flashes or remains weakly lit, replace the card. E1 Channel Number Circuit Card Description and Installation Page 283 of 906...

  • Page 284: Man-Machine E1 Maintenance Interface Software

    Man-Machine E1 maintenance interface software Description The Man-Machine Interface (MMI) provides E1-link diagnostics and historical information for the LEI system. See “Installation and Configuration” on configure the terminal for the MMI. The following sections will describe the options available through the LEI’s MMI terminal and will explain how to set-up, configure, and use the MMI.
  • Page 285 E1 Performance Counters and Reports The MMI maintains performance error counters for the following E1 conditions: • errored seconds • bursty seconds • unavailable seconds page 270. Circuit Card Description and Installation...
  • Page 286 • framer-slip seconds • loss-of-frame seconds The MMI retains E1 performance statistics for the current hour, and for each hour for the previous 24. For descriptions of these performance error counters and instructions on how to create a report on them and clear them, see “Performance counters and reporting”...
  • Page 287 USAGE: Set[Time | Date | Alarm | Clearing | Name Memory | Mode | Simple TEST USAGE: Test [Carrier All] QUIT USAGE: Quit Notation Used: CAPS - Required Letters [ ] - Optional | - Either/Or Circuit Card Description and Installation...
  • Page 288 Each of these commands can be executed by entering the first letter of the command or by entering the entire command. Commands with more than one word are entered by entering the first letter of the first word, a space, and the first letter of the second word or by entering the entire command.
  • Page 289 Set Time. Sets the time or verifies current time. Test. Initiates the E1 carrier test function. To terminate a test in-process, enter the STOP TEST command at any time. Circuit Card Description and Installation...
  • Page 290 Configuring parameters The MMI has been designed with default settings so that no configuration is necessary. However, it can be configured based on the call environment. Set Time Before beginning to configure the MMI, login to the system and verify the current time.
  • Page 291 Alarm threshold bit errors per second in power of 10 270. Threshold to set Allowable Duration alarm 2,000/ second 200/second 1-218 seconds 20/second 1-2148 seconds 2.0/second 1-3600 seconds 2.0/10 seconds 10-3600 seconds Circuit Card Description and Installation Periods 1-21 seconds...
  • Page 292 Table 106 E1 bit error rate threshold settings (Part 2 of 2) Alarm threshold bit errors per second in The duration value is set in seconds and can be set from 1 to 3,600 seconds (1 hour). This duration value indicates how long the alarm condition must last before an alarm will be declared.
  • Page 293 Sets the allowable bit errors per second before alarm level 1 is activated. Factory default is 6. AL1 Duration Sets the duration in seconds (from 1 to 3,600 seconds) that alarm level 1 is activated. Factory default is 10 seconds. Circuit Card Description and Installation...
  • Page 294 Table 107 Set alarm options Option AL2 Threshold AL2 Duration Frame Slip Threshold Frame Slip Duration Note: If the duration period set is too long, the LEI card is slow to return to service automatically even when the carrier is no longer experiencing errors.
  • Page 295 296. If the user selects default, then the A/B Bit values is reset to the Default values. Responding to the MMI’s Set Mode prompt with “1” also results in the line, “Signaling Bits set to Default,” as in Figure 49. Circuit Card Description and Installation...
  • Page 296 Figure 49 Set Mode (S M): <CR> screen LEI:>S M Default Table Hit <CR> to accept current value or type in a new one. Current Mode : 1 Signaling Bits set to Default. LEI:> However, responding to this prompt with 2 selects “Table” and allows the user to set the A/B Bit Mode to whatever configuration the user chooses.
  • Page 297 N e w : C u r r e n t : 0 1 0 1 C u r r e n t : 1 1 1 1 Circuit Card Description and Installation N e w : N e w :...
  • Page 298 Figure 51 Set Mode (S M): Table screen LEI:>S M 1) Default 2) Table Hit <CR> to accept current value or type in a new one. Current Mode : 1 Signaling Bits set to Table. Incoming and outgoing calls are in reference to the CPE. All ABCD bits are with respect to SENDing from LEI/M1 to CPE or RECEIVing from CPE to LEI/M1.
  • Page 299 This value can be set to N if it is not required such as in a loop start case. Outgoing call DIAL MAKE RECEIVE – This is the value that the LEI expects to see from the CPE during the make part of the digit. This value is required. Circuit Card Description and Installation...
  • Page 300 Page 300 of 906 NT5D33 and NT5D34 Lineside E1 Interface cards Outgoing call DIAL BREAK RECEIVE – This is the value that the LEI expects to see from the CPE during the break part of the digit. This value is required.
  • Page 301 The alarm is cleared if, after two 3/03/95 Self Clearing Enabled: Threshold duration (in Threshold duration (in Threshold duration (in hours) On Off Off On Off Off Off On On Off On Off Off Off On Off Circuit Card 1:50 Description and Installation...
  • Page 302 Page 302 of 906 NT5D33 and NT5D34 Lineside E1 Interface cards seconds, neither a loss of signal, out-of-frame condition, or blue alarm condition occurs. If a repeating device loses signal, it immediately begins sending an unframed signal of all ones to the far-end to indicate an alarm condition. This condition is called a blue alarm, or an Alarm Indication Signal (AIS).

  • Page 303: Clear Alarm Log

    When ready to see the next screen, press any key. The display shows one more screen, and stops again. This continues until the entire E1 link has been reported on. to appear. Circuit Card Description and Installation...
  • Page 304 Figure 54 Display Status (D S) screen Software Version 1.01 In alarm state: E1 link at alarm level 0 Port 0 off hook, Port 1 on hook, Port 2 on hook, Port 3 on hook, Port 4 on hook, Port 5 on hook, Port 6 off hook, Port 7 off hook, Port 8 off hook, Port 9 on hook, Port 10 on hook, Port 11 on hook, Port 12 off hook, Port 13 on hook, Port 14 on hook, Port 15 on hook, Port 16 on hook, Port 17 on hook, Port 18 off hook, Port 19 off hook,...
  • Page 305 The error counter indicates the number of errors since the error counter was cleared. LEI E1 Interface Performance Log 3/03/95 1:37 PM Unavailable Loss Frame Frame Slip Seconds Seconds 2263 2263 Circuit Card Error Seconds Counter Description and Installation...
  • Page 306 The Pause command can be used to display a full screen at a time, by entering D P P. If more than one screen is to be displayed, the MMI scrolls until the screen is full, then stops. When ready to see the next screen, press any key. The display shows one more screen, and stops again.
  • Page 307 Enter the T Test 1: Local Loopback Test Test 2: External Loopback Test Test 3: Network Loopback Test (1,2,3 or S to cancel): Hit Q to quit or any Key to Continue Circuit Card Description and Installation...
  • Page 308 Table 108 shows which test to run for the associated equipment. Table 108 MMI Tests Test number Test 1, local loopback, loops the E1 link signaling toward itself at the backplane connector. Test data is generated and received on all timeslots. If this test fails, it indicates that the LEI is defective.
  • Page 309 MMI Network loopback test System Common Equipment Line side External E-1 link network interface card Line side E-1 link interface card Circuit Card Customer premise E-1 link equipment (CPE) Customer External premise E-1 link network equipment (CPE) Description and Installation...

  • Page 310: Applications

    Applications The LEI is an IPE line card that provides cost-effective connection between E1-compatible IPE and a CS 1000S, CS 1000M, and Meridian 1 system or off-premise extensions over long distances. Some examples of applications where an LEI can be interfaced to an E1 link are: •...
  • Page 311 Norstar system. See Figure 64 on banks are not required if the Norstar system is equipped with an E1 interface. Note: Consider LEI audio levels when determining the appropriateness of an application. page 312. In this case, channel Circuit Card Description and Installation...
  • Page 312 Figure 64 LEI connection to Norstar system 553-3001-211 Standard 3.00 Public network August 2005 Norstar...

  • Page 313: Nt5D60/80 Class Modem Card (Xcmc)

    Features and Services (553-3001-306). For administration and maintenance commands, see the Software Input/Output: Administration (553-3001-311). Physical description CLASS Modem cards are housed in NT8D37 IPE modules. Page 313 of 906 Circuit Card Description and Installation...

  • Page 314: Functional Description

    The CLASS modem card circuitry is mounted on a 31.75 cm by 25.40 cm (12.5 in. by 10 in.) double-sided printed circuit board. The card connects to the backplane through a 160-pin edge connector. The faceplate of the CLASS modem card is equipped with a red LED that lights when the card is disabled.
  • Page 315 CLASS modem card. Table 109 Time slot mapping (Part 1 of 2) XCMC mapping of TNs DS30X timeslot Modem units on the CLASS Modem card module 0, 00 module 1, 00 Circuit Card Description and Installation...
  • Page 316 Table 109 Time slot mapping (Part 2 of 2) 553-3001-211 Standard 3.00 XCMC mapping of TNs DS30X timeslot August 2005 Modem units on the CLASS Modem card module 2, 00 module 3, 00...

  • Page 317: Electrical Specifications

    1200 ± 12 baud Specifications 0° C to +65° C (+32 ° F to +149 ° F) 5 to 95% RH (non-condensing) –50° C to +70° C (–58 ° F to +158 ° F) Circuit Card Description and Installation 1% supply ±...

  • Page 318: Configuration

    Configuration The NT5D60/80 CLASS Modem card has no user-configurable jumpers or switches. The card derives its address from its position in the backplane and reports that information back to the CS 1000S, CS 1000M, and Meridian 1 CPU through the Card LAN interface. Software service changes On systems equipped with either CNUMB (package 332) or CNAME (package 333), up to 255 CLASS Modem (CMOD) units can be configured...

  • Page 319: Nt5D97 Dual-Port Dti2/Pri2 Card

    Multi-purpose Serial Data Link card, and an optional plug-on NTBK51AA Downloadable D-Channel daughterboard (DDCH) with two DCH interface ports. The NT5D97 DDP2 card can be mixed in the same machine with PRI2 NT8D72BA cards. Page 319 of 906 Circuit Card Description and Installation...

  • Page 320: Physical Description

    The NT5D97 DDP2 card hardware design uses a B57 ASIC E1/T1 framer. The carrier specifications comply with the ANSI TI.403 specification. The NT5D97 provides an interface to the 2.048 Mbps external digital line either directly or through an office repeater, Network Channel Terminating Equipment (NCTE), or Line Terminating Unit (LTU).
  • Page 321 PRI2 link is not in OOS or Local Alarm mode state PRI2 link is not transmitting a Remote Alarm pattern PRI2 link is not receiving a Remote Alarm Indication from a remote facility All other conditions illustrates the faceplate layout for the NT5D97 DDP Circuit Card Description and Installation...
  • Page 322 Figure 65 NT5D97 faceplate D-Channel LED Trunk Disable LED Trunk Out of Service LED Near End Alarm LED Far End Alarm LED Loop Back LED Recovered Clock0#1 Recovered Clock0#2 Recovered Clock1#1 Recovered Clock1#2 Trunk0 / Trunk1 External DCHI/MSDL 553-3001-211 Standard 3.00 ENET LED August 2005 553-7380...
  • Page 323 Trunk is out of service 2 Yellow LEDs Local (Near End) Alarm 2 Yellow LEDs Far End Alarm 2 Yellow LEDs Loop Back test being performed on Trunk 0 or Trunk 1 Bicolor Red/Green LED NTBK51AA status Circuit Card Description and Installation...
  • Page 324 The following sections provide a brief description of each element on the faceplate. Enable/Disable Switch This switch is used to disable the card prior to insertion or removal from the network shelf. While this switch is in disable position, the card will not respond to the system CPU.
  • Page 325 Digital trunk unit 0 receive and transmit Tip / Ring pairs. • Digital trunk unit 1 receive and transmit Tip / Ring pairs. Connector J6 (DCH) A 26 pin D-type connector is used to connect the DDP2 card to the external MSDL or D-channel handler. Circuit Card Description and Installation...

  • Page 326: Port Definitions

    Port definitions Since the NT5D97 card is dual-card, it equips two ports; these ports can be defined in the following combinations: Table 114 NT5D97AA/AB loops configuration Table 115 NT5D97AD loops configuration Note: Each loop DPNSS can be defined in Normal or Extended addressing mode.
  • Page 327 CPU. The DDP2 replaces an ENET card and two DTI2/PRI2 cards. Emulating the ENET card and the overall CPU capacity is not impacted by using a DDP2 card instead of a DTI2/PRI2 card. Circuit Card Description and Installation...

  • Page 328: Cable Requirements

    Power requirements Table 116 lists the power requirements for the NT5D97 DDP2 card. Table 116 NT5D97 DDP2 power requirements Voltage +12V -12V Total Power (Maximum) Cable requirements This section lists the types of cable used and the lengths required for internal and external NT5D97 DDP2 connections.
  • Page 329 The NTCK45AA (8 ft.) is an 120Ω cable for systems equipped with an I/O filter panel, connecting the TRK port (P1, D-type 9 pin male) on the DDP2 faceplate to the I/O filter (P2, P3 D-type 9 pin males). Circuit Card Description and Installation...
  • Page 330 Figure 66 NTCK45AA Table 117 which follows lists the pin attributes for the NTCK45AA cable. Table 117 NTCK45AA cable pins (Part 1 of 2) Cable Name T-PRI0TX R-PRI0TX T-PRI0RX R-PRI0RX T-PRI1TX R-PRI1TX T-PRI1RX R-PRI1RX 553-3001-211 Standard 3.00 D-type 9 pin, males Description Color Trunk 0 Transmit Tip...
  • Page 331 Standard Wire (3”) Bare Description Color Trunk 0 Transmit Tip Black Trunk 0 Transmit Ring White Trunk 0 Receive Tip Black Trunk 0 Receive Ring Circuit Card DDP2 I/O Panel pins pins Case P3 Case P3 P3-5 Case P3 P3-9 Multiplexer Trunk...
  • Page 332 Table 118 NT8D7217 cable pins (Part 2 of 2) Cable Name T-PRI1TX R-PRI1TX T-PRI1RX R-PRI1RX NTCK78AA (A0618294) The NTCK78AA (50 ft.) is an 120Ω cable for connecting the TRK port on the DDP2 faceplate (P1, D-type 9 pin male) to the Main Distribution Frame (MDF) (P2, P3 D-type 15 pin males).
  • Page 333 Trunk 1 Transmit Tip Black Trunk 1 Transmit Ring Trunk 1 Receive Tip Black Trunk 1 Receive Ring White GND Shield Wire Bare GND Shield Wire Bare Circuit Card DDP2 pins NCTE pins P1-1 P2-1 P1-2 P2-9 P1-3 P2-3 P1-4...
  • Page 334 Figure 69 NTCK79AA Table 120 lists the pin attributes for the NTCK79AA cable. Table 120 NTCK79AA cable pins (Part 1 of 2) Cable Name T-PRI0TX R-PRI0TX T-PRI0RX R-PRI0RX T-PRI1TX R-PRI1TX T-PRI1RX R-PRI1RX 553-3001-211 Standard 3.00 D-type 9 pin, male Description Color Trunk 0 Transmit Tip Trunk 0 Transmit Ring...
  • Page 335 Connector P1 - 4 pin, male, RJ11 (DDP2 faceplate) Connector P2 - 9 pin, male, D-type (Clock Controller) Note: Includes an RJ11Ö9 pin D-type adaptor. DDP2 Color pins NCTE pins Bare P1 Case Bare P1 Case Circuit Card Description and Installation 553-7384...
  • Page 336 • NTCK46AC (35 ft.) - DDP2 to DCH cable • NTCK46AD (50 ft.) - DDP2 to DCH cable Figure 71 NTCK46AA/AB/AC/AD External MSDL cable The NTCK80 cable connects the DDP2 card to the NT6D80 MSDL card. The cable is available in four different sizes: •...

  • Page 337: Cable Diagrams

    Note: Since several clock cabling options exists, none has been represented in the diagrams. Refer to “Clock configurations” on page 356 for a description on each available option. and Figure 74 on page 339 provide examples of Circuit Card Description and Installation...
  • Page 338 Figure 73 DDP2 cable for systems with an I/O panel Switch LED's clk0 Port 0 clk1 clk0 Port 1 clk1 Trunk NTCK78AA/NTCK79AA cable Note: for possible clock cabling options, refer to the "Clocking configurations" chapter 553-3001-211 Standard 3.00 NCTE (MDF or LTU) NTCK80 cable to MSDL or NTCK48 cable to DCHI August 2005...
  • Page 339 Trunk NTCG03 cables NTCK78AA/NTCK79AA cable NTCK80 cable to MSDL or NTCK48 cable to DCHI Note: for possible clock cabling options, refer to the "Clocking configurations" chapter Circuit Card Clock Controllers NCTE (MDF or LTU) NT6D80 MSDL or NT6D11AF/NT5K75AA/ NT5K35AA DCHI...

  • Page 340: Functional Description

    Functional description NT5D97 circuit card locations Each NT5D97 card requires one slot on a shelf. NT5D97 cards can be placed in any card slot in the network bus. Note in all cases - If an NT8D72BA/NTCK43 card is being replaced by a DDP2 card, the D-channel Handler can be reconnected to the DDP2 card, or removed if an onboard NTBK51DDCH card is used.
  • Page 341 DIP switch settings for NT5D97AA/AB (Part 2 of 2) LBO Setting Receiver Interface General Purpose The following parameters are set by DIP switches. The boldface font shows the factory set-up. Trunks Card 0 and 1 Port 0 Circuit Card Port 1 Trunk 0 Trunk 1 Description and Installation...

  • Page 342: Standard 3.00 August

    Page 342 of 906 NT5D97 Dual-port DTI2/PRI2 card Figure 75 Dip switches for NT5D97AA/AB 553-3001-211 Standard 3.00 August 2005...
  • Page 343 Refer to Table 124 on S9/S15 Switch Setting OFF - 120 ohm ON - 75 ohm OFF - Loop operates in the DTI2 mode ON - Loop operates in the PRI2 mode S4/S10 switch settings page 344. Circuit Card Description and Installation...
  • Page 344 Note: Do not change this setup. Table 124 Trunk interface line build out switch settings Description Receiver impedance A per-trunk set of four DIP switches (S8/S14 provides selection between 75 or 120 ohm values. Refer to Table 125. Table 125 Trunk interface impedance switch settings Description 75 ohm...
  • Page 345 D-channel daughterboard address For future use Switch Setting S2 switch settingS OFF-Ring line is not grounded ON- Ring line is grounded OFF-Ring line is not grounded ON- Ring line is grounded S3 switch setting See Table 128 Circuit Card Description and Installation...
  • Page 346 Table 128 NTBK51AA daughterboard address select switch settings (Part 2 of 2) Device Address Note 1: The system contains a maximum number of 16 DCHI, MSDL, and DDCH devices. The Device Addresses are equivalent to the MSDL DNUM designations. Note 2: Device address 0 is commonly assigned to the System TTYD Monitor. 553-3001-211 Standard 3.00 Switch Setting...
  • Page 347 Refer to DIP switch locations in Figure 76 on The following parameters are set by DIP switches. The boldface font shows the factory set-up. Trunks Card 0 and 1 Port 0 Circuit Card Port 1 Trunk 0 Trunk 1 page 348. Description and Installation...
  • Page 348 Figure 76 Dip switches locations for NT5D97AD NT5D97AD 1 2 3 4 5 6 7 8 9 10 1 2 3 4 5 6 7 8 9 10 1 2 3 4 1 2 3 4 S1 1 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4...
  • Page 349 LBO switches for NT5D97AD LBO setting 7.5dB 15dB S9/S15 Switch Setting OFF - 120 ohm ON - 75 ohm OFF - Unit operates in the DTI2 mode ON - Unit operates in the PRI2 mode Circuit Card Description and Installation...
  • Page 350 Switch S6 selects the Receiver interface. Table 133 Receiver interface switches for NT5D97AD Impedance 75 ohm 120 οhm Trunk 1 switches for NT5D97AD Table 134 Trunk 1 switches Switch S13, S14 & S15 Ring ground switches for NT5D97AD Switch S16 selects which ring lines connect to ground. When set to ON, the ring line is grounded.
  • Page 351 OFF position. Table 136 NTBK51AA DCH switches for NT5D97AD Switch number S9_1-4 S9_5-8 S9_9 S9_10 Function DCH daughter card address Set to OFF Set to ON (NTBK51AA Mode) Set to ON (NTBK51AA Mode) Circuit Card Description and Installation...
  • Page 352 MSDL external card Table 137 Switch settings for MSDL external card Switch number S9_1-10 S8_1-10 Use Table 138 to set the card address. Table 138 Switch setting for MSDL external card (Part 1 of 2) DNUM (LD 17) 553-3001-211 Standard 3.00 Switch Setting August 2005 Function...

  • Page 353: Architecture

    • no loop is defined as the primary or secondary clock reference, • the primary and secondary references are disabled, or • the primary and secondary references are in local (near end) alarm Switch Setting Circuit Card Description and Installation...
  • Page 354 Figure 77 Clock Controller primary and secondary tracking Primary REF 1 clocking Primary source Reference REF 2 Secondary REF 1 clocking Secondary source Reference REF 2 Reference clock errors CS 1000 Release 4.5 software checks at intervals of 1 to 15 minutes to see if a clock controller or reference-clock error has occurred.
  • Page 355 Note: If the system is put into free-run mode by the craftsperson, it resumes tracking on a reference clock unless the clock-switching option is disabled (LD 60, command MREF), or the reference clock is “undefined” in the database. Circuit Card Description and Installation...
  • Page 356 Automatic clock switching If the EREF command is selected in LD 60, tracking on the primary or secondary reference clock is automatically switched in the following manner: • If software is unable to track on the assigned primary reference clock, it switches to the secondary reference clock and sends appropriate DTC maintenance messages.
  • Page 357 Ref from P0 on Clk1 Ref from P1 on Clk0 Ref from P1 on Clk1 Ref from P0 on Clk0 Ref from P0 on Clk1 Ref from P1 on Clk0 Ref from P1 on Clk1 Circuit Card Description and Installation explains...
  • Page 358 Table 140 Clock Controller options - description Clock Option Option 1 Option 2 Option 3 Option 4 553-3001-211 Standard 3.00 Notes This option provides a single CPU system with 2 clock sources derived from the 2 ports of the DDP2. Connector Clk0 provides a clock source from Unit 0.

  • Page 359: Operation

    The following discussion describes possible scenarios when replacing a digital trunk NT8D72BA PRI2 card or QPC536E DTI2 card or NTCK43 Dual PRI card configuration with a NT5D97 DDP2 card configuration. Primary Primary Secondary Secondary Circuit Card Clock Controller 0 Clock Controller Backup Clock Controller 1...
  • Page 360 Figure 79 Clock Controller – Option 2 DDP2 Primary Reference Port 0 Port 1 DDP2 Secondary Reference Port 0 Port 1 An NT8D72BA may be configured as an alternate to DDP2 553-3001-211 Standard 3.00 Primary Ref 1 clk 0 Primary Ref 2 clk 1 Clk0 Clk1...
  • Page 361 Secondary Ref 1 Clk0 Secondary Ref 2 Clk1 J1 Ref 1 NT8D72BA J2 Ref 2 Both references from port 1 Circuit Card Clock Controller for CPU 0 J1 Sec. J2 Prim. Secondary Ref 1 Clock Controller for CPU 1 J1 Sec.
  • Page 362 Figure 81 Clock Controller – Option 4 DDP2 Primary Reference Port 0 Secondary Reference Port 1 Both references from both ports Case 1 - The two ports of a QPC414 network card are connected to two digital trunks. In this case, the QPC414 and the two digital trunks are replaced by a single DDP2 card, which is plugged into the network shelf in the QPC414 slot.

  • Page 363: Procedure

    Install NT5D97 card in the assigned shelf and slot. Set the ENB/DIS faceplate switch to ON. If the DDCH is installed, the DDCH LED should flash three times. If required, install the I/O adapters in the I/O panel. page 340. Circuit Card Description and Installation...

  • Page 364: Removing The Nt5D97

    Run and connect the NT5D97 cables. If required, install connecting blocks at the MDF or wall mounted cross-connect terminal. 10 If required, designate connecting blocks at the MDF or wall mounted cross-connect terminal. 11 If required, install a Network Channel Terminating Equipment (NCTE). or Line Terminating Unit (LTU).
  • Page 365 ENB/DIS must be in the OFF (DIS) position before the card is removed, otherwise the system will initialize. Pack and store the NT5D97 card and circuit card. Configuring the NT5D97 After the NT5D97 DDP2 is installed, configure the system using the same procedures as the standard NT8D72BA PRI2.

  • Page 366: Testability And Diagnostics

    • Port 0 of the NTBK51AA can only be defined to work with Loop 0 of the NT5D97 DDP2 card, and Port 1 of the NTBK51AA can only be defined to work with Loop 1 of the NT5D97. This relationship must be reflected when configuring a new DCH in LD 17 (in response to the DCHL prompt, enter either 0 or 1 when specifying the loop number used by the DCH).

  • Page 367: Nt5K02 Flexible Analog Line Card

    Analog Line card are supported in each MG 1000S Expansion. The NT5K02 Flexible Analog Line card performs several functions, including: • flexible transmission • ground button operation • low-voltage Message Waiting option • card self-ID for auto-configuration Page 367 of 906 Circuit Card Description and Installation...

  • Page 368: Applications

    Applications The NT5K02 Flexible Analog Line card can be used for the following applications: • NT5K02AA high-voltage Message Waiting analog line card typically used in Australia • NT5K02DA ground button, low-voltage Message Waiting, analog line card typically used in France •...

  • Page 369: Nt5K21 Xmfc/Mfe Card

    You can install this card in any IPE slot. MFC signaling The MFC feature allows the system to use the CCITT MFC R2 or L1 signaling protocols. Page 369 of 906 Circuit Card Description and Installation...

  • Page 370: Signaling Levels

    Signaling levels MFC signaling uses pairs of frequencies to represent digits, and is divided into two levels: • Level 1: used when a call is first established and may be used to send the dialed digits. • Level 2: used after Level 1 signaling is completed and may contain such information as the status, capabilities, or classifications of both calling parties.
  • Page 371 1140 Hz + 660 Hz 1020 Hz + 660 Hz 900 Hz + 660 Hz 780 Hz + 660 Hz 1140 Hz + 540 Hz 1020 Hz + 540 Hz 900 Hz + 540 Hz Circuit Card Description and Installation...

  • Page 372: Mfe Signaling

    Table 141 MFC Frequency values (Part 2 of 2) Forward direction Digit 1740 Hz + 1980 Hz 1860 Hz + 1980 Hz The exact meaning of each MFC signal number (1-15) within each level can be programmed separately for each trunk route using MFC. This programming can be done by the customer and allows users to suit the needs of each MFC-equipped trunk route.

  • Page 373: Sender And Receiver Mode

    CPU and the trunk circuit which uses MFC or MFE signaling. The XMFC/MFE circuit card transmits and receives forward and backward signals simultaneously on two channels. Each channel is programmed like a peripheral circuit card unit, with its own sending and receiving timeslots in the network. Receive mode When in receive mode, the XMFC/MFE card is linked to the trunk card by a PCM speech path over the network cards.

  • Page 374: Xmfc Sender And Receiver Specifications

    XMFC sender and receiver specifications Table 143 and Table 144 provide the operating requirements for the NT5K21 XMFC/MFE card. These specifications conform to CCITT R2 recommendations: Q.441, Q.442, Q.451, Q.454, and Q.455. Table 143 XMFC sender specifications Forward frequencies in DOD mode: Backward frequencies in DOD mode: Frequency tolerance: Power level at each frequency:...

  • Page 375: Xmfe Sender And Receiver Specifications

    700, 900, 1100, 1300, 1500 Hz 1900 Hz +/- 0.25% from nominal Selectable: 1 of 16 levels +/- 1.0 dB 35 dB below level of 1 signaling frequency 125 usec. 125 usec. Circuit Card Description and Installation...

  • Page 376: Physical Specifications

    < 8 msec. Combination of valid frequencies < 15 msec.Control Frequency only S/N > 18 dBNo degradation in-band white noise Height:12.5 in. (320 mm) Depth:10.0 in. (255 mm) Thickness:7/8 in. (22.25 mm) Lit when the circuit card is disabled August 2005...
  • Page 377 Table 147 Physical specifications (Part 2 of 2) Cabinet Location Power requirements Environmental considerations Must be placed in the main cabinet (Slots 1-10) 1.1 Amps typical Meets the environment of Circuit Card system Description and Installation...
  • Page 378 Page 378 of 906 NT5K21 XMFC/MFE card 553-3001-211 Standard 3.00 August 2005...

  • Page 379: Nt6D70 Silc Line Card

    ISDN BRI consists of two 64Kb/s Bearer (B) channels and one 16Kb/s Data (D) channel. The BRI interface is referred to as a 2B+D connection as well as a Digital Subscriber Loop (DSL). Page 379 of 906 Circuit Card Description and Installation...

  • Page 380: Physical Description

    DSL to offer equipment flexibility and reduce line, wiring, and installation costs. Physical description The NT6D70 SILC card is a standard-size circuit card. Its faceplate is equipped with an LED to indicate its status. Power consumption Power consumption is +5 V at 800 mA and –48 V at 480 mA.

  • Page 381: Micro Controller Unit (Mcu)

    SILC. It has internal memory, a reset and sanity timer, and a serial control interface. The memory consists of 32 K of EPROM which contains the SILC operating program and 8 K of RAM used to store interface selection and other functions connected with call activities. Circuit Card Description and Installation...

  • Page 382: Ipe Interface Logic

    The reset and sanity timer logic resets the MCU. The serial control interface is an IPE bus used by the MPU to communicate with the S/T transceivers. IPE interface logic The IPE interface logic consists of a Card-LAN interface, an IPE bus interface, a maintenance signaling channel interface, a digital pad, and a clock controller and converter.
  • Page 383 DSL. It provides -48 V for ANSI-compliant ISDN BRI terminals and –40 V for CCITT (such as ETSI NET-3, INS NET-64) compliant terminals. The total power used by the terminals on each DSL must not exceed two watts. Circuit Card Description and Installation...
  • Page 384 Page 384 of 906 NT6D70 SILC Line card 553-3001-211 Standard 3.00 August 2005...

  • Page 385: Nt6D71 Uilc Line Card

    Note: A maximum of four UILCs are supported in an MG 1000S. A maximum of four UILCs are supported in an MG 1000S Expansion. Physical description The NT6D71 UILC is a standard-size circuit card. Its faceplate is equipped with an LED to indicate its status. Page 385 of 906...

  • Page 386: Functional Description

    Power consumption Power consumption is +5 V at 1900 mA. Functional description Each U interface provides two B-channels and one D-channel and supports one physical termination. This termination can be to a Network Termination (NT1) or directly to a single U interface terminal. Usually, this physical termination is to an NT1, which provides an S/T interface that supports up to eight physical terminal connections.

  • Page 387: U Interface Logic

    DSL. The U interface supports voice and data terminals, D-channel packet data terminals, and NT1s. A UILC has eight transceivers to support eight DSLs for point-to-point operation. Circuit Card Description and Installation...
  • Page 388 Page 388 of 906 NT6D71 UILC Line card 553-3001-211 Standard 3.00 August 2005...

  • Page 389: Nt6D80 Msdl Card

    An MSDL card occupies one network card slot in Large System Networks, or Core Network modules and communicates with the CPU over the CPU bus and with I/O equipment over its serial ports. It can coexist with other cards Page 389 of 906 Circuit Card Description and Installation...

  • Page 390: Physical Description

    64 ports. Physical description The MSDL card is a standard size circuit card that occupies one network card slot and plugs into the module’s backplane connector to interface with the CPU bus and to connect to the module’s power supply. On the faceplate, the MSDL provides five connectors, four to connect to I/O operations and one to connect to a monitor device that monitors MSDL functions.
  • Page 391 Figure 82 MSDL component layout Port 0 Port 1 Port 2 Port 3 Monitor Port Card Address Switches Tens S9 S10 Circuit Card Description and Installation Ones 553-5431...

  • Page 392: Functional Description

    Functional description Figure 83 on MSDL card is divided into four major functional blocks: • CPU bus interface • Micro Processing Unit (MPU) • Memory • Serial interface Two processing units serve as the foundation for the MSDL operation: the Central Processing Unit (CPU) and the MSDL Micro Processing Unit (MPU).
  • Page 393 Micro Processing Unit (68020 MPU) Integrated Serial Communication Controllers RS-232/422 RS-232/422 RS-232/422 Transceiver Transceiver Transceiver Port 0 Port 1 Circuit Card Address Bus Control Bus Data Bus Shared Memory Address Bus Control Bus Data Bus RS-232/422 Transceiver Port 2 Port 3...

  • Page 394: Serial Interface

    Micro Processing Unit (MPU) The MPU, which is based on a Motorola 68020 processor, coordinates and controls data transfer and port addressing, communicating via the CPU bus with the system. Prioritized interrupts tell the MPU which tasks to perform. Memory The MSDL card contains two megabytes of Random Access Memory (RAM) for storing downloaded peripheral software that controls MSDL port operations.
  • Page 395 The CPU checks to see if downloading is required. After downloading the peripheral software, the system enables the MSDL. MSDL applications (DCH, AML, SDI) may be brought up if appropriately configured. shows the system architecture using the MSDL as an Circuit Card Description and Installation...
  • Page 396 Figure 84 MSDL functional block diagram System software MSDL software modules Boot Code & Loader Modules Port 0 Meridian Link 553-3001-211 Standard 3.00 Application D-Channel Module Link System System AML Handler DCH Handler MSDL Handler System Interface Module DCH Loadware AML Loadware Physical Layer (Layer 1) Handler Port 1...

  • Page 397: Engineering Guidelines

    Some of these network card slots are normally occupied by Network cards, Superloop Network cards, Conference/TDS, and others, leaving a limited number of unused slots for MSDL and other cards. Circuit Card Description and Installation...

  • Page 398: Address Decoding

    Card mix A system that exclusively uses MSDL cards can support up to 16 such cards, providing 64 ports. These ports can be used to run various synchronous and asynchronous operations simultaneously. The system will also support a mix of interface cards (MSDL, DCHI, and ESDI for example).
  • Page 399 8 bits no parity Data rate 0.3, 0.6, (1.2), 2.4, 4.8, 9.6, 19.2, and 38.4 kbps Stop bits 1 (default), 1.5, 2 Transmission Full Duplex Interface RS-232 Configured Software Software Software Switches Switches Configured Software Software Software Software Circuit Card Description and Installation...
  • Page 400 Table 149 Asynchronous interface specifications (Part 2 of 2) Parameter Mode Emulation mode Each port can be configured to emulate a DCE port or a DTE port by setting the appropriate switches on the MSDL. For details on how to set the switches, refer to “Installation” on DCE is a master or controlling device that is usually the source of information to the DTE and may provide the clock in a synchronous transmission linking a DCE to a DTE.
  • Page 401 Test Mode (TM) Table 151 on page 402 lists RS-422 interface specifications for EIA circuits. It shows the connector pin number, the associated signal name, and the CCITT circuit circuit 108.2 CH/CI 111/112 Circuit Card Description and Installation — —...

  • Page 402: Implementation Guidelines

    supported circuit type. It also indicates whether the signal originates at the DTE or DCE device. Table 151 RS-422 interface pin assignments Implementation guidelines The following are guidelines for engineering and managing MSDL cards: • An MSDL can be installed in any empty network card slot. 553-3001-211 Standard 3.00 Signal Name...

  • Page 403: Environmental And Power Requirements

    The temperature differential in the room should not exceed ±3°C (±5°F). Environmental specifications 0° to 50° C (32° to 122° F) 5% to 95% non-condensing 3,048 meters (10,000 feet) maximum –50° to 70° C (–58° to 158° F) 5% to 95% non-condensing Circuit Card Description and Installation...

  • Page 404: Installation

    The internal power supply in each module provides DC power for the MSDL and other cards. Power consumption and heat dissipation for the MSDL is listed in Table 153. Table 153 MSDL power consumption Voltage Installation Device number Before installing MSDL cards, determine which of the devices in the system are available.
  • Page 405 Your system settings may differ. Table 154 MSDL interface switch settings switch switch Interface RS-232 RS-422 DTE RS-422 DCE Comment DTE/DCE is software configured All switches configured All switches configured Not allowed Circuit Card Description and Installation...
  • Page 406 Figure 85 MSDL switch setting example Care Locking Device Port 0 Port 1 Port 2 Port 3 Monitor Port 553-3001-211 Standard 3.00 Setting for an RS-232 interface DTE/DCE are software configured Setting for an RS-422 DTE interface Setting for an RS-422 DCE interface Setting for an RS-232 interface DTE/DCE are software configured I/O Port Interface Configuration DIP Switches...

  • Page 407: Installing The Msdl Card

    11 After 10 minutes unplug the card and reinsert it. If the card still does not flash three times, the card is defective and must be replaced. End of Procedure Circuit Card Description and Installation...
  • Page 408 Cable requirements The MSDL card includes four high-density 26-pin (SCSI II) female connectors for ports and one 8-pin miniature DIN connector for the monitor port. See Figure 86 on configuration. A D-Channel on the MSDL requires a connection from the appropriate MSDL port connector to the DCH connector located on the ISDN PRI trunk faceplate.
  • Page 409 (NTND27AB—6 ft.) ISL/PRI NTND25AA—6 ft. NTND26AB—18 ft. NTND26AC—35 ft. NTND26AD—50 ft. RS-232 shielded (QCAD328— 35 ft. max.) panel NTND27 APL applications (RS-232 cable) SDI to terminal cable Circuit Card panel 553-5845 PRI to I/O panel cable (NTND98AA) Description and Installation...

  • Page 410: Cabling The Msdl Card To The Pri Card

    Note: The choices of cable to use with an MSDL card depend on what type of modem is connected. For example, the NTND27 cable is used when the modem has a DB25 connection. If the modem is v.35, a customized or external vendor cable is required. Table 155 Cable types AML, ISL, SDI...

  • Page 411: Cabling The Msdl Card To The I/O Panel

    Plug the DB25 male connector end of a cable into a DB25 female connector at the back of the I/O panel. Secure cable connectors in place with their fasteners. Repeat steps 1 through 5 for each connection. End of Procedure End of Procedure Circuit Card Description and Installation...
  • Page 412 MSDL planning form Use the following planning form to help sort and store information concerning the MSDL cards in your system as shown in the sample. Record switch settings for unequipped ports as well as for equipped ports. Device no. Shelf Date installed Last update Ports...

  • Page 413: Maintenance

    The following sections describe the relationships between these states. Manually disabled In this state, the MSDL is not active. The system does not attempt to communicate or attempt any automatic maintenance on the MSDL. page 414 shows MSDL states and Circuit Card Description and Installation...
  • Page 414 Page 414 of 906 NT6D80 MSDL card Figure 87 MSDL states Manually disabled Enabled System disabled 553-5435 A newly configured MSDL automatically enters the manually disabled state. An operating MSDL can be manually disabled by issuing the DIS MSDL x command in LD 37 (step 1 in Figure 87).
  • Page 415 Reset Threshold The system detected more than four resets within 10 minutes. • Fatal Error The MSDL card encountered a fatal condition from which it cannot recover. DIS MSDL x 414). Otherwise, the system periodically tries Circuit Card Description and Installation page 414), to disable...
  • Page 416 • Recovery Threshold The MSDL card was successfully enabled by the MSDL autorecovery function five times within 30 minutes. Each time it was system disabled because of a problem encountered during operation. • Bootloading The MSDL base software is in the process of being downloaded to the MSDL.
  • Page 417 MSDL. ” in the commands below represents the DNUM value of to enable the MSDL manually. If the MSDL base code Circuit Card ENL MSDL x FDL . This ENL MSDL x ALL...
  • Page 418 Page 418 of 906 NT6D80 MSDL card Disabling the MSDL To disable an MSDL card, enter DIS MSDL x To disable the MSDL and all its ports, enter DIS MSDL x ALL Resetting the MSDL To reset an MSDL and initiate a limited self-test, the MSDL must be in a manually disabled state.
  • Page 419 5 minutes, then remove and reinsert. If the LED still does not flash three times, the card is faulty. page 422 for more information on problem page 419 or “Previously operating MSDL 420. Circuit Card Description and Installation...
  • Page 420 Previously operating MSDL cards Problems that occur during normal operation usually result from faulty cards. Follow these steps to evaluate the situation: Use the “Displaying MSDL status” on If the card has been manually disabled, try to enable it using ENL MSDL x perform self-testing as described in step 4.

  • Page 421: Replacing Msdl Cards

    MSDL is functioning correctly. Since self-tests were not invoked, no result message appears. 12 Tag the defective card(s) with a description of the problem and return them to your Nortel representative. End of Procedure Circuit Card Description and Installation...

  • Page 422: Symptoms And Actions

    Symptoms and actions Explained here are some of the symptoms, diagnoses, and actions required to resolve MSDL card problems. Contact your Nortel representative for further assistance. These explain the causes of problems and the actions needed to return the card to an enabled state following installation or operational problems.

  • Page 423: System Disabled Actions

    Wait until self-tests are completed. Under some circumstances, the self-tests may take up to 6 minutes to complete. Take the action described in the appropriate section below (“SYSTEM DISABLED—SELF-TESTS PASSED” or “SYSTEM DISABLED—SELF-TESTS FAILED”). The MSDL card passed self-tests. The system will automatically Circuit Card Description and Installation...
  • Page 424 using autorecovery. If a diagnostic program (overlay) is active, the downloading of the MSDL base code occurs later. Action SYSTEM DISABLED—SELF-TESTS FAILED Cause: unsuccessful, autorecovery stops until midnight unless you take action. Action SYSTEM DISABLED—SRAM TESTS FAILED Cause: write tests to the shared RAM on the MSDL and detected a fault. The shared RAM test will be repeated five times, and, if unsuccessful, autorecovery will not resume until midnight unless you take action.
  • Page 425 Place the card in the manually disabled state with the command and follow the steps in “Previously operating MSDL cards” on page 420. page 416. If the problem persists, place DIS MSDL x Circuit Card Description and Installation command DIS MSDL x...
  • Page 426 SYSTEM DISABLED—FATAL ERROR Cause: The exact reason for the fatal error is shown in the MSDL300 error message output to the console of TTY when the error occurred. Action: SYSTEM DISABLED—RECOVERY THRESHOLD Cause: five times within 30 minutes and each time the card was disabled again. The system attempts to enable the card again at midnight unless you intervene.

  • Page 427: Nt7D16 Data Access Card

    Upgrading systems ........Page 427 of 906 Circuit Card Description and Installation...

  • Page 428: Introduction

    Introduction The NT7D16 Data Access card (DAC) is a data interface card that integrates the functionality of the QPC723A RS-232 4-Port Interface Line card (RILC) and the QPC430 Asynchronous Interface Line card (AILC). This combination allows the NT7D16 DAC to work with the RS-232-C interface, the RS-422 interface, or both.

  • Page 429: Controls And Indicators

    This lamp lights to indicate that a data call is established for the port displayed. A data call is connected when the data module-to-data module protocol messages are successfully exchanged between the two ends. page 431 shows the NT7D16 DAC faceplate. Circuit Card Description and Installation...

  • Page 430: Port Mode

    Port mode This lamp lights to indicate that the port indicated is in RS-422 mode. If the lamp is dark, the specified port is in RS-232-C mode. Port number The number displayed specifies the port driving the EIA signal LEDs mentioned above.
  • Page 431 Figure 88 NT7D16 Data Access card faceplate card status EIA signal monitor LEDs CONNECT Port mode Port number Port select Wire test CONNECT RS-422 UN SEL WIRE TEST NT7D16AA 553-5018 Circuit Card Description and Installation...
  • Page 432 Call Set-up abort The user may abandon the call during the dialogue phase using one of the following methods: • Terminal off-line This method is useful for RS-232-C interface only. The equipment drops Data Terminal Ready (DTR) to indicate an idle connection.

  • Page 433: Inactivity Timeout

    Note: The CTS signal is not included in the faceplate LED. Therefore, a 1.5-second delay will occur between the RxD lamp going on, and the DSR lamp going on. description Transmit Receive Circuit Card page 433. The Cycle count RS-232-C RS-422...
  • Page 434 Table 156 Wire test signal leads cycle counts Label Note: The CTS signal is not included in the faceplate LED. Therefore, a 1.5-second delay will occur between the RxD lamp going on, and the DSR lamp going on. 553-3001-211 Standard 3.00 EIA Signal Lead description Clear To Send...

  • Page 435: Operating Modes

    DAC. The three modes are: modem, terminal, and host. Host mode is a subset of the terminal mode, which only suppresses the prompts at the terminal. Circuit Card Description and Installation...
  • Page 436 The fourth mode, gateway, is a subset of the modem mode and is not normally used. This mode is useful if the attached modems do not have Ring Indicator lead. The application used is inbound modem pooling. The different modes enable the DAC to connect to different types of devices such as modems (modes 0, 1, 2, and 3), gateways (modes 4, 5.
  • Page 437 MSB by Carrier Detect (DCD) Gateway inbound Hotline only (Hotline by Forced DCD: ON for Hotline OFF for Virtual Leased Line (VLL) Circuit Card Group selection Modes 4, 5, 6, and 7 are for RS232 Gateway connectivity Description and Installation...
  • Page 438 Table 157 DAC mode of operation selection (Part 3 of 5) Service changeable downloadable parameters (LD 11) Modem/ Operation Gateway/ mode Host/KBD 6 (DTE) “KBD On” (No RI) 7 (DTE) “KBD On” (No RI) 8 (DCE) “Host On” (prompts off) 9 (DCE) “Host On”...
  • Page 439 Prompt PBDO = OFF/ON Terminal similar to Hotline ASIM when set to Forced Not Forced DTR and Hotline Circuit Card Group selection Modes 8, 9, 10, and 11 are for RS232 Host connectivity Modes 12 and 13 are for RS422...
  • Page 440 Table 157 DAC mode of operation selection (Part 5 of 5) Service changeable downloadable parameters (LD 11) Modem/ Operation Gateway/ mode Host/KBD 14 (DCE) “KBD On” (prompts 15 (DCE) “KBD On” (prompts * Not prompted for Type = R422. Defaults for Type = R422: DEM = DCE and DTR = OFF. Selecting the proper mode for Modem connectivity Select modes 0, 1, 2, and 3 when the DAC is connected to different types of modems for inbound and outbound modem pooling.
  • Page 441 DAC. If the modem turns DCD ON before the 35-second timeout, the DAC validates the incoming call and prepares to accept <CR> from the remote modem for autobaud. See Figure 89 on page 442 for more details. Circuit Card Description and Installation...
  • Page 442 Figure 89 DAC to modem connectivity DAC (DTE) (not required) RS- 232 leads Mode 0 This mode should be selected when the DAC is connected to a modem, except Hayes-1200, for inbound and outbound modem pooling (see modes 2 and 3 for Hayes-1200 modem).
  • Page 443 To configure MULTI MODEM 224E modem, set the configuration switches as follows: switches 3 and 8 to DOWN position • all other switches to UP position. Switch 7 should be UP when using RJ-11 jack. Circuit Card Description and Installation...
  • Page 444 Programing DAC for mode 0 in service change LD11 When used for inbound or outbound Modem Pool only, the DAC can be configured as R232 in LD11. When used for both inbound and outbound Modem Pool, the DAC must be configured as R232; station hunting for the outbound modem access should be in the opposite direction to the 500/2500 station hunting for the inbound modem access.
  • Page 445 R232 port 0 R232 port 1 R232 port 2 R232 port 3 500/2500 line card Inbound hunting Unit 3 Unit 1 Unit 0 Unit 2 Modem 1 Modem 2 Modem 3 Modem 4 Circuit Card Description and Installation 553-AAA1126...
  • Page 446 Mode 1 This mode should be selected when the DAC is connected to an auto-answer modem for inbound Hotline operation. In this mode, the DAC automatically executes Hotline operation when RI is driven ON by the modem. The modem used should have the following features: Auto-answer capability This feature is required when the modem is used for inbound modem pooling.
  • Page 447 Modem Pool, the DAC must be configured as R232. When the DAC is programmed as station hunting, outbound modem access should be in the opposite direction to the 500/2500 station hunting for the inbound modem access. Circuit Card Description and Installation...
  • Page 448 Note: If Call Detail Recording (CDR) is required, use separate outbound and inbound Modem Pools. Mode 3 This mode should be selected when the DAC is connected to a Hayes-1200 modem for inbound Hotline operation. It is recommended that mode 1 be used for inbound Hotline operations if some other modem is available.
  • Page 449 ON, makes the unit busy for outbound calls (modes 4 and 5; in modes 6 and 7, DTR is already ON), and prepares to accept <CR> for autobaud. The DAC expects DCD to remain ON for as long as the data call is established. page 450 for more details. Circuit Card Description and Installation...
  • Page 450 Figure 91 DAC to Gateway connectivity DAC (DTE) (not required) (not required) RS- 232 leads Mode 4 This mode should be selected when the DAC is connected to a gateway for inbound and outbound operation. The characteristics of the gateways to be used with this mode are: Auto-answer capability This feature is required when the gateway is used for inbound operation.
  • Page 451 Note: If CDR is required, use separate outbound and inbound gateway access. Figure 92 DAC to Gateway—Inbound/Outbound connectivity System Outbound hunting R232 port 0 R232 port 1 R232 port 2 R232 port 3 Gateway 1 Gateway 2 Gateway 3 Gateway 4 553-AAA1127 Circuit Card Description and Installation Inbound hunting...
  • Page 452 Mode 5 This mode should be selected when the DAC is connected to an auto-answer gateway for inbound Hotline operation. In this mode, the DAC automatically executes Hotline operation when DCD is driven ON by the gateway. If the DM being called by the Hotline operation is busy or not answering, the DAC will place repeated Hotline calls as long as the DCD lead is ON until the called unit answers.
  • Page 453 The CTS, DSR, and DCD will be driven ON until the call is released. An incoming call to the DAC causes the RI lead to page 454). CTS, DSR, and DCD Circuit Card Description and Installation...
  • Page 454 go ON for 2 seconds and then OFF for 4 seconds until the call is answered by the host. When the host turns DTR ON, the DAC answers the call. If DM-to-DM protocol exchange is successful, the DAC drives CTS, DSR, and DCD ON.
  • Page 455 The host should be able to drop an established data call by driving DTR OFF for more than 100 ms. Circuit Card Description and Installation...
  • Page 456 Programing DAC for mode 9 in service change LD 11 The DAC must be configured as R232 or R422 (the Autodial feature is used for this mode). The DAC must not be configured as an ADM trunk. Mode 10 This mode should be selected when the DAC is connected to a host for inbound host accessing.
  • Page 457 ASIM when set to not-forced-DTR and not-Hotline. In this mode, call origination and auto-answer will not be executed by the DAC, 458). DTR is ignored in mode 14. All the menus and Circuit Card Description and Installation...
  • Page 458 Figure 94 DAC to Terminal connectivity Terminal (DTE) RS- 232 leads unless the DTR lead is driven ON by the terminal. Any terminal that drives the DTR lead ON can be used with this mode (such as VT100 or VT102). The DAC drives CTS, DSR, and DCD ON, except when a call is dropped or when control—Z is entered during the idle state.
  • Page 459 Programing DAC for mode 14 in service change LD 11 The DAC must be configured as R232 since Autodial, Speed Call, and Display commands are likely to be used. Circuit Card Description and Installation...
  • Page 460 Mode 15 This mode provides a “virtual leased line” and the meaning of the “Forced DTR” switch is re-defined. This mode should be selected when the DAC is connected to a terminal (DTE) and continuous Hotline call origination is required. In this mode, the DAC repeatedly tries to Hotline to the Autodial DN as long as DTR is ON.
  • Page 461 DCD ON within 35 seconds. If modem does not drive DCD ON within 35 seconds, the DAC drops DTR and goes idle. Remote DTE sends <CR> to the DAC. The DAC autobauds and sends initial prompt. Circuit Card Description and Installation...
  • Page 462 Table 158 Connect and disconnect protocol (Part 2 of 12) Mode of operation Interface application 553-3001-211 Standard 3.00 Comments Outbound modem pooling: Local DM user calls to the outbound modem access number. DAC answers the outbound call and drives DTR Modem receives DTR and prepares to receive commands.
  • Page 463 OFF for 0.2 second and then ON. DTR stays ON until the next call release. —The DAC ignores RI and DCD for about 2 seconds after releasing a call. This avoids problems with the Hayes 1200 modem. Circuit Card Description and Installation...
  • Page 464 Table 158 Connect and disconnect protocol (Part 4 of 12) Mode of operation Interface application Mode 3 Inbound Hotline modem pools (with forced DTR) Use this mode with Hayes 1200 modem. Mode 4 Inbound and Outbound Gateway access 553-3001-211 Standard 3.00 Comments Inbound Hotline modem pooling: The DAC operation is identical to mode 1 except...
  • Page 465 However, toggling DSR or DCD from ON to OFF causes the DAC to drop the call. Gateway is not transparently linked to the equipment connection to the DM. Call disconnection: Disconnection is identical to mode 4. Circuit Card Description and Installation...
  • Page 466 Table 158 Connect and disconnect protocol (Part 6 of 12) Mode of operation Interface application Mode 6 Inbound and Outbound Gateway access (with forced DTR) Mode 7 Inbound Hotline Gateway access (with forced DTR) 553-3001-211 Standard 3.00 Comments Inbound and Outbound Gateway protocol: The DAC operation is identical to mode 4 except that DTR is always forced ON (except during disconnect).
  • Page 467 Host (blind dialing). When the data call is completely established, the DAC turns DSR, DCD, and CTS ON as long as the call is connected. Circuit Card Description and Installation...
  • Page 468 Table 158 Connect and disconnect protocol (Part 8 of 12) Mode of operation Interface application Mode 9 Hotline call origination 553-3001-211 Standard 3.00 Comments Call disconnect ion (DAC): DAC drops DSR, DCD, and CTS if the local DM user releases the call. The Host should then drop the call.
  • Page 469 However, if the DM is busy or not answering, the DAC will continuously try to originate Hotline calls once every 40 seconds (as long as DTR stays ON) until the called DM answers the call. Call disconnection: Disconnection is identical to mode 8. Circuit Card Description and Installation...
  • Page 470 Table 158 Connect and disconnect protocol (Part 10 of 12) Mode of operation Interface application Mode 12 Terminal access for call origination and answering 553-3001-211 Standard 3.00 Comments Terminal answering an incoming data call: DAC drives DSR, DCD, and CTS ON in the idle state.
  • Page 471 Disconnection is identical to mode 12. Terminal access for call origination and answering: The DAC operation is identical to mode 12 except that DTR is considered to be always ON, even when the terminal is driving DTR OFF. Circuit Card Description and Installation...

  • Page 472: Keyboard Dialing

    Table 158 Connect and disconnect protocol (Part 12 of 12) Mode of operation Interface application Mode 15 Hotline call origination (Virtual Leased Line) Keyboard dialing Keyboard dialing is an interactive dialogue mode between the connected equipment and the DAC. This dialogue allows equipment to give dialing commands to the DAC in order to make a data call to another far-end data port.
  • Page 473 Once the call is established, the DAC is transparent to data communication. To get echoed characters after a call is established, the far end must provide the echo. Note: When RS-232-C modes 12-15 (Host modes) are selected, there is no echo during dialogue phase. Circuit Card Description and Installation...

  • Page 474: Call Abort

    Prompts Call processing prompts are in upper case letters only. Other prompts consist of both upper and lower case characters, and the dialogue session depicts the actual upper/lower case letters used. All prompts are preceded by the Carriage Return and Line Feed ASCII characters (<CR>, <LF>).
  • Page 475 DAC attempts to place the call. Entering H at this point will list the Primary Commands menu: Primary Commands Menu: A - Auto Dial C - Call D - Display M - Modify S - Speed Call CTRL Z (Abort Keyboard Dialing) Select: <SP> Circuit Card Description and Installation...

  • Page 476: Standard 3.00 August

    Page 476 of 906 NT7D16 Data Access card Whenever a Primary command is expected, the user may enter the Parity command (period). If Auto Parity has already been done, the Invalid Command menu is presented: Invalid Command/Entry Re-Enter: <SP> The user's port may be set to idle by entering CTRL Z. Any call in progress will be dropped, and any Ring Again placed will be released.
  • Page 477 CALLING yyyyyy RINGING ANSWERED CALL CONNECTED. SESSION STARTS If the DAC does not know the access code length, you will be notified by: ENTER ACCESS CODE (all digits) <SP>. Leading zeroes must be entered Circuit Card Description and Installation...
  • Page 478 if the access code is less than the maximum number of digits allowed for the Speed Call list for the associated data DN (DDN). Note: If the Speed Call feature key is not defined in the software, you will be notified by the following: Feature key Speed Call not defined. Both the Autodial and Speed Call commands can be changed with the Modify command (M).
  • Page 479 By entering M on the keyboard, you enter the Manual Answer Modify menu. Manual Answer indicates that the DAC prompts the user to answer an incoming data call. Auto answer picks up the call after the specified number Circuit Card Description and Installation...
  • Page 480 Page 480 of 906 NT7D16 Data Access card of rings. Respond to the following prompts to enable or disable the Manual Answer feature. M <CR> Current Answer Mode: Manual Auto - xx Rings Manual Answer? (Y/N): <SP> Y <CR> N <CR> Number of rings (1-255 <1>): <SP>...

  • Page 481: Ring Again

    Again. The Ring Again feature alerts you as soon as the dialed DN becomes free. Once the Ring Again has been activated, you will return to the Primary Commands menu. The following is the prompt and response sequence enabling the Ring Again feature. Circuit Card Description and Installation...
  • Page 482 Note: If you hang up the call, or give an abandon command, Ring Again is canceled. BUSY, RING AGAIN? (Y/N): <SP> Y <CR> or N <CR> RING AGAIN PLACED Primary Commands Menu: A - Auto Dial C - Call D - Display M - Modify S - Speed Call CTRL Z (Abort Keyboard Dialing) Select: <SP>...
  • Page 483 DATA STATION NOW AVAILABLE, PLACE CALL? (Y/N/[Y]): <SP> N <CR> RING AGAIN CANCELLED Primary Commands Menu: A - Auto Dial S - Speed Call C - Call M - Modify D - Display CTRL Z (Abort Keyboard Dialing) Select: <SP> Circuit Card Description and Installation...
  • Page 484 Not in service When the DAC attempts a call to a DN that is not supported, it sends you a message. The call is released, and you must reenter the Autobaud character <CR> to initiate keyboard dialing again. C<CR> ENTER NUMBER:<SP> xxxxxxx<CR>...

  • Page 485: Hayes Dialing

    DAC is active • the DAC has successfully received the downloaded parameters • the user equipment is active, and, if operating in RS-232-C mode — the DCE mode is DTR (unless Forced DTR has been software selected) Circuit Card Description and Installation...

  • Page 486: Input Requirements

    — the DTE mode, and RI has cycled the appropriate number of times Note: In Gateway mode, DCD must be asserted on. In modem mode, only RI must be on. The DAC asserts DTR to the modem, and awaits DCD from the modem. Input requirements All input must be in the same case (upper or lower).
  • Page 487 RING NO CARRIER ERROR NO DIALTONE Numeric code Description Command(s) executed, no error Data call established, session starts Inbound call presented Data call abandoned Error in command line System does not allow call to proceed Circuit Card Description and Installation...
  • Page 488 Table 159 Hayes dialing result codes and messages (Part 2 of 2) Verbose code BUSY NO ANSWER CONNECT 1200 CONNECT 2400 CONNECT 4800 CONNECT 9600 CONNECT 19200 Baud rate detection Every command line begins with Baud rate detection. This phase allows the DAC to determine the user equipment baud rate.
  • Page 489 Hang up data call Note 1: To use AT dialing, enter CTRL-z at carriage return (<CR>) when the port is idle. Note 2: Follow each command (except A/) by a carriage return (<CR>) to execute it. Circuit Card Description and Installation...
  • Page 490 Table 160 AT dialing commands (Part 2 of 2) Command Description ATHP Hang up voice call ATQn Result code (n = 0, 1; if n = 0, result codes are sent) ATVn Verbal result (n = 0, 1; if n = 0, numeric codes are sent) ATXn Result code selection (n = 0, 1;...
  • Page 491 Supported Rings Rings ASCII ASCII ASCII ASCII Seconds Seconds Circuit Card Description Number of rings to answer a system call (0 = manual answer) Ring count for the current inbound system call Off-line escape sequence character Input/output line terminating character...
  • Page 492 Table 161 Allowable S registers (Part 2 of 2) S register Range 0–30 1–255 1–255 50–255 20–255 20 milliseconds You can view any of the S registers by issuing the following display command. Any S register can be specified through the ATS command, and the system will display the current setting for that parameter.
  • Page 493 * Parameters that are reset to the downloaded operating parameters when 1 is entered at the reset command. CAUTION Description DCD controlDynamic (1) Forced ON (0) Input character echo Enabled (1) Disabled (0) Send Result codesEnabled (1) Disabled (0) Circuit Card Description and Installation...
  • Page 494 Table 162 Hayes parameters and S register reset values (Part 2 of 2) Parameter * Parameters that are reset to the downloaded operating parameters when 1 is entered at the reset command. 553-3001-211 Standard 3.00 Value Description Result codes sent in Verbose format Features selection 0 - 8, 10 - 13 —...

  • Page 495: Outbound Calls

    This dialogue session describes the sequence when the S0 register is set to three. In this case, the DAC automatically answers the incoming call on the third ring, and the session begins with the CONNECT message. RING RING RING CONNECT Circuit Card Description and Installation...

  • Page 496: Offline Mode

    Page 496 of 906 NT7D16 Data Access card Issuing the On Hook command while the call is still ringing disconnects the incoming call. The DAC disconnects the call and notifies you with a NO CARRIER message. RING RING ATH0 NO CARRIER When the S0 register is set to 0, the DAC is set to manual answer, and an inbound call must be answered with the Answer command.

  • Page 497: Specifications

    Download parameters These parameters are configured in the system through service change operations. They are then downloaded to the DAC. For a complete description of the service change procedures, see the Software Input/Output: Administration (553-3001-311). Circuit Card Description and Installation...

  • Page 498: Operating Parameters

    System parameters System parameters downloaded by the switch include the type of system, the inactivity timer, and the data DN. These parameters are described below: • System type: CS 1000S, CS 1000M, and Meridian 1 • Inactivity timeout — No timeout —...
  • Page 499 — Variable (use auto baud rate) — Fixed (use baud rate selection only) • Baud rate — 110 — 150 — 300 — 600 — 1200 — 2400 — 4800 — 9600 — 19200 • Operating mode Circuit Card Description and Installation...

  • Page 500: Upload Parameters

    — DCE — DTE • Equipment type — Terminal (send prompts/replies) — Host (suppress prompts/replies) • Long Break Detect In Figure 95 on the settings of service change parameters in LD11 that affect the desired function. The diamonds represent the logical DAC operating mode decisions.
  • Page 501 WIRE, & PBDO OPE YES Terminal Operate Mode? Host PRM = Off Virtual Leased Line? HOT = On DTR = On HOT = On AUTB = Off Select BAUD PRM = On Mode 12 and 13 553-5221 Circuit Card Description and Installation...
  • Page 502 Figure 96 Operating mode selection—RS-232-C DEM = DTE PRM = Off Dynamic DCD? DCD = Off DCD = On Hotline? HOT = On AUTB = Off HOT = Off Select BAUD DTR = Off 553-3001-211 Standard 3.00 OPE YES Modem (Modes 0, 1, 2, 3) Operate Mode? Gateway Host...
  • Page 503 Auto Dial Ring Again Speed Call Display Make Set Busy Key number SL-1 SL-100 Required Required for manual modem pooling — Required for manual modem pooling Required for Hotline and VLL Optional Optional — Required Optional Circuit Card Description and Installation...

  • Page 504: Power Supply

    Power supply Be sure that all power requirements are met before installing the DAC. Operation may be affected by improper power and environmental conditions. EIA signals supported The DAC supports a subset of the standard signals. Only 8 leads can be brought through the backplane connector for each port, totaling 48 leads for each card slot.

  • Page 505: Installing The Data Access Card

    CC 00 00 UUCC - Card Slot or CC UUUU - Unit Number Operating 0 to 60 degrees C Humidity 5% to 95% Circuit Card Storage 40 to 70 degrees C 5% to 95% Description and Installation...

  • Page 506: System Compatibility

    Large System In Large Systems, the DAC is fully supported in IPE modules. These special slots on the DAC have 24-pair cables pre-wired to the Main Distribution Frame (MDF) in card slots 0-15. Any IPE slot will support the first four ports on the DAC if connections are made at the MDF.

  • Page 507: Port Configuration

    Depending on the configuration, ensure that the option plug is set for RS-232 or RS-422. Backplane release 3 and below 4 and above page 508 shows the port configurations for both the RS-232-C Circuit Card Maximum no. of ports/DAC Upgrade supported Description and Installation...
  • Page 508 Figure 97 NT7D16 Data Access Card port connectors Note: Insert only one option plug per port. 553-3001-211 Standard 3.00 August 2005 RS-232 Port 0 RS-422 RS-232 Port 1 RS-422 RS-232 Port 2 RS-422 RS-232 Port 3 RS-422 RS-232 Port 4 RS-422 RS-232 Port 5...

  • Page 509: Cabling

    Each scheme can be tailored to suit individual needs, and specific alternatives are shown in later figures. Capacitance per foot (µF) Capacitance per foot (µF) page 510 shows the cabling choices available. It includes Circuit Card Max distance Max distance Description and Installation 2500 4000...
  • Page 510 Figure 98 Cabling to the data equipment I/O connector System 553-3001-211 Standard 3.00 25 pair Patch panel 25 pair RS-422 RJ-11 RS-232 RJ-11 25 pair 25 pair 553-AAA1128 August 2005 DB25 connectors total) DB25 DB25 DB25 Octopus cable DB25 AILU DB25 DB25 DB25...
  • Page 511 5 (GND) plug 20 (DTR) page 512 illustrates the patch panel. RS-232-C cables are used page 513 describes an octopus cabling scheme. This cable Circuit Card 1 (TxD) 6 (RxD) 5 (GND) 20 (DTR) 6 (DSR) 8 (DCD) 4 (RTS)
  • Page 512 Figure 100 Patch panel layout 50-pin connector DB25 Note: Use an octopus cable that follows the pinout of the DAC, such as QCAD318A (female) and QCAD319A (male), in conjunction with a 50-pin female-to-female gender converter. 553-3001-211 Standard 3.00 August 2005 DB25 50-pin connector 553-5021...
  • Page 513 Figure 101 Octopus cabling EIA signals from the DAC (unit 0) EIA signals from the DAC (unit 5) Circuit Card To your data equipment 2 (TxD) 3 (RxD) 7 (GND) 20 (DTR) 5 (CTS) 6 (DSR) 8 (DCD) (RI) 6 DB25...

  • Page 514: Backplane Pinout And Signaling

    Backplane pinout and signaling Two 40-pin, and two 20-pin edge connectors connect the card to the backplane. The detailed pinout configurations are listed in Tables 170 and 171. Table 170 RS-232-C and RS-422 pinouts for first three DAC ports (Part 1 of 2) I/O cable Pair Pair...
  • Page 515 DTE have first pair as Send Data and second pair as Receive Data. RS-232-C Unit no. Signal Pin no. DSR1 CTS1 UNIT 2 DTR2 GND2 DCD2 DSR2 CTS2 Circuit Card RS-422 Patch pair or Signal octopus RDA2 RDB2 SDA2 SDB2 Connector Description and Installation...
  • Page 516 Table 171 RS-232-C and RS-422 pinouts for last three DAC ports (Part 1 of 2) I/O cable Pair Pair color BK-G G-BK BK-BR BR-BK BK-S S-BK Y-BL BL-Y Y-BR BR-Y V-BL BL-V Note: Units 4 and 5 are available when the DAC is installed in a fully wired 24-pair slot. 553-3001-211 Standard 3.00 RS-232-C...

  • Page 517: Configuring The Data Access Card

    Responding R232 or R422 to the TYPE prompt in LD11 begins the prompt sequence for the DAC configuration. Responses to the following prompts are RS-232-C Unit no. Signal Pin no. GND5 DCD5 DSR5 CTS5 Circuit Card RS-422 Patch pair or Signal octopus SDB5 Connector Description and Installation...
  • Page 518 required. The defaults are bracketed, and may be issued by Carriage Return (<CR>). LD 11 – Configure Data Access card. (Part 1 of 3) Prompt Response REQ: NEW CHG MOV COPY TYPE: R232 R422 l s c u RNPG <CR> (0) - 3 (NO) YES (SPAC) ODD EVEN...
  • Page 519 OFF = forced DCD This prompt appears only if TYPE = R232. Prompt mode, where: ON = prompt (Terminal) mode OFF = no prompt (Host) mode Data Equipment mode This prompt appears only if TYPE = R232. Circuit Card Description and Installation...
  • Page 520 LD 11 – Configure Data Access card. (Part 3 of 3) Prompt Response DLNG (ENG) FRN (ON) OFF WIRE (OFF) ON PBDO (OFF) ON 0 SCR xxxx 1 SCR xxxx 2 TRN 3 ADL yy xxxx 4 RGA 5 SCC 0-253 6 DSP 7 MSB 553-3001-211...
  • Page 521 Print information for this TN, where l = loop, s = shelf, c = card, u = unit. Uploaded parameters can only be printed when a specific TN is listed. DBASE R-232 or R-422 SPAC UPLOAD R-232 or R-422 SPAC Circuit Card Description and Installation...

  • Page 522: Connecting Apple Macintosh To The Dac

    Table 172 Print out example (Part 2 of 2) AUTB BAUD DLNG WIRE PBDO Note: The Upload parameters are printed only when a single TN is specified. Connecting Apple Macintosh to the DAC The Apple Macintosh can be connected with twisted pair wire to a port of a NT7D16 Data Access Card (DAC) to allow access to the switching capability.
  • Page 523 Apple 9-pin Macintosh subminiature D Figure 103 Macintosh to DAC connection—mini-8 DIN Apple Macintosh DIN connector 6-wire Teladapt cord Mini-8 RXD+ RXD- TXD+ TXD- Circuit Card System 553-AAA1129 System DB25 pin # RDA0 RDB0 SDA0 SDB0 553-AAA1130 Description and Installation...
  • Page 524 Large System and CS 1000M HG upgrade The DAC can be installed directly into slots 0, 4, 8, and 12 with no cabling changes. If other slots are required, the upgrade must be made. Follow this procedure to upgrade your cabling. You can upgrade the cabling segment-by-segment, or the entire module at one time.
  • Page 525 Remove cable T from the backplane and connect ends T-1, T-2, and T-3 to L14-1, L14-2, and L14-3. Add cable U to the I/O panel by connecting ends U-1, U-2, and U-3 to L15-1, L15-2, and L15-3. Circuit Card Description and Installation...
  • Page 526 Be sure to re-label the MDF to show that the module has been upgraded to provide one cable for each IPE slot. The resulting backplane and cable arrangement should look like this: Backplane slot-connector 553-3001-211 Standard 3.00 August 2005 I/O panel cable position D (new cable) H (new cable) N (new cable)

  • Page 527: Nt8D02 And Ntdk16 Digital Line Cards

    When a digital telephone is equipped with the data option, an asynchronous or synchronous terminal or personal computer can be connected to the system through the digital telephone. IMPORTANT! Circuit Card Description and Installation Page 527 of 906...

  • Page 528: Physical Description

    The Digital Line card provides 16 voice and 16 data communication links. NT8D02 Digital Line card The 32 port NT8D02 Digital Line card is supported in the MG 1000S and MG 1000S Expansion. You can install this card in any IPE slot. NTDK16 Digital Line card The NTDK16 is a 48 port card supported only in the Chassis system.
  • Page 529 Figure 104 Digital line card – faceplate Card lock latch Card lock latch Dgtl NT8D02 Rlse 04 553-6160 Circuit Card Description and Installation...

  • Page 530: Functional Description

    Functional description NT8D02 Digital Line card The NT8D02 digital line card is equipped with 16 identical units. Each unit provides a multiplexed voice, data, and signaling path to and from digital apparatus over a 2-wire full duplex 512 kHz time compression multiplexed (TCM) digital link.
  • Page 531 +10 V dc Digital line interface Address/ data bus Line interface units 8–15 +10 V dc Digital line interface Sanity timer Circuit Card loop Digital Ring interface phone lines circuit loop Digital Ring interface phone lines circuit ±15 V dc...

  • Page 532: Card Interfaces

    NTDK16 Digital Line card The NTDK16 digital line card is equipped with 48 identical units. Each unit provides a multiplexed voice, data, and signaling path to and from digital apparatus over a 2-wire full duplex 512 kHz time compression multiplexed (TCM) digital link.
  • Page 533 NT8D02 and NTDK16 Digital Line cards Page 533 of 906 Figure 106 NTDK16 DLC Circuit Card Description and Installation...

  • Page 534: Standard 3.00 August

    Page 534 of 906 NT8D02 and NTDK16 Digital Line cards lines carry multiplexed PCM voice, data, and signaling information as TCM loops. The purpose of each digital line interface circuit is to de-multiplex data from the DS-30X Tx channel into eight integrated voice and data bitstreams. The circuits then transmit those bitstreams as Bi-Polar Return to Zero, Alternate Mark Inversion (BPRZ-AMI) data to the eight TCM loops.

  • Page 535: Card Control Functions

    Card LAN link. Sanity timer The NT8D02 Digital Line card also contains a sanity timer that resets the microcontroller if program control is lost. The microcontroller must service Circuit Card Description and Installation...

  • Page 536: Electrical Specifications

    the sanity timer every 1.2 seconds. If the timer is not properly serviced, it times out and causes the microcontroller to be hardware reset. Circuit power The +15 V dc input is regulated down to +10 V dc for use by the digital line interface circuits.

  • Page 537: Digital Line Interface Specifications

    (+15 V DC at 80 mA) 80 mA) 512 kbps + 100 ppm + 5 V DC + 5 V DC +15 V DC +15 V DC +8 V DC Power Failure Trans- fer Control Ring Sync. Circuit Card Description and Installation...

  • Page 538: Power Requirements

    Power requirements The digital line card needs +15V DC over each loop at a maximum current of 80 mA. It requires +15V, -15V, and +5V from the backplane. The line feed interface can supply power to one loop of varying length up to 1070 m (3500 ft) using 24 AWG wire with a maximum allowable AC signal loss of 15.5 dB at 256 kHz, and a maximum DC loop resistance of 210 ohms;...

  • Page 539: Environmental Specifications

    5 to 95% RH (non-condensing) –40° to +70° C (–40° to +158° F) Lead Designations Line 0, Ring Line 1, Ring Line 2, Ring Line 3, Ring Circuit Card Backplane Lead Pinout* Designations Line 0, Tip Line 1, Tip Line 2, Tip...
  • Page 540 Table 176 NT8D02 Digital Line card – backplane pinouts (Part 2 of 2) Backplane Pinout* These pinouts apply to both the NT8D37 and NT8D11 backplanes 553-3001-211 Standard 3.00 Lead Designations Line 4, Ring Line 5, Ring Line 6, Ring Line 7, Ring Line 8, Ring Line 9, Ring Line 10, Ring...

  • Page 541: Configuration

    Software service changes Voice and data ports are configured using the Meridian Digital Telephone Administration program LD 11. See the Software Input/Output: Administration (553-3001-311) for LD 11 service change instructions. page 542 shows where the Circuit Card Description and Installation...
  • Page 542 Page 542 of 906 NT8D02 and NTDK16 Digital Line cards Figure 107 Digital line card – jumper block and switch locations 553-6161 553-3001-211 Standard 3.00 August 2005...
  • Page 543 NT8D02 and NTDK16 Digital Line cards Page 543 of 906 Figure 108 Digital line card – jumper block and switch locations 553-6161 Circuit Card Description and Installation...
  • Page 544 Page 544 of 906 NT8D02 and NTDK16 Digital Line cards 553-3001-211 Standard 3.00 August 2005...

  • Page 545: Nt8D03 Analog Line Card

    Note: A maximum of four NT8D03 Analog Line cards can be installed in each MG 1000S. A maximum of four NT8D03 Analog Line cards can be installed in each MG 1000S Expansion. Page 545 of 906 Circuit Card Description and Installation...
  • Page 546 Page 546 of 906 NT8D03 Analog Line card 553-3001-211 Standard 3.00 August 2005...

  • Page 547: Nt8D09 Analog Message Waiting

    NT8D03 Analog Line card, except it can also connect a high-voltage, low-current feed to each line to light the message waiting lamp on telephones equipped with the Message Waiting feature. The analog message waiting line card mounts in any IPE slot. Page 547 of 906 Circuit Card Description and Installation...
  • Page 548 Note: A maximum of four NT8D09 Analog Message Waiting Line cards per MG 1000S and four NT8D09 Analog Message Waiting Line cards per MG 1000S Expansion are supported. Cards later than vintage NT8D09AK support µ-Law and A-Law companding, and provide a 2 dB transmission profile change. The transmission change improves performance on long lines, particularly for lines used outside of a single-building environment.

  • Page 549: Physical Description

    The NT8D09 Analog Message Waiting Line card contains a microprocessor that provides the following functions: • self-identification • self-test • control of card operation • status report to the controller • maintenance diagnostics Specifications 40 ms 12.5 digits/s Circuit Card Description and Installation...
  • Page 550 Figure 109 Analog message waiting line card – faceplate Card lock latch Card lock latch 553-3001-211 Standard 3.00 Anlg M/WL C NT8D09 Rlse 0x August 2005 553-6165...
  • Page 551 Figure 110 on page 552 shows a block diagram of the major functions contained on the analog message waiting line card. Each of these functions are described in the following sections. Circuit Card Description and Installation...
  • Page 552 Figure 110 Analog message waiting line card – block diagram Input/output interface control Front panel Micro- controller Card slot address Backplane Card LAN interface Async card LAN link Tx PCM Rx PCM Controller DS-30X card 5.12 MHz interface clock 1 kHz frame sync +8.5 V dc Power...

  • Page 553: Card Interfaces

    • Lamp status detection (will not detect a failure of either lamp when operating in parallel). • Disabling and enabling of selected units for maintenance. • 40 mA to telephones with short circuit protection. page Circuit Card Description and Installation...

  • Page 554: Card Control Functions

    Card control functions Control functions are provided by the following: • a microcontroller • a card LAN interface • signaling and control circuits on the analog message waiting line card Microcontroller The analog message waiting line card contains a microcontroller that controls the internal operation of the card and the serial card LAN link to the controller card.
  • Page 555 The message channel noise C-weighted (dBrnC) on 95 percent of the connections (line to line) with both ends terminated in 600 ohms does not exceed 20 dBrnC. Minimum (dB) Maximum (dB) 20.0 –0.5 –0.5 –0.5 Circuit Card Description and Installation —...
  • Page 556 Table 179 provides a technical summary of the analog message waiting line card. Table 179 NT8D09 Analog Message Waiting Line card technical summary Impedance Loop limit (excluding set) Leakage resistance Ring trip Ringing voltage Signaling Supervision Power input from backplane Insertion loss 553-3001-211 Standard 3.00...

  • Page 557: Power Requirements

    150 mA 2.00 V dc 48 mA 5.00 V dc 0 mA 5.00 V ac 0 mA 3.00 V dc 0 mA Circuit Card Active current 0 mA 48 mA 8 mA 280 mA 40 mA 688 mA 10 mA...

  • Page 558: Overload Level

    Overload level Signal levels exceeding +7 dBm applied to the tip and ring cause distortion in speech transmission. Environmental specifications Table 181 lists the environmental specifications for the analog message waiting line card. Table 181 Analog message waiting line card – environmental specifications Parameter Operating temperature Operating humidity...
  • Page 559 Line 4, Tip Line 5, Tip Line 6, Tip Line 7, Tip Line 8, Tip Line 9, Tip Line 10, Tip Line 11, Tip Line 12, Tip Line 13, Tip Line 14, Tip Line 15, Tip Circuit Card Description and Installation Lead...
  • Page 560 Figure 111 Analog message waiting line card – typical cross connection example System NT8D37 IPE Module NT8D09 Message Slot 0 Waiting Line Card Unit 0 Unit 1 Unit 2 Unit 3 Unit 15 Note: Actual pin numbers may vary depending on the vintage of the card cage and the slot where the card is installed.

  • Page 561: Configuration

    The loss plan for the analog message waiting line card determines port-to-port loss between an analog line card unit (port) and other IPE ports. LD 97 is used to configure page 562. Circuit Card Description and Installation page 563...
  • Page 562 the system for port-to-port loss. See Software Input/Output: Administration (553-3001-311) for LD 97 service change instructions. Table 183 Transmission Profile Changes Previous to AK 553-3001-211 Standard 3.00 Vintage A/D convertor gain AK and later August 2005 D/A convertor gain –3.5 dB –2.5 dB –3.5 dB –0.5 dB...
  • Page 563 NT8D09 Analog Message Waiting Line card Page 563 of 906 Figure 112 Analog message waiting line card – jumper block and switch locations 553-6166 Circuit Card Description and Installation...
  • Page 564 Page 564 of 906 NT8D09 Analog Message Waiting Line card 553-3001-211 Standard 3.00 August 2005...

  • Page 565: Nt8D14 Universal Trunk Card

    (SL) position when it comes from the factory. For each hybrid, both jumpers should be changed to the LL position only if used as a CAMA trunk. Otherwise the jumpers should be left to the SL position. Page 565 of 906 Circuit Card Description and Installation...
  • Page 566 The NT8D14 Universal Trunk card interfaces eight analog trunk lines to the system. Each trunk interface is independently configured by software control using the Trunk Administration program LD 14. You can install this card in any IPE slot. Note: Each MG 1000S can contain up to four analog trunk cards. Each MG 1000S Expansion can contain up to four analog trunk cards.

  • Page 567: Physical Description

    Central Office facilities, connect to the card at the MDF. See the Communication Server 1000S: Installation and Configuration (553-3031-210) for termination and cross-connect information. Trunk types CO/FX/ WATS (see note) Circuit Card Paging CAMA Description and Installation...
  • Page 568 Page 568 of 906 NT8D14 Universal Trunk card The faceplate of the card is equipped with a red Light Emitting Diode (LED). See Figure 113 on page 569. When an NT8D14 Universal Trunk card is installed, the LED remains lit for two to five seconds while the self-test runs. If the self-test is successful, the LED flashes three times and remains lit.
  • Page 569 Figure 113 Universal trunk card – faceplate Card lock latch Card lock latch Univ This symbol indicates that field-selectable jumper strap settings are located on this card NT8D14 Rlse 0x 553-6195 Circuit Card Description and Installation...

  • Page 570: Functional Description

    Functional description Figure 114 shows a block diagram of the major functions contained on the NT8D14 Universal Trunk card. Each of these functions is described on the following pages. Figure 114 NT8D14 Universal trunk card – block diagram Input/output interface control Front panel...

  • Page 571: Card Interfaces

    (minimum vintage BA) • control signals provided for RAN and paging equipment • loopback of PCM signals received from trunk facility over DS-30X network loop for diagnostic purposes • switchable pads for transmission loss control Circuit Card Description and Installation page...

  • Page 572: Card Control Functions

    Card control functions Control functions are provided by a microcontroller, a card LAN interface, and signaling and control circuits on the NT8D14 Universal Trunk card. Microcontroller The NT8D14 Universal Trunk card contains a microcontroller that controls the internal operation of the card and the serial card LAN link to the controller card.

  • Page 573: Signaling Interface

    CO. See Figure 117 on the low-resistance loop, it prepares to receive digits.When the CO is ready to page 575. page 576 and Figure 118 on Circuit Card page 577. When the CO detects Description and Installation...
  • Page 574 Figure 115 Loop start call states – incoming call from CO/FX/WATS High-resistance loop Idle Far end originates by ringing Note 1: The originating office may reverse battery and ground when attendant answer is received. Note 2: No disconnection signal is passed to trunk. Note 3: The near end provides a high-impedance (>150k ohms) disconnect signal of at least 50 ms before reconnecting the ground detector.
  • Page 575 All tones and any battery/ground reversal are ignored by the near end. Near end restores high-resistance loop when terminal A goes on hook. Circuit Card Remarks Description and Installation 553-6240...
  • Page 576 Figure 117 Ground start call states – incoming call from CO/FX/WATS High-resistance loop Idle Far end originates Note 1: The far end may reverse battery and ground upon receipt of attendant answer. Note 2: The near end provides a high-impedance (>150k ohms) disconnect signal of at least 50 ms before reconnecting the ground detector.
  • Page 577 CO detects drop in loop current and removes ground from tip. If battery and ground were reversed when call was established, battery is removed from tip and restored to ring. Circuit Card Remarks 553-6236 Description and Installation...

  • Page 578: Ground Start Operation

    Page 578 of 906 NT8D14 Universal Trunk card Ground start operation Ground start operation is configured in software and implemented through software download messages. In the idle state, the tip conductor from the CO is open and a high-resistance negative battery is present on the ring lead. Incoming calls In an incoming call, after ground is detected on the tip, the universal trunk card scans for a ringing detection signal before presenting the call to an...
  • Page 579 System (near) end Near end disconnects Far end disconnects Near end disconnects first (Note 2) Ringing Assignment to loop key Circuit Card Low-resistance loop far end disconnects first Near end answers, ringing is removed (Note 1) 553-AAA1133 Description and Installation...
  • Page 580 Figure 120 Ground start call connection sequence – incoming call from CO/FX/WATS Near end System State Signal/direction High- resistance loop Idle Trunk seizure Call presented to console loop key Low-resistance loop Console answers 2-way voice connection B goes on hook High-resistance loop Idle High-resistance loop...
  • Page 581 Refer to the description of loop start operation in this section for a more complete discussion of PSP and PIP. and Figure 122 on page 583. Circuit Card Description and Installation...
  • Page 582 Figure 121 Ground start call states – outgoing call to CO/FX/WATS High-resistance loop Idle Forced far end disconnect 553-3001-211 Standard 3.00 System (near) end Ground on ring Forced near end disconnect Near end originates Near end disconnects first CO toll denial Near end Far end answers disconnects...
  • Page 583 CO detects drop in loop current and removes ground from tip. If battery and ground were reversed when call was established, battery is removed from tip and restored to ring. Circuit Card Remarks 553-AAA1136 Description and Installation...
  • Page 584 Direct inward dial operation Incoming calls An incoming call from the CO places a low-resistance loop across the tip and ring leads. See Figure 123 on Dial pulses or DTMF tones are then presented from the CO. When the called party answers, the universal trunk card reverses battery and ground on the tip and ring leads to the CO.
  • Page 585 Note: The near end may be configured for immediate start, delay dial, or wink start. System (near) end Forced near end disconnect Forced far end disconnect disconnects or DTMF (Note) Circuit Card Far end disconnects first Near end first Near end answers 553-AAA1137 Description and Installation...
  • Page 586 Figure 124 DID trunk, loop DR call connection sequence – incoming call from CO Near end System State Signal/direction Ground on tip/ battery on ring Idle Trunk seizure Outpulsing Ringback A rings Battery on tip/ ground on ring 2-way voice connection B goes on hook Ground on tip/...
  • Page 587 (no ans or DTMF sup) Far end disconnects first Far end disconnects Near end disconnects Battery on tip, ground on ring Near end answers (ans sup) Near end disconnects first Far end disconnects first 553-AAA1139 Circuit Card Description and Installation...
  • Page 588 Figure 126 Two-way, loop DR, TIE trunk call connection sequence – incoming call from far-end PBX Near end System State Signal/direction Ground on tip/ battery on ring Idle Trunk seizure Outpulsing Ringback A rings Battery on tip/ ground on ring 2-way voice connection B goes on hook...
  • Page 589 Figure 130 on trunk. Note: Where no far-end answer supervision is provided, the party at the near-end hangs up, after recognizing far-end call termination. page 593 also applies to outgoing calls on a DID Circuit Card Description and Installation page 590...
  • Page 590 Figure 127 Two-way, loop DR, TIE trunk call states – outgoing call to far-end PBX Ground on tip, battery on ring Idle Near end hangs up (Note) Note: Where no far-end answer supervision is provided, party at near end hangs up after recognizing far-end call termination.
  • Page 591 A must recognize end of call and hang up, which will then cause the local end to restore normal battery. Circuit Card Remarks 553-AAA1142 Description and Installation...
  • Page 592 Figure 129 Two-way, loop DR, TIE trunk call states – outgoing call to far-end PBX Ground on tip, battery on ring Idle Near end hangs up (Note) Note: Where no far-end answer supervision is provided, party at near end hangs up after recognizing far-end call termination.
  • Page 593 A must recognize end of call and hang up, which will then cause the local end to restore normal battery. Circuit Card Remarks 553-AAA1142 Description and Installation...
  • Page 594 Senderized operation for DID and two-way loop DR trunks Incoming calls If the far-end is senderized, the near-end can operate in any mode: Immediate Start (IMM), Delay Dial (DDL) or Wink (WNK) start, as assigned at the STRI prompt in the Trunk Administration program LD 14. See Figure 131 on page 595.
  • Page 595 (Note 1) CO end answers (no ans sup) Far end disconnects first Far end disconnects Near end disconnects Circuit Card Battery on tip, ground on ring Far end originates Near end stores office DN Near end (Note 2) answers (ans sup)
  • Page 596 Figure 132 Two-way, loop DR, TIE trunk call states – incoming call through senderized, tandem PBX from a CO/FX/WATS trunk Idle Note 1: Dial CO/FX/WATS and office DN. Note 2: If ground start trunk, outpulse toward office after ground detection. If loop start trunk, outpulse toward office 1 second later.
  • Page 597 This alerts the far-end of the seizure. The far-end responds with a low resistance across the tip and ring leads. See Figure 136 on page 599 and Figure 135 on page 601 and Figure 137 on Circuit Card page 600. page 602. Description and Installation...
  • Page 598 Figure 133 Two-way, loop DR, TIE trunk call states – outgoing call through far-end PBX to CO/FX/WATS Ground on tip, battery on ring Idle Near end hangs up (Note 3) Note 1 : Immediate-start outpulsing. Note 2: Delay-dial or wink-start outpulsing after go signal. Note 3: Where no far-end answer supervision is provided, party at near end hangs up after recognizing far-end call termination.
  • Page 599 System (near) end Ground on tip, battery on ring Forced near end disconnects Far end disconnect Battery-ground or loop pulses, or DTMF Circuit Card Battery on tip, ground on ring Far end disconnects first Near end disconnects first Near end answers...
  • Page 600 Figure 135 Two-way, loop OAID, TIE trunk call connection sequence – incoming call from far-end PBX Near end System State Signal/direction Ground on tip/ battery on ring Idle Trunk seizure Outpulsing A rings Battery on tip/ ground on ring 2-way voice connection B goes on hook Ground on tip/...
  • Page 601 Idle System (near) end Ground on tip, battery on ring Near end disconnect Far end disconnect Near end disconnects first Circuit Card Battery on tip, ground on ring Near end originates Far end disconnects first Far end answers 553-AAA1147 Description and Installation...
  • Page 602 Figure 137 Two-way, loop OAID, TIE trunk call connection sequence – outgoing call to far-end PBX Near end System State Signal/direction Ground on tip/ battery on ring Idle Battery on tip/ ground on ring Trunk seizure 2-way voice connection B goes on hook Ground on tip/ battery on ring Idle...
  • Page 603 Please check the number and try again.” Figure 138 on page 604 announcement machine channel to unit 0 on a universal trunk card. shows a typical connection from a single Circuit Card Description and Installation page 605...
  • Page 604 Page 604 of 906 NT8D14 Universal Trunk card Figure 138 Connecting RAN equipment to the NT8D14 Universal Trunk card (typical) 553-3001-211 Standard 3.00 August 2005...
  • Page 605 Control Mode.” This mode enables provisioning of multiple RAN channels for a RAN route (playing the same message independently on demand) cross-connected one-to-one to each RAN trunk in a multi-channel level start RAN route. Do not bridge RAN trunks in a multi-channel RAN route. Circuit Card Description and Installation...
  • Page 606 Figure 139 RAN control signals (Control GRD = IDLE) Ground ST+ input to announcer hardwired to ground Open Play Message Idle Ground 250 ms pulse at end of message Open Ground 250 ms pulse starts message Open Play Start Message Idle Ground Open...
  • Page 607 A message that is terminated by the trailing edge of a level start signal is immediately reset and ready for playback again. page 608 and to Software Input/ Circuit Card Description and Installation page 606.
  • Page 608 Call routing to RAN trunks CS 1000 Release 4.5 software controls recorded announcement machines. These programs detect the calls to be intercepted, determine the type of intercept treatment required (for example, overflow, attendant, announcement), queue the intercept, and provide ringback tone to the calling party.

  • Page 609: Electrical Specifications

    (Note 3) 2450-ohm loop with 600/900-ohm loop near-end battery of –44 V –42 to –52.5 V –42 to –52 V 10 mA 10 mA ±3 V ±1 V Circuit Card Description and Installation Paging 600 ohms 600 ohm loop ±1 V...

  • Page 610: Power Requirements

    Table 185 Universal trunk card – trunk interface electrical characteristics (Part 2 of 2) Characteristic CO / FX / WATS Line leakage Š 30k ohms, tip-to-ring, tip-to-ground, ring-to-ground AC induction 10 V rms, tip-to-ring, rejection tip-to-ground, ring-to-ground Selected in software. Selected by jumper strap settings on card.
  • Page 611 Tie trunks. Specifications 0° to +60° C (+32 to +140° F), ambient 0 to 50 degrees C, ambient (Small Systems and CS 1000S) 5 to 95% RH (non-condensing) –40° to +70° C (–40° to +158° F) Circuit Card Description and Installation...
  • Page 612 The class-of-service determines the operation of the switchable PADs contained in each unit. They are assigned as follows: • Transmission Compensated — used for a two-wire non-VNL trunk facility with a loss of greater — or used for a four-wire non-VNL facility •...
  • Page 613 Insertion Loss from IPE Ports to IPE Ports (measured in dB) 500/2500 Line IPE Ports CO/FX/ WATS Loop Tie Trunk IPE Ports Digital 2/4 Wire Line E&M Trunk -3.5 Circuit Card 4 Wire CO/FX (ESN) E&M /WATS Trunk Loop Tie Trunk -0.5 Description and Installation...

  • Page 614: Connector Pin Assignments

    Connector pin assignments The universal trunk card connects the eight analog trunks to the backplane through a 160-pin connector shroud. Telephone trunks connect to the universal trunk card at the back of the MG 1000S using a 25-pin connector. A list of the connections to the universal trunk card is shown in Table 189 on page 614.

  • Page 615: Configuration

    NT8D14 has a reduced jumper strap setting on the card. There are only three jumpers, J1.X, J2.X, and J3.X on each channel. Tables 190, 191, and 192 show the functionality of these three jumpers. Signal Back- Paging Other plane mode modes Circuit Card Signal Paging Other mode mode modes Ring Ring Ring...
  • Page 616 Table 190 Jumper strap settings – factory standard (NT8D14BA, NT8D14BB) Trunk types Loop length CO/FX/WATS 0–1524 m (5000 ft.) 2-way TIE (LDR) 2-way TIE (OAID) 0–600 ohms RAN: continuous Not applicable: RAN operation mode and paging trunks should not leave the Paging building.
  • Page 617 Note 2: For the NT8D14BB card, J4.X is not provided on the board. The J4.X jumper setting specified in Table 191 does not apply. Jumper strap settings (Note 1) J1.X J2.X J3.X 1–2 1–2 2–3 Circuit Card Description and Installation J4.X (Note 2) 2–3 2–3 1–2...
  • Page 618 Table 192 Trunk types – termination impedance and balance network (NT8D14BA, NT8D14BB) Terminating impedance Trunk types (Note 1) CO/FX/WATS 600 or 900 ohms 2-way TIE (LDR) 600 or 900 ohms 2-way TIE (OAID) 600 or 900 ohms DID (loop length 600 or 900 <...
  • Page 619 Table 194 on for comparison with values obtained from actual measurements. shows jumper locations on the universal trunk card page 621 for the proper values for the trunk type and loop Circuit Card page 622 Description and Installation...
  • Page 620 Page 620 of 906 NT8D14 Universal Trunk card Figure 140 Universal trunk card – jumper locations (for NT8D14BA, NT8D14BB Release 9 and below) 553-6196 553-3001-211 Standard 3.00 August 2005...
  • Page 621 (0–3000 ft) (3000–5000 ft) 600 ohms 3COM 600 ohms 3COM 600 ohms 3COM 600 ohms 3COM 600 ohms 600 or 900 ohms 600 ohms Circuit Card > 1524 m (> 5000 ft) 3CM2 3CM2 3CM2 3CM2 3CM2 Description and Installation...
  • Page 622 Table 194 Cable loop resistance and loss Cable loop resistance (ohms) Cable length 22 AWG 915 m (3000 ft.) 1524 m (5000 ft.) 2225 m (7300 ft.) 3566 m (11700 ft.) 5639 m (18500 ft.) Port-to-port loss configuration Loss parameters are selected on the NT8D14 Universal Trunk card by a switchable pad controlled by codec emulation software.
  • Page 623 UTC pads are out, the Port B (PE CO/FX/WATS) pads are in. Universal Trunk Pads Receive Transmit Receive A to D D to A A to D Circuit Card Port-to-port loss (dB) Port B to Universal Universal trunk trunk card to card...

  • Page 624: Applications

    Applications The optional applications, features, and signaling arrangements for each trunk are assigned through unique route and trunk data blocks. Paging trunk operation A universal trunk card unit can be configured as a paging trunk. Configure units as paging trunks in the Trunk Data Block program LD 14 and assign routes in the Route Data Block program LD 16.
  • Page 625 (bl-w) Unit 0 (w-o) (o-w) Unit 1 Unit 7 Cross connect Audio pair Signal pair Part of 25-pair cable Circuit Card Typical customer- provided external equipment Tape Micro- recorder, phone radio, etc. Amplifier Speaker 553-AAA1150 Description and Installation Microphone contacts...
  • Page 626 Page 626 of 906 NT8D14 Universal Trunk card 553-3001-211 Standard 3.00 August 2005...

  • Page 627: Nt8D15 E&M Trunk Card

    You can install this card in any IPE slot. Note: Up to four analog trunk cards are supported in each MG 1000S and four analog trunk cards in each MG 1000S Expansion. Page 627 of 906 Circuit Card Description and Installation...
  • Page 628 Note: In Cabinet systems equipped with Meridian Mail, the Universal Trunk line card cannot be installed in slot 10 of the main cabinet. The NT8D15 E&M trunk card supports the following types of trunks: • 2-wire E&M Type I signaling trunks •...

  • Page 629: Physical Description

    If the self-test completes successfully, the LED flashes three times and remains lit. When the card is configured and enabled in software, then the LED goes out. If the LED continues to flash or remains weakly lit, replace the card. Circuit Card Description and Installation...
  • Page 630 Figure 142 E&M trunk card – faceplate Card lock latch Card lock latch 553-3001-211 Standard 3.00 E & M Dict Trk This symbol indicates that field-selectable jumper strap settings are located on this card NT8D15 Rlse 05 August 2005 553-6199...

  • Page 631: Functional Description

    Allows trunk type to be configured on a per port basis in software. • Software controlled 600 ohm balance impedance is provided. • Isolation of foreign potentials from transmission and signaling circuit. page 632 shows a block diagram of the major functions Circuit Card Description and Installation...
  • Page 632 Figure 143 E&M trunk card – block diagram Input/output interface control Front panel Micro- controller Card slot address Back- plane Card LAN interface Async card LAN link Tx PCM Rx PCM Con- troller DS-30X card 5.12 MHz interface clock 1 kHz frame sync +8.5 V dc Power...
  • Page 633 • provide isolation of foreign potentials from transmission and signaling circuit • provide software control of A-Law and µ-Law modes • support loopback of pulse code modulation (PCM) signals to DS-30X for diagnostic purposes Circuit Card Description and Installation...

  • Page 634: Trunk Circuit Features

    Trunk circuit features Trunk unit functions The functions provided by each unit on the E&M trunk card include 2-wire signaling, 4-wire signaling, and paging operation as follows: • 2-wire, E&M Type I signaling (see Figure 144 on — near-end seizure and outpulsing with M lead —...
  • Page 635 Figure 144 E&M Type I signaling E&M trunk card Ð 48V Ð 48V External signaling circuit Circuit Card 553-6258 Description and Installation...
  • Page 636 Figure 145 E&M Type II signaling Ð 48V Note: M, SB, E, and SG designations are Electronic Industries Association and Telecommunications Industries Association (EIA/TIA) conventions. These leads are also known as MB, MA, EA, and EB, respectively. 553-3001-211 Standard 3.00 August 2005 Ð...
  • Page 637 NT8D15 E&M Trunk card Page 637 of 906 Figure 146 4-wire DX signaling Circuit Card Description and Installation...
  • Page 638 Figure 147 Paging trunk operation System NT8D37 IPE Module Module NT8D15 I/O Panel Slot 0 E&M Connector Trunk Card (W-BL) (BL-W) Unit 0 (W-O) (O-W) Unit 1 Unit 3 553-3001-211 Standard 3.00 Cross connect Audio pair Signal pair Part of 25-pair cable August 2005...
  • Page 639 SSC card. The card LAN controls the microcontroller. The following functions are supported: • providing card ID/RLS • reporting self-test status • polling from the controller card • enabling/disabling of the DS-30X link Circuit Card Description and Installation...

  • Page 640: Signaling Interface

    Signaling interface All signaling messages for the trunk are three bytes long. The messages are transmitted in channel zero of the DS30X in A10 format. Configuration information for the E & M trunk is downloaded from the CPU at power up and by command from maintenance programs. Seven configuration messages are sent.

  • Page 641: Maintenance Features

    CO trunk (not applicable to CCSA). page 642 shows the trunk signaling orientation for a tandem page 643 shows E&M Type I signaling patterns for incoming page 644 Circuit Card shows Type I signaling patterns Description and Installation...
  • Page 642 Figure 148 Signaling orientation for tandem connection between E&M and CO trunks Far end PBX Outgoing Tie trunk Incoming Idle state For E&M signaling, in the idle state the M lead is ground and the E lead is an open circuit. Outgoing calls are processed as follows: •...
  • Page 643 Near end disc Idle Far end disc Near end disc first seizes Near end ans (no ans sup) Incoming calls to near end Circuit Card Near end seizes Far end answers (no ans sup) Far end disc first Near end answers...
  • Page 644 Figure 150 E&M Type I signaling patterns – originating party release on a tandem connection Note: IMM = Immediate start DDL = Delayed dial WNK = Wink start 553-3001-211 Standard 3.00 Near end M lead Ground Battery Near end Idle seizes Dial CO/ FX/WATS...
  • Page 645 Delay dial Wink start E&M Type II signaling Figure 151 on page 647 shows E&M Type II signaling patterns for incoming and outgoing calls. Figure 152 on Start arrangement page 648 shows Type II signaling patterns Circuit Card Description and Installation...
  • Page 646 for a tandem connection where the originating end is senderized and the route is over a CO trunk (CCSA not applicable). Type II signaling uses four leads: M, SB, E, and SG. Instead of changes of state between battery and ground (M signals) or open and ground (E signals), the trunk signals by closing the contacts between the lead pairs M and SB.
  • Page 647 Near end disc Idle Far end disc Near end disc first seizes Near end ans (COS-no ans sup) Incoming calls to system (near end) Circuit Card Closed Near seizes Far end answers (no ans sup) Closed Far end disc first...
  • Page 648 Figure 152 E&M Type II signaling patterns – originating party release on a tandem connection Near end M/SB leads Open Idle Dial CO/ FX/WATS O/G tie trunk disc Far end disc O/G tie trunk disc first Outgoing calls from system (near end) Near end M/SB leads Open Idle...
  • Page 649 No current flow Current flow No current flow Current in signaling lead No current flow Current flow Current flow interrupted for each pulse No current flow Circuit Card Description and Installation page 651 show State of trunk detector High High High High...
  • Page 650 Table 199 DX signaling – incoming calls with originating party release (Part 2 of 2) Condition Far-end on hook first Network taken down and trunk idled Near-end on hook first, network taken down Far-end on hook, trunk idled Table 200 DX signaling –...
  • Page 651 Current flow No current flow High Current in State of trunk signaling lead detector No current flow High Current flow Current flow interrupted Low-high-low for each pulse for each pulse No current flow Circuit Card Description and Installation...

  • Page 652: Electrical Specifications

    Table 201 DX signaling – incoming calls with originating party release on tandem connections (Part 2 of 2) Condition If no answer supervision: CO end disconnects (if a CO ground start – the trunk is idled and network taken down, but the incoming TIE trunk is held under control of the originating end) Originating end disconnects –...
  • Page 653 -42 to -52.5 V + 10 V Equal to or greater than 30 kS (Tip to Ring, Tip to GND, Ring to GND). See pad table Circuit Card 2-wire trunk See pad table (Table 209 on page 662) 600 ohms...

  • Page 654: Power Requirements

    Power requirements Table 204 lists the power requirements for the E&M trunk card. Table 204 Power requirements Environmental specifications Table 205 provides the environmental specifications for the E&M trunk card. Table 205 Environmental specifications Parameter Operating temperature Operating humidity Storage temperature Foreign and surge voltage protection The E&M trunk card meets CS03 over-voltage (power cross) specifications and FCC Part 68 requirements.

  • Page 655: Connector Pin Assignments

    E&M trunk card – backplane pinouts for 2-wire modes 2-wire Paging Mode Trunk Number Signal Signal Ring Ring Ring Ring page page 656. 2-wire Type I Mode Signal Circuit Card Description and Installation 657. A list of Signal Ring Ring Ring Ring...
  • Page 656 Table 207 E&M trunk card – backplane pinouts for 4-wire modes 4-wire Type I Mode Trunk Number Signal 553-3001-211 Standard 3.00 Signal ESCG ESCG ESCG ESCG August 2005 4-wire Type II Mode Signal Signal...
  • Page 657 I/O Panel Connector (W-BL) (BL-W) (W-O) (O-W) (W-G) (G-W) (W-BR) (BR-W) (W-S) (S-W) (R-BL) (BL-R) Part of 25-pair cable Circuit Card E&M trunk connections TipA TipB RingA 4-wire RingB Type I E&M Trunk ESCG 2-wire Ring Type I E&M Trunk...

  • Page 658: Configuration

    Configuration Each of the four trunk circuits on the E&M trunk card can be individually configured for trunk type, companding mode, and port-to-port loss compensation. Configuring the card requires both jumper changes and configuration software service entries. The locations of the jumpers are shown in Figure 154 on Jumper settings The NT8D15 E&M Trunk card serves various transmission requirements.
  • Page 659 NT8D15 E&M Trunk card Page 659 of 906 Figure 154 E&M trunk card – jumper locations 553-6200 Circuit Card Description and Installation...
  • Page 660 Table 208 E&M trunk card – jumper strap settings 2-wire trunk Jumper (Note 1) Type I J1.X J2.X J3.X J4.X J5.X J6.X J7.X J8.X J9.X Pins 2–3 Note 1: Jumper strap settings J1.X through J9.X apply to all four units; “X” indicates the unit number, 0–3.
  • Page 661 Non-VNL trunks are assigned a TRC or NTC class of service to ensure stability and minimize echo when connecting to long-haul trunks, such as tie page 660 to select the proper values for the trunk type Circuit Card Description and Installation...
  • Page 662 trunks. The class of service determines the operation of the switchable pads contained in each unit. They are assigned as follows: • TRC for a 2-wire non-VNL trunk facility with a loss of greater than 2 dB, or for which impedance compensation is provided, or for a 4-wire non-VNL facility.
  • Page 663 Figure 155 Pad orientation Analog System E&M Digital Circuit Card Port B Analog 553-AAA1156 Description and Installation...

  • Page 664: Applications

    Applications The optional applications, features and signaling arrangements for each trunk are assigned through unique route and trunk data blocks. Refer to the Features and Services (553-3001-306) for information about assigning features and services to trunks. PAD switching The transmission properties of each trunk are characterized by class-of-service (COS) assignments in the trunk data block (LD 14).
  • Page 665 IPE Ports Digital 2/4 Wire Line E&M Trunk -0.5 page Circuit Card 4 Wire CO/FX (ESN) E&M /WATS Trunk Loop Tie Trunk 666. In a typical application, this...
  • Page 666 Figure 156 Paging trunk operation System NT8D37 IPE Module Module NT8D14 I/O Panel Slot 0 Connector Universal Trunk Card (w-bl) (bl-w) Unit 0 (w-o) (o-w) Unit 1 Unit 7 553-3001-211 Standard 3.00 Cross connect Audio pair Signal pair Part of 25-pair cable August 2005...

  • Page 667: Nt8D41Aa Serial Data Interface Paddle Board

    Automatic Call Distribution (ACD) or Call Detail Recording (CDR) features. The SDI paddle board mounts to a special socket on the rear of the backplane of the following modules: • NT5D21 Core/Network module Page 667 of 906 Circuit Card Description and Installation...

  • Page 668: Physical Description

    • NT6D39 CPU/Network module • NT9D11 Core/Network module The SDI paddle board is compatible with all existing system software, but can only be used with the system options listed above. It does not support 20 mA current loop interface. Physical description The NT8D41AA Serial Data Interface paddle board is a printed circuit board measuring 31.12 by 12.7 cm (12.25 by 5.0 in.).
  • Page 669 Figure 157 NT8D41AA SDI paddle board Backplane mating connectors Option switches Enable/disable switch Port 1 connector (RS-232C) Option switches Port 2 connector (RS-232C) Option switches Circuit Card Description and Installation 553-5979...

  • Page 670: Functional Description

    Functional description The NT8D41AA SDI paddle board has two asynchronous serial ports. These serial ports are connected to the I/O panel in the back of the shelf using special adapter cables. The serial ports can be used to connect the system to a terminal, a printer, a modem, or to an other system processor.

  • Page 671: Connector Pin Assignments

    Data set ready (Note 1) Request to send (Not Used) Purpose in DCE mode Carrier detect (Not used) Received data Transmitted data Data terminal ready (Note 2) Ground Data set ready Request to send (Note 2) Circuit Card Description and Installation...

  • Page 672: Configuring The Sdi Paddle Board

    Table 211 Connectors J1 and J2 pin assignments (Part 2 of 2) Pin # Signal Purpose in DTE mode Clear to send (Note 1) Note 1: In DTE mode the signals CD, DSR, and CTS are tied to +12 volts to signify that the port on the SDI paddle board is always ready to transmit and receive data.

  • Page 673: Option Switch Settings

    SDI paddle board address switch settings Address Port 1 Port 2 Baud rate Switches SW2 and SW3 determine the baud rate for each individual port. The settings for these switches are shown in Table 213 on Switch SW4 Circuit Card page 674. Description and Installation...
  • Page 674 Table 213 SDI paddle board baud rate switch settings Baud rate 1200 2400 4800 9600 DTE/DCE/Fiber mode Each serial port can be configured to connect to a terminal (DTE equipment), a modem (DCE equipment), or a Fiber Superloop Network card. Instructions for setting the switches SW5, SW6, SW7, and SW8 are shown in Table 214 page 553-3001-211...
  • Page 675 Table 214 NT8D41AA DTE/DCE/Fiber switch settings Mode DTE (terminal) DCE (modem) NT1P61 (Fiber) Port 2 – SW7 DTE (terminal) DCE (modem) NT1P61 (Fiber) Port 1 – SW5 Circuit Card Port 1 – SW6 Port 2 – SW8 Description and Installation...
  • Page 676 Figure 159 SDI paddle board option switch locations Address selection Backplane mating connectors 553-3001-211 Standard 3.00 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 August 2005 Port 1...
  • Page 677 Double density SDI paddle board Enter the user of port x. The values that can be entered depend on the software being used. See the Software Input/ Output: Administration (553-3001-311) for details. Port is used for the system monitor. Circuit Card Description and Installation...

  • Page 678: Applications

    Applications The NT8D41AA Serial Data Interface paddle board is used to connect the switch to a variety of communication devices, printers, and peripherals. Any RS-232-C compatible device can be connected to either of the card’s two serial ports. The standard application for the paddle board is to connect the switch to the system console.
  • Page 679 Note 3: NT8D84 System monitor cable Filter adapters (Note 3) (Note 1) NT8D46 cable to connector J2 in the pedestal, where it will connect to the system monitor (Note 2) Circuit Card connector Module Backplane 553-3173 Description and Installation front...
  • Page 680 Page 680 of 906 NT8D41AA Serial Data Interface Paddle Board 553-3001-211 Standard 3.00 August 2005...

  • Page 681: Nt8D41Ba Quad Serial Data Interface Paddle Board

    Automatic Call Distribution (ACD) or Call Detail Recording (CDR) features. The QSDI paddle board mounts to a special socket on the rear of the backplane of the following modules: • NT5D21 Core/Network module Page 681 of 906 Circuit Card Description and Installation...

  • Page 682: Physical Description

    • NT6D39 CPU/Network module • NT9D11 Core/Network module The QSDI paddle board is compatible with all existing system software, but can only be used with the system options listed above. It does not support the 110 baud rate or the 20 mA current loop interface. Physical description The NT8D41BA Quad Serial Data Interface paddle board is a printed circuit board measuring 31.12 by 12.7 cm (12.25 by 5.0 in.).
  • Page 683 Port 2 (See Table 5) Baud rate for Port 3 (See Table 5) Baud rate for Port 4 (See Table 5) Circuit Card Enable Disable Port 1 RS-232 cable connector Port 2 DTE/DCE mode selection (See Table 7) Port 2 RS-232...
  • Page 684 Other logic on the card includes baud rate generators, RS-232-C driver/ receiver pairs, and the switches and logic needed to configure each UART. Figure 162 NT8D41BA QSDI paddle board block diagram Address decode logic Processor System considerations In dual-processor systems, the QSDI paddle board will behave differently depending on which backplane socket it is installed.

  • Page 685: Connector Pin Assignments

    Data set ready (Note 1) Request to send (Not Used) Purpose in DCE mode Data Carrier detect (Not used) Received data Transmitted data Data terminal ready (Note 2) Signal Ground Data set ready Request to send (Note 2) Circuit Card Description and Installation...
  • Page 686 Table 215 Connectors J1, J2, J3, and J4 pin assignments Pin # Signal Purpose in DTE mode Clear to send (Note 1) Note 1: In DTE mode the signals CD, DSR, and CTS are tied to +12 volts to signify that the port on the QSDI paddle board is always ready to transmit and receive data.

  • Page 687: Configuring The Qsdi Paddle Board

    QSDI page 691. (Part 1 of 2) SW13 (port 1), SW10 (port 2), SW11 (port 3), SW12 (port 4) Baud Clock (kHz) 2.40 4.80 9.60 19.20 38.40 Circuit Card Page 687 of 906 Description and Installation...
  • Page 688 Table 216 NT8D41BA baud rate switch settings Baud rate 4,800 9,600 19,200* For future use. Address Switch SW15 or SW16 and logic on the card always address the four UARTs using a pair of addresses: 0 and 1, 2 and 3 through 14 and 15. The settings for both switches are shown in Table 217.
  • Page 689 To enable ports 1 and 2, set SW15 position 1 to ON. To enable ports 3 and 4, set SW16 position 1 to ON. For each X, the setting for this switch makes no difference, because it is not used. Switch settings Circuit Card Description and Installation page 683...
  • Page 690 DTE/DCE/Fiber mode Each serial port can be configured to connect to a terminal (DTE equipment), a modem (DCE equipment), or a Fiber Superloop Network card. Instructions for setting the switches SW2, SW3, SW4, SW5, SW6, SW7, SW8, and SW9 are shown in Table 218. Figure 161 on switches on the paddleboard.
  • Page 691 Quad density QSDI paddle board. Enter the user of port x. The values that can be entered depend on the software being used. See the Software Input/ Output: Administration (553-3001-311) for details. Port is used for the system monitor. Circuit Card Description and Installation...

  • Page 692: Applications

    Applications The NT8D41BA Quad Serial Data Interface paddle board is used to connect the switch to a variety of communication devices, printers, and peripherals. Any RS-232-C compatible device can be connected to either of the card’s two serial ports. The standard application for the paddle board is to connect the switch to the system console.
  • Page 693 To connect J4 to system monitor, connect cable from the backplane from J1. NT8D84 System monitor cable connector Filter adapters (NT8D84 cable) (Note 1) NT8D46 cable to connector J4 in the pedestal, where it will connect to the system monitor (Note 2) Circuit Card Module front Backplane 553-8010 Description and Installation...

  • Page 694: Standard 3.00 August

    Page 694 of 906 NT8D41BA Quad Serial Data Interface Paddle Board 553-3001-211 Standard 3.00 August 2005...

  • Page 695: Ntag26 Xmfr Card

    You can install this card in any IPE slot. MF signaling The MF feature allows the system to receive digits for 911 or feature group D applications. Signaling levels MF signaling uses pairs of frequencies to represent digits. Page 695 of 906 Circuit Card Description and Installation...
  • Page 696 Table 219 lists the frequency values used for received signals. Table 219 MF frequency values Digit STP(ST’) ST2P(ST”) ST3P(ST”) 553-3001-211 Standard 3.00 Backward direction DOD-Tx, DID-Rx 700 Hz + 900 Hz 700 HZ + 1100 Hz 900 Hz + 1100 Hz 700 Hz + 1300 Hz 900 Hz + 1300 Hz 1100 Hz + 1300 Hz...
  • Page 697 XMFR receiver specifications Table 220 provides the operating requirements for the NTAG26 circuit card. Table 220 XMFR receiver specifications (Part 1 of 3) Coding: Input sensitivity: Frequency sensitivity: Amplitude Twist: Signal Duration: KP Signal Duration: Signal Interruption Bridge: Time Shift between 2 frequencies:...
  • Page 698 Table 220 XMFR receiver specifications (Part 2 of 3) Noise Rejection: Error Rate in White Noise Immunity to Impulse Noise Error Rate from Power Lines Tolerate Intermodulation: 553-3001-211 Standard 3.00 Better than: < 1/2500 calls Test: 10 digit calls nominal frequency @ -23 dBmO ON/OFF = 50 ms/50ms KP duration 100 ms SNR = -20 dB...
  • Page 699 Remain unlocked until ST, STP, ST2P or ST3P is received. After the initial KP, subsequent KP’s are ignored while in unlocked mode. If more than two valid frequencies are detected, no digit is reported to the CPU. Circuit Card Description and Installation...

  • Page 700: Physical Specifications

    Physical specifications The physical specifications required by the NTAG26 XMFR circuit card are shown in Table 221. Table 221 Physical specifications Dimensions Faceplate LED Power requirements Environmental considerations 553-3001-211 Standard 3.00 Height:12.5 in. (320 mm) Depth:10.0 in. (255 mm) Thickness:7/8 in. (22.25 mm) Lit when the circuit card is disabled 1.1 Amps typical...

  • Page 701: Ntak02 Sdi/Dch Card

    NTAK02 SDI/DCH card The optional SDI/DCH card provides up to four serial I/O ports, which are grouped into two pairs: • port 0 and port 1 • port 2 and port 3 Page 701 of 906 Circuit Card Description and Installation...
  • Page 702 Ports 1 and 3 are configured as DCH. Ports 0 and 2 are configured as SDI (not supported). See Table 222. Each pair is controlled by a switch, as shown in Table 223. Table 222 Port configurations Port 0 Port 1 Port 2 Port 3 Table 223...
  • Page 703 C - B B - A C - B B - A C - B B - A C - B B - A Circuit Card Jumper location RS422 C - B C - B C - B C - B...

  • Page 704: Connecting To The Ports

    Connecting to the ports External devices are connected to the SDI/DCH card by the following: • the NTAK19FB four-port SDI cable. This cable does not have to be terminated at the cross connect terminal since it is equipped with connectors. •...
  • Page 705 SCTA — — — SCTB CH/CI SCTEA RXCA SCTEB RXCB TXDA RXDA TXDB RXDB — — — — — Circuit Card RS232 Designations I=Input O=Output Signal — — — — — CH/CI — — — — — — — —...
  • Page 706 Table 227 NTAK02 connections at the cross-connect terminal – Port 2 Cable Signal Pair Color BK-G G-BK BK-BR BR-BK BK-S S-BK Y-BL BL-Y 553-3001-211 Standard 3.00 RS422 Designations I=Input O=Output — — — — — — — — — — —...
  • Page 707 SCTA — — — SCTB CH/CI SCTEA RXCA SCTEB RXCB TXDA RXDA TXDB RXDB — — — — — Circuit Card RS232 Designations I=Input O=Output Signal — — — — — CH/CI — — — — — — — —...

  • Page 708: Characteristics Of The Low Speed Port

    Characteristics of the low speed port Ports 0 and 2 are asynchronous, low speed ports. They transfer data to and from the line one bit at a time. The characteristics of the low speed port are as follows: • Baud rate: 300; 600; 1200; 2400; 4800; 9600; 19,200 Default = 1200 •...

  • Page 709: Ntak09 1.5 Mb Dti/Pri Card

    (DTI/PRI/DCH) card, which is described in “NTRB21 DTI/PRI/DCH TMDI card” on Contact your system supplier or your Nortel representative to verify that this card is supported in your area. page 825. Circuit Card Page 709 of 906 Description and Installation...

  • Page 710: Physical Description

    The clock controller and D-channel daughterboards are fastened by standoffs and connectors. See Figure 164 on page 710. Figure 164 NTAK09 DTI/PRI circuit card Stiffeners LEDs Bantam Jacks The NTAK09 DTI/PRI card has seven faceplate LEDs. The first five LEDs are associated with the NTAK09 card.
  • Page 711 The NTAK09 circuit card is disabled. The NTAK09 is not in a disabled state. The NTAK09 circuit card is in an active state. No alarm states exist, the card is not disabled, nor is it in a loopback state. An alarm state or loopback state exists, or the card has been disabled.
  • Page 712 NTAK09 DTI/PRI power on self-test When power is applied to the NTAK09 DTI/PRI circuit card, the card performs a self-test. The LEDs directly associated with the NTAK09 circuit card are DIS, ACT, RED, YEL, and LBK. The clock controller LED is also included in the power on self-test.

  • Page 713: Power Requirements

    Lightning protectors must be installed between an external T1 carrier facility and the system. For public T1 facilities, this protection is provided by the local operating company. In a private T1 facility environment (a campus, for example), the NTAK92 protection assembly can be used. Circuit Card Description and Installation...

  • Page 714: Functional Description

    The NTAK09 circuit card conforms to safety and performance standards for foreign and surge voltage protection in an internal environment. Functional description NTAK09 provides the following features and functions: • configurable parameters, including A-Law and µ-Law operation, digital pads on a per channel basis, and Superframe or Extended Superframe formats •...

  • Page 715: Architecture

    T-Link data: a set of transmit and receive vectored subroutines which provides T-Link protocol conversion to/from the DM-DM protocol. • Receive ABCD filtering: filters and debounces the receive ABCD bits and provides change of state information to the system. • Diagnostics • Self-test Circuit Card Description and Installation...

  • Page 716: Digital Pad

    Digital pad The digital pad is an EPROM whose address-input to data-output transfer function meets the characteristics of a digital attenuator. The digital pad accommodates both µ255-law and A-Law coding. There are 32 combinations each for µ255 to µ255, µ255 to A-Law, A-Law to µ255, and A-Law to A-Law. These values are selected to meet the EIA loss and level plan.

  • Page 717: D-Channel Interface

    DS-1 Carrier interface Transmitter The transmitter takes the binary data (dual unipolar) from the PCM transceiver and produces bipolar pulses for transmission to the external digital facility. The DS1 transmit equalizer enables the cabling distance to Circuit Card Description and Installation...
  • Page 718 extend from the card to the DSX-1 or LD-1. Equalizers are switch selectable through dip-switches. The settings are shown in Table 232. Table 232 NTAK09 switch settings Distance to Digital Cross-Connect 0 - 133 feet 133 - 266 feet 266 - 399 feet 399 - 533 feet 533 - 655 feet Receiver...

  • Page 719: Clock Controller Interface

    1.5 Mb DS1 clock to the 2.56 Mb system clock through the common multiple of 8 kHz by using the main frame synchronization signal. To DB-15 Signal name pin 3 pin 11 IMPORTANT! Circuit Card Description receive tip from network receive ring from network Description and Installation...
  • Page 720 Page 720 of 906 NTAK09 1.5 Mb DTI/PRI card 553-3001-211 Standard 3.00 August 2005...

  • Page 721: Ntak10 2.0 Mb Dti Card

    Introduction The NTAK10 2.0 Mb DTI card is a digital trunk card that provides an IPE-compatible 2.0 Mb DTI interface. This circuit card includes an on-board clock controller that can be manually switched in or out of service. You can install this card in slots 1 through 4 in the MG 1000S. The card is not supported in the MG 1000S Expansion.

  • Page 722: Physical Description

    On (Green) 553-3001-211 Standard 3.00 Definition The NTAK10 circuit card is disabled. The NTAK10 is not in a disabled state. The NTAK10 is in an out-of-service state. The NTAK10 is not in an out-of-service state. A near end alarm state has been detected.

  • Page 723: Functional Description

    The clock controller is switched on and locking onto the primary reference. The clock controller is switched off. Note: See “Clock controller interface” on chapter for more on tracking and free-run operation. Circuit Card page 729 in this Description and Installation...

  • Page 724: Architecture

    • per-channel and all-channel loopback capabilities for near-end and far-end • self-test • download of incoming ABCD validation times from software • warm SYSLOAD (TS16 AS16 transmitted) Applicability to France Features specific to DTI requirements for France are implemented in firmware, and are switch-accessed.
  • Page 725 Transmit data To transmit data on the carrier, the incoming serial bit stream from the NTAK02 circuit card is converted to 8-bit parallel bytes. The signaling bits are extracted by the signaling interface circuitry. Digital Pad: The parallel data is presented to the pad PROM. The PROM contains pad values, idle code, and A/µ-law conversion.
  • Page 726 • controlling LEDs • downloading Local Calling Areas (LCAs) • monitoring errors and alarms • detecting the change of state in TS0, and outputting TS0 data • counting bipolar violations, slips, PLL alarms, frame-alignment errors, and CRC-4 errors • monitoring the status of frame alignment and multiframe alignment •...
  • Page 727 This time is specified in the same message and ensures that the signal is detected correctly at the far end. (Switch Closed) — CC Disabled 75 ohms 120 ohms French Firmware — Circuit Card Description and Installation...
  • Page 728 With the exception of the outpulsing signals and special signals, such as Denmark's Flash signal and Sweden's Parking signal, the minimum duration of any signal state is 100 ms. Some signal states can have a minimum duration time that is longer than 100 ms. Periodic Pulse Metering (PPM) Periodic Pulse Monitoring (PPM) is used to collect toll charges on outgoing CO trunk calls.
  • Page 729 Central Offices (COs), if the COs are not synchronized. The slips can degrade voice quality. Clocking modes The clock controller can operate in one of two modes: tracking or non-tracking (also known as free-run). IMPORTANT! clocked to an external reference clock. Circuit Card Description and Installation...
  • Page 730 Tracking mode There are two stages to clock controller tracking: • tracking a reference, and • locked onto a reference. When tracking a reference, the clock controller uses an algorithm to match its frequency to the frequency of the incoming clock. When the frequencies are very near to being matched, the clock controller is locked onto the reference.
  • Page 731 On failure (both out of specification), the clock controller enters the HOLDOVER mode and continuously monitors both references. An automatic switchover is initiated to the reference that recovers first. If the secondary recovers first, then the clock controller tracks to the Circuit Card Description and Installation...
  • Page 732 Page 732 of 906 NTAK10 2.0 Mb DTI card secondary, but switches over to the primary whenever the primary recovers. If the primary recovers first, then the clock controller tracks to the primary. If the software command “track to secondary” is given, the clock controller tracks to the secondary reference and continuously monitors the quality of both primary and secondary references.

  • Page 733: Switch Settings

    This is indicated by a white dot printed on the board next to the bottom left corner of each individual switch. (Switch Open) — CC Enabled 120 ohms 75 ohms non-French Firmware — Circuit Card (Switch Closed) — CC Disabled 75 ohms 120 ohms French Firmware — Description and Installation...
  • Page 734 Page 734 of 906 NTAK10 2.0 Mb DTI card 553-3001-211 Standard 3.00 August 2005...

  • Page 735: Ntak20 Clock Controller Daughterboard

    The NTAK20 clock controller daughterboard mounts directly on the following cards: • NTAK09 1.5Mb DTI/PRI • NTBK50 2.0 Mb PRI • NTRB21 DTI/PRI/DCH TMDI • NTBK22 MISP • NT6D70 SILC • NT6D71 UILC Page 735 of 906 Circuit Card Description and Installation...
  • Page 736 Note: The card is restricted to slots 1 through 3 in EMC- type cabinets (such as NAK11Dx and NTAK11Fx cabinets). It will not work in slots 4 through 10 in these cabinets. The NTAK20 clock controller card can support 1.5 Mb, 2.0 Mb, and 2.56 Mb clock recovery rates.

  • Page 737: Clocking Modes

    LED continuously flashes green. This condition does not present a problem. It shows that the clock controller is continually attempting to lock onto the signal. If slips occur, there is a problem with the clock controller or the incoming line. Circuit Card Description and Installation...

  • Page 738: Physical Description

    Free-run (non-tracking) In free-run mode, the clock controller does not synchronize on any outside source. Instead, it provides its own internal clock to the system. This mode can be used when the system acts as a master clock source for other systems in the network.

  • Page 739: Functional Description

    A second PLL on the clock controller provides the means for monitoring another reference. Note that the error signal of this PLL is routed to the phase difference detector circuit so the microprocessor can process it. Circuit Card Description and Installation...
  • Page 740 System clock specification and characteristics Since the accuracy requirements for CCITT and EIA Stratum 3 are different, it is necessary to have two TCVCXOs which feature different values of frequency tuning sensitivity. See Table 238. Table 238 System clock specification and characteristics Specifications Base Frequency Accuracy...

  • Page 741: Digital To Analog Converter

    PLL. The firmware uses the available memory on the clock controller to provide error-burst detection and correction. Temporary holdover occurs in the momentary absence of the reference clock. Circuit Card Description and Installation...

  • Page 742: Cpu-Mux Bus Interface

    Holdover and free-run In the temporary absence of a synchronization reference signal, or when sudden changes occur on the incoming reference due to error bursts, the clock controller provides a stable holdover. Free-run mode is initiated when the clock controller has no record of the quality of the incoming reference clock. If the command “free run”...

  • Page 743: External Timing Interface

    Temperature Humidity Vibration/Shock Specification FCC part 15 sub- part J CSA C108.8 CISPR publication 22 IEC 801-2 IEC 68-2-1 IEC 68-2-2 IEC 68-2-14 IEC 68-2-3 IEC 68-2-6 IEC 68-2-7 IEC 68-2-29 IEC 68-2-31 IEC 68-2-32 Circuit Card Description and Installation...
  • Page 744 Page 744 of 906 NTAK20 Clock Controller daughterboard 553-3001-211 Standard 3.00 August 2005...

  • Page 745: Ntak79 2.0 Mb Pri Card

    You can install this card in slots 1 through 4 in the MG 1000S. The card is not supported in the MG 1000S Expansion. Note: Up to three four trunk cards are supported in each MG 1000S. Page 745 of 906 Circuit Card Description and Installation...

  • Page 746: Physical Description

    Physical description The NTAK79 uses a standard 9.5" by 12.5" multi-layer printed circuit board. The faceplate is 7/8” wide. The NTAK79 circuit card has a total of seven faceplate LEDs. Five of the LEDs are directly associated with the operation of the Primary Rate interface (PRI).
  • Page 747 CC STAT in LD 60. If the CC is tracking this can be an acceptable state. Check for slips and related clock controller error conditions. If none exist, then this state is acceptable, and the flashing is identifying jitter on the reference. Circuit Card Description and Installation...
  • Page 748 Table 239 NTAK79 LEDs (Part 3 of 3) State On (Red) On (Green) NTAK79 switches The NTAK79 card incorporates four on-board dip switches. The tables that follow provide information on the various settings and related functions of these switches. Note: The ON position for all the switches is towards the bottom of the card.
  • Page 749 NTAK79 2.0 Mb PRI card Page 749 of 906 Figure 165 NTAK79 card with switch locations NTAK79 Faceplate Switch 3 Switch 1 LEDs Switch 2 Switch 4 Jack 553-7869.EPS Circuit Card Description and Installation...
  • Page 750 Switch SW1 – DCHI Configuration This switch enables/disables the on-board DCHI and sets the operating mode of the DCHI. DPNSS1 mode is not supported at this time. For all other countries that do not use DPNSS, use Q.931 mode. Table 240 Switch SW1 Switch SW 1-1...

  • Page 751: Power Requirements

    Bipolar Violations (BPV), Slips, CRC-4 (CRC), and Frame Bit Errors (FBER) Down (On) Up (Off) Rx – FGND Rx – OPEN Tx – FGND Tx – OPEN Circuit Card Description and Installation...

  • Page 752: Architecture

    • monitoring of receive carrier alarms including AIS, LOS, and RAI • transmission of remote alarm when instructed • slip-buffering receive messages • supporting National and International bits in time slot 0 • on-board clock controller • onboard D-channel interface •...
  • Page 753 0.6 dB 1.0 dB 2.0 dB 3.0 dB 4.0 dB 5.0 dB 6.1 dB 7.0 dB 8.0 dB 9.0 dB Circuit Card PAD SET 1 0.0 dB –1.0 dB –2.0 dB –3.0 dB –4.0 dB –5.0 dB –6.0 dB –7.0 dB –8.0 dB...

  • Page 754: Signaling Interface

    Table 244 Digital pad values and offset allocations (Part 2 of 2) PAD SET 0 Offset Signaling interface The signaling interface consists of the A07 DS-30X signaling controller. This interface provides an 8 Kbps signaling link through the DS-30X timeslot zero data bit zero.

  • Page 755: Carrier Grounding

    The clock and data recovery meets or exceeds the jitter specifications of the CCITT recommendation G.823, and the jitter attenuation Carrier Pair Rx shield Open Tx shield Open Circuit Card Description and Installation...

  • Page 756: Cept Transceiver

    requirements of the CCITT recommendation G.742. This provides jitter attenuation increasing from 0 dB to 60 dB over the frequency range from about 6 Hz to 6 KHz. Transmitter functions The transmitter takes the binary (dual unipolar) data from the PCM transceiver and produces bipolar pulses which conform to the CCITT recommendation G.703 pulse shape.
  • Page 757 NTAK02 SDI/DCH pack. This enables for a completely operational ISDN PRA link with clock synchronization and D-channel on a single circuit card. The onboard D-channel has one status LED on the NTAK79 faceplate to indicate enabled/disabled states.

  • Page 758: Card-Lan Interface

    Card-LAN interface A Dual Port UART handles the functions of the serial ports for the Card-LAN serial link and the echo canceller/test port interface. The echo/test interface is an asynchronous 4800 bps 8-bit connected to port A of the UART. The Card-LAN interface is an asynchronous 19.2 kbps 9 bit start/stop connected to port B of the UART.
  • Page 759 CPU through the backplane. Up to two references at a time are accepted • primary to secondary switchover (auto-recovery is provided) • prevent chatter • error burst detection and correction, holdover, and free running capabilities • compliance with 2.0Mb CCITT specifications • software communication Circuit Card Description and Installation...
  • Page 760 • jitter filtering • use of an algorithm to detect crystal aging and to qualify clocking information Reference switchover Switchover may occur in the case of reference degradation or reference failure. When performance of the reference degrades to a point where the system clock is no longer allowed to follow the timing signal, then the reference will be said to be out of specification.
  • Page 761 This is not intended to be a dedicated non-traffic bearing timing signal. The clock controller uses either the two external/auxiliary references or the NTAK79 references. Circuit Card Description and Installation...
  • Page 762 Page 762 of 906 NTAK79 2.0 Mb PRI card 553-3001-211 Standard 3.00 August 2005...

  • Page 763: Ntak93 D-Channel Handler Interface Daughterboard

    NTAK93 daughterboard can use SDI I/O addresses 1 to 15 and port 1. The NTAK93 provides the following features and functions: • D-channel interface or DPNSS interface • Special features included for LAPD implementation at DCH: Page 763 of 906 Circuit Card Description and Installation...

  • Page 764: Physical Description

    — system parameters are service changeable (system parameters are — incoming Layer 3 message validation procedures are implemented — supported message units and information elements can be service — translation of the CCITT message types information elements into a — convention of IA5-encoded digits to BCD-encoded digits for —...

  • Page 765: Power Consumption

    The microprocessors also handle some D-channel data processing in DCHI mode. Definition NTAK93 is equipped and disabled. NTAK93 is equipped and enabled, but not necessarily established. NTAK93 is not equipped. Circuit Card Description and Installation...

  • Page 766: Dma Controller

    DMA controller A Z80A-DMA chip controls the data transfer between local RAM memory and communication ports. The DMA channels are only used in the receive direction (from line to SSC), not in the transmit direction. Random Access Memory (RAM) A total of 32 KBytes of RAM space for each pair of ports is used as the communication buffer and for firmware data storage.

  • Page 767: D-Port - Sdti/Pri Interface

    TR: D-PORT ready signal provided by DCHI-PORT • RDA, RDB: Incoming serial data bit stream, driven by SDTI/PRI • SDA, SDB: Transmit serial data bit stream driven by DCHI-PORT 56kbps, 64kbps Full Internal / External RS422 Circuit Card Description and Installation...
  • Page 768 Page 768 of 906 NTAK93 D-channel Handler Interface daughterboard 553-3001-211 Standard 3.00 August 2005...

  • Page 769: Ntbk22 Misp Card

    MG 1000S Expansion. Note: When configuring BRI trunks, the MISP (NTBK22) card must be co-located in the same MG 1000S as the SILC (NT6D70) and UILC (NT6D71) cards the MISP is supporting. Page 769 of 906 Circuit Card Description and Installation...

  • Page 770: Functional Description

    Refer to ISDN Basic Rate Interface: Installation and Configuration (553-3001-218) and ISDN Basic Rate Interface: Features (553-3001-380) for additional information. Functional description Each MISP can support 4 line cards (UILC or SILC or any combination of the two). Each line card supports 8 DSLs, therefore each MISP supports 32 DSLs.

  • Page 771: Power Consumption

    HDLC controller and converts it into a bit interleaved data stream for transmission over the network bus Power consumption Power consumption is +5V at 2 A; +15V at 50 mA; and -15V at 50 mA. Circuit Card Description and Installation...
  • Page 772 Page 772 of 906 NTBK22 MISP card 553-3001-211 Standard 3.00 August 2005...

  • Page 773: Ntbk50 2.0 Mb Pri Card

    D-channel interface or the NTBK51 Downloadable D-channel handler. The NTAK93 DCHI daughterboard provides identical performance to the on-board NTAK79 DCHI. The NTBK51 DDCH daughterboard provides support for protocols based on the MSDL platform. Page 773 of 906 Circuit Card Description and Installation...

  • Page 774: Physical Description

    You can install this card in slots 1 through 4 in the MG 1000S. The card is not supported in the MG 1000S Expansion. Each MG 1000S that has a digital trunk must have a clock controller Note: Clocking slips can occur between MG 1000S systems that are clocked from different Central Offices (COs), if the COs are not synchronized.
  • Page 775 Figure 166 NTBK50 2.0 Mb PRI card with daughterboards Stiffeners LEDs Bantam Jacks Standoffs Circuit Card NTAK20 Clock Controller Connector Sockets NTAK93 or NTBK51 D-Channel Interface 553-7872 553-CSE7872 Description and Installation...
  • Page 776 The NTBK50 2.0 Mb PRI is not in a disabled state. The NTBK50 2.0 Mb PRI circuit card is in an active state. The NTBK50 2.0 Mb PRI is in a disabled state. The OOS LED is red.

  • Page 777: Power Requirements

    If none exist, then this state is acceptable, and the flashing is identifying jitter on the reference. The clock controller is not equipped. DCH is disabled. DCH is enabled, but not necessarily established. DCH is not equipped. Circuit Card Description and Installation...

  • Page 778: Architecture

    • monitoring of receive carrier alarms including AIS, LOS, and RAI • transmission of remote alarm when instructed • slip-buffering receive messages • support of National and International bits in timeslot 0 • clock controller daughterboard • D-channel interface daughterboard •...
  • Page 779 0.6 dB 1.0 dB 2.0 dB 3.0 dB 4.0 dB 5.0 dB 6.1 dB 7.0 dB 8.0 dB Circuit Card page 779. The values shown are PAD SET 1 0.0 dB -1.0 dB -2.0 dB -3.0 dB -4.0 dB -5.0 dB -6.0 dB...

  • Page 780: Carrier Interface

    Table 250 Digital Pad - values and offset allocations (Part 2 of 2) PAD SET 0 Offset Signaling interface The signaling interface consists of the A07 DS-30X signaling controller. This interface provides an 8 Kbps signaling link via the DS-30X timeslot zero data bit zero.
  • Page 781 Carrier Shield grounding switch settings Switch SW 4 – 1 SW 4 – 2 SW 2-1 Down (On) Up (Off) Down (On) Up (Off) Rx – FGND Rx – OPEN Tx – FGND Tx – OPEN Circuit Card Description and Installation...
  • Page 782 Carrier Shield grounding (Switch SW4) Table 253 lists the Carrier Shield ground switch settings. Table 253 Carrier Shield grounding switch settings Note: The usual method is to ground the outer conductor of the receive coax signal. Receiver functions The receiver extracts data and clock from an AMI (Alternate Mark Inversion) coded signal and outputs clock and synchronized data.
  • Page 783 The NTAK93 DCHI daughterboard can be operated in two separate modes defined by an on-board dip switch. It can operate in a standard DCHI mode common to most ISDN standard countries. It can also operate in a DPNSS Circuit Card Description and Installation...
  • Page 784 mode, which is not supported at this time. The DDCH supports only a single port which directly interfaces to the PRI motherboard. See Table 254. Table 254 Settings for the DCHI dip switch (SW1) Switch Card-LAN interface A Dual Port UART handles the functions of the serial ports for the Card-LAN serial link test port interface.

  • Page 785: Daughterboard

    The NTBK51 provides the following features and functions: • ISDN D-channel related protocol • Selftest • Loopback • D-channel loadware including: — management and maintenance — LAPD- software for data link layer processing Page 785 of 906 Circuit Card Description and Installation...

  • Page 786: Physical Description

    — DCH interface — layer 3 preprocessor — traffic reporting including link capacity Physical description The NTBK51 daughterboard interfaces with the system CPU and is mounted on either the NTAK09 1.5 DTI/PRI card or the NTBK50 2 Mb PRI digital trunk card.

  • Page 787: Functional Description

    CS 1000S, CS 1000M Cabinet, and Meridian 1 PBX 11C Cabinet and the card • four port serial communication controller handling with Direct Memory Access (DMA) • program download from the Small System Controller Circuit Card Description and Installation...

  • Page 788: Main Memory

    Main memory The main 68EC020 system memory is comprised of 1 Mbyte of SRAM and is accessible in 8 or 16 bits. The software, base code and application reside in main RAM and is downloaded from the software through the shared memory. Shared memory The shared memory is the interface between the CPU and the 68EC020 MPU.

  • Page 789: Download Operation

    MSDL base software. Card enabling or application enabling If a normal download enable command is executed, the MSDL base code and application is conditionally downloaded to the DDCH card. This conditional Circuit Card Description and Installation...

  • Page 790: Card Reset

    download depends on the result of the check made by the CPU on the MSDL base code and application software. If a forced download enable command is executed in LD 96, the MSDL base code and application are forced down to the DDCH card, even if the base and application software is already resident on the DDCH card.

  • Page 791: Contents

    Central Office trunks. They can be installed in any IPE slot. The cards are available with or without the Periodic Pulse Metering (PPM) feature. The cards are also available in numerous countries. Country specific information is provided in this chapter. Page 791 of 906 Circuit Card Description and Installation...
  • Page 792 The cards are identified by a two-letter suffix to the product code called the vintage. The card vintage is based on whether PPM is equipped or not, and the individual countries where the card is being installed. The cards listed below are minimum vintage required to support the following countries: •...

  • Page 793: Physical Description

    The NTCK16AX and NTCK16BX generic Central Office trunk cards: • support the North American loss plan • support loop start signalling • support busy tone detection and supervision on a per unit basis. • support battery reversal detection Circuit Card Description and Installation...

  • Page 794: Operation

    Loss Switching • Trunk-to-Trunk connections • Call Disconnect In addition, the NTCK16AX circuit card supports internal 12/16 kHz PPM detection. Loop start operation Loop start operation is configured in software and is implemented in the card through software download messages.
  • Page 795 The CS 1000S, CS 1000M, and Meridian 1 disconnects the call by removing the loop between the tip and ring leads and replacing the ringing detector. Trunks configured for battery supervision send a release confirm message to software. Circuit Card Description and Installation...

  • Page 796: Electrical Specifications

    Note 2: 8.5V is regulated to give 5 V. Environmental specifications Table 257 lists the environmental specifications of the NTCK16AX and NTCK16BX generic Central Office trunk cards. Table 257 NTCK16 circuit card environmental specifications (Part 1 of 2) Parameter Operating temperature Operating humidity 553-3001-211 Standard 3.00...

  • Page 797: Connector Pin Assignments

    Table 257 NTCK16 circuit card environmental specifications (Part 2 of 2) Parameter Storage temperature Storage humidity Pad switching The NTCK16AX and NTCK16BX generic Central Office trunk cards support the North American loss plan. Software configuration allows the selection of 4 dB loss pads on a per unit basis.
  • Page 798 Figure 167 NTCK16 Central Office trunk connections for NT8D37 I/O panel connectors A, E, K, R Lead designations 553-3001-211 Standard 3.00 P i n s P a i r I / O P a n e l C o n n e c t o r C o lo r W-BL BL-W...
  • Page 799 O-BK BK-G G-BK BK-BR BR-BK BK-S S-BK Y-BL BL-Y Y-BR BR-Y V-BL BL-V V-BR BR-V Circuit Card U n i t N u m b e r Unit Unit Unit Unit Unit Unit Unit Unit Unit Unit Unit Unit Description and Installation...
  • Page 800 Figure 169 NTCK16 Central Office trunk connections for NT8D37 I/O panel connectors C, G, M, T Lead designations 553-3001-211 Standard 3.00 P i n s P a i r I / O P a n e l C o n n e c t o r C o l o r W-BL BL-W...
  • Page 801 Media Gateway 1000B, and Media Gateway 1000T Define trunk type as Central Office Incoming and Outgoing trunk Change a trunk timer Set Ring Validation Timer to 128 ms. PPM is off, buffered, or unbuffered on this route. Circuit Card Description and Installation...
  • Page 802 Trunk Data Block Respond to the prompts in LD 14 as shown: LD 14 – Trunk Data Block for NTCK16AX. (Part 1 of 2) Prompt Response REQ: TYPE: l s c u XTRK XCOT (See note on page 803.) CDEN (8D) SIGL PPID...
  • Page 803 Make-break ratio for pulse dialing speed. 200 ms off, 200 ms on; 200 ms off, 200 ms on; 200 ms off, 200 ms on; 200 ms off, 600 ms on; followed by Tone 2: 200 ms off, 200 ms on. Circuit Card Description and Installation...
  • Page 804 NTCK16BX Central Office trunk card Route Data Block Respond to the prompts in LD 16 as shown: LD 16 – Route Data Block for NTCK16BX. Prompt Response REQ: TYPE: CUST ROUT 0-511 0-127 TKTP ICOG CNTL TIMER RGV 256 (NO) 553-3001-211 Standard 3.00 Description...
  • Page 805 Ireland = 3 or 9 (depending on CO) Kuwait, Chile, Venezuela, Indonesia, Thailand, Korea = 06. Argentina = 12 or 07, Turkey = 14 Supervision yes (no) Busy tone supervision enabled Loop break supervision enabled Attenuation Pads In, (Out) Circuit Card Description and Installation...
  • Page 806 LD 14 – Trunk Data Block for NTCK16BX. (Part 2 of 2) Prompt Response (DIP) DTN (P10) P12 P20 Note 1: These prompts are required only for the first unit defined on each NTCK16BX card. 553-3001-211 Standard 3.00 Description Digitone signaling, (digipulse) Make-break ratio for pulse dialing speed.

  • Page 807: Applications

    Note: PPM is available on the NTCK16AX trunk card. It is not supported on the NTCK16BX trunk card. PPM allows the user of a telephone to keep an accurate record of Central Office calls for billing or administration purposes. Circuit Card Description and Installation...

  • Page 808: Busy Tone Detect

    Detection limits Pulses detected by the NTCK16AX circuit card must be within the following limits: Frequency Level Pulse length Busy tone detect Busy tone is sent by the Central Office to indicate the release of an established call. Detection limits...
  • Page 809 Description LOL= Long Line Note: The XFCOT uses the CLS Long Line (LOL) and Short Line (SHL) for Loss Switching purposes and that the card and trunk type is different from the XUT. Circuit Card Description and Installation...

  • Page 810: Trunk To Trunk Connection

    Equivalencies The following equivalencies do apply: • XFCOT COT SHL is equivalent with XUT COT TRC • XFCOT COT LOL is equivalent with XUT COT NTC. The entries TRC and NTC will no longer be allowed for the Generic XFCOT. Trunk to Trunk connection When any disconnect supervision is configured (CLS = BAT, BTS) the Loop Start Trunk of the Generic XFCOT will be marked as having disconnect...

  • Page 811: Contents

    10 in the MG 1000S Expansion The NTDK20FA SSC card is the minimum vintage of SSC that can be used in the Call Server and MG 1000S. See Figure 170 on Page 811 of 906 page 813. Circuit Card Description and Installation...
  • Page 812 The NTDK20GA SSC card has the following components and features: • NTTK25 daughterboard Flash memory, NTAK19 SIMM module (16 MB) DRAM, and Backup memory Note: The NTTK13 daughterboard is still supported. • up to two 100BaseT IP daughterboards • two PCMCIA sockets •...
  • Page 813 Flash ROM Drive Security Device PCMCIA Drive 100BaseT daughterboard Ports 1 & 3 for MG 1000S systems 1 and 3 Connector for 2nd 100BaseT daughterboard. Ports 2 and 4 for Media Gateways 2 and 4 Circuit Card Description and Installation...

  • Page 814: Memory

    Memory The majority of system and customer configured data is both controlled and stored on the NTDK20 SSC card’s Flash ROM. An active and backup copy of customer data is also kept on the Flash ROM. In the event of data loss, the NTDK20 SSC card also retains a copy of customer files in an area called the Backup flash drive.

  • Page 815: 100Baset Ip Daughterboards

    Ethernet Compatible Media Converter with a McLIM Tx/Fx-SM/Plus module was tested by Nortel. It provided acceptable transmission between the Call Server and the MG 1000S located up to 40 kms apart. page 816. Circuit Card page 817 provides Description and Installation...

  • Page 816: Standard 3.00 August

    Page 816 of 906 NTDK20 Small System Controller card Figure 171 NTDK83AA dual-port 100BaseT IP daughterboard Figure 172 NTDK99A single-port 100BaseT IP daughterboard 553-3001-211 Standard 3.00 August 2005...
  • Page 817 40 km (24 miles) from MG 1000S using the the Call Server if a third party 100BaseT converter is used to convert to daughterboards. fiber. The NTTK34AA cross-over cable must be used if connecting point-to-point. page 818. Circuit Card Description and Installation...

  • Page 818: Pc Card Interface

    Figure 173 Call Server connection to Media Gateway 1000S systems Call Server connection to Media Gateway 1000S Call Server Software Daughterboard Dual Port 100BaseT Daughterboard Dual Port 100BaseT Daughterboard • The Call Server connects to the LAN via dual port daughterboards. •...

  • Page 819: Security Device

    ID of the Call Server and the MG 1000S has been confirmed. • System software can be upgraded. Note: Local data dump, LD 43 commands, and LD 143 commands are not permitted. page 813 for the location of the device. Circuit Card Description and Installation...

  • Page 820: Sdi Ports

    SDI ports The NTDK20 SSC card in both the Call Server and the MG 1000S systems contains three SDI ports used to connect on-site terminals or remote terminals through a modem. Table 260 shows the port default settings. Table 260 Default SDI port settings on the NTDK20 SSC card TTY Port Baud rate...

  • Page 821: Mg 1000S/Expansion Card Slot Assignment

    Slot 2 of the first MG 1000S, use logical Slot 12. To configure a card physically located in Slot 2 of the second MG 1000S, use logical Slot 22. See Table 261 on page 822. Circuit Card Description and Installation...
  • Page 822 Table 261 MG 1000S and MG 1000S Expansion slot assignments First Physical Logical card card slot MG 1000S MG 1000S/ Expansion Legend * Not supported. 553-3001-211 Standard 3.00 MG 1000S/MG 1000S Expansion Second Physical Logical card card slot slot slot August 2005 Third Fourth...
  • Page 823 NTDK20 Small System Controller card Page 823 of 906 Figure 174 MG 1000S slots Media Gateway 1000 553-AAA1991 Circuit Card Description and Installation...
  • Page 824 Page 824 of 906 NTDK20 Small System Controller card Figure 175 MG 1000S Expansion slots Media Gateway 1000 and Media Gateway 1000 Chassis Expansion 553-AAA1992 553-3001-211 Standard 3.00 August 2005...

  • Page 825: Contents

    NTAK09 • an extra loadware application to handle Layer 1 • a change to the existing loadware files into 32 bit format from the original 16 bit format Page 825 of 906 Circuit Card Description and Installation...

  • Page 826: Physical Description

    To provide CEMUX communication with the card, changes are also required to create an I/O entry for the card. You can install this card in slots 1 through 4 in the MG 1000S. The card is not supported in the MG 1000S Expansion. Up to four digital trunks are supported in each MG 1000S.
  • Page 827 NTRB21 DTI/PRI/DCH TMDI card Page 827 of 906 Figure 176 NTRB21 TMDI card with clock controller Connector Socket Stiffeners 1 2 3 4 Connector Pins LEDs NTAK93/51 Clock Controller Bantam Jacks Mounting Holes Standoffs 553-CSE9024 Circuit Card Description and Installation...
  • Page 828 The NTRB21 circuit card is disabled. The NTRB21 is not in a disabled state. The NTRB21 circuit card is in an active state. No alarm states exist, the card is not disabled, nor is it in a loopback state. An alarm state or loopback state exists, or the card has been disabled.
  • Page 829 Figure 177 NTRB21 TMDI card faceplate TMDI MAINT Monitor Port RS232 553-CSE0007 Circuit Card Description and Installation...

  • Page 830: Functional Description

    In a private T1 facility environment (a campus, for example), the NTAK92 protection assembly can be used. The NTRB21 circuit card conforms to safety and performance standards for foreign and surge voltage protection in an internal environment.

  • Page 831: Software Description

    Interconnection The interconnection to the carrier is by NTBK04, a 1.5 Mb 20 ft. carrier cable. The NT8D97AX, a fifty-foot extension cable, is also available. page 832 shows a faceplate of the NTRB21 TMDI card. Circuit Card Description and Installation...
  • Page 832 Figure 178 NTRB21 TMDI card faceplate 553-3001-211 Standard 3.00 RS232 Monitor Port August 2005 TMDI MAINT...
  • Page 833 µ255-Law and A-Law coding. There are 32 combinations each for µ255 to µ255, µ255 to A-Law, A-Law to µ255, and A-Law to A-Law. These values are selected to meet the EIA loss and level plan. Circuit Card Description and Installation...
  • Page 834 Table 263 Digital pad values and offset allocations D-channel interface The D-channel interface is a 64 kbps, full-duplex, serial bit-stream configured as a Data Circuit-terminating Equipment (DCE) device. The data signals include: • receive data output • transmit data input 553-3001-211 Standard 3.00 Offset...
  • Page 835 The Digital Signal – Level 1 (DS-1) transmit equalizer enables the cabling distance to be extended from the card to the Digital Signal Circuit Card Description and Installation...
  • Page 836 Cross-connect – Level 1 (DSX-1), or LD-1. Equalizers are switch selectable through dip-switches. The settings are shown in Table 264. Table 264 NTRB21 switch settings Distance to Digital Receiver The receiver extracts data and clock from an incoming data stream and outputs clock and synchronized data.

  • Page 837: Ntak20 Clock Controller (Cc) Daughterboard

    NTAK20BD and NTAK20BA versions meet CCITT stratum 4 specifications. See “NTAK20 Clock Controller daughterboard” on Signal name Description transmit tip to network transmit ring to network FGND frame ground receive tip from network receive ring from network Circuit Card Description and Installation page 735.
  • Page 838 Each MG 1000S that has a digital trunk must have a clock controller clocked to an external reference clock. If an IP Expansion multi-cabinet system is equipped with digital trunk cards, it is mandatory that at least one trunk card is placed in the Main Option 11C cabinet.

  • Page 839: Physical Description

    Note: Up to four Media Cards can be installed in each MG 1000S. Up to four Media Cards can be installed in each MG 1000S Expansion. An NTVQ01xx Media Card is shown in Figure 179. Page 839 of 906 Circuit Card Description and Installation...
  • Page 840 Page 840 of 906 NTVQ01xx Media Card Figure 179 NTVQ01xx Media Card The NTVQ01xx Media Card provides faceplate and backplane interfaces, which are used to connect external LANs. This section provides information on the faceplate connectors and indicators. 553-3001-211 Standard 3.00 August 2005...

  • Page 841: Hardware Architecture

    PC card-based software upgrades or backups. It also indicates the progress of the internal self-test in the form of T:xx. page 842 shows the NTVQ01xx Media Card faceplate. Circuit Card Description and Installation...
  • Page 842 Figure 180 NTVQ01xx Media Card faceplate 553-3001-211 Standard 3.00 Reset Button Reset Enable LED PCMCIA Slot Ethernet Activity LEDs HEX Display NTVQ01AA Maintenance Port Lock Latches August 2005 553-MIRAN0001...

  • Page 843: Functional Description

    DSPs perform media transcoding between IP voice packets and circuit-switched devices. The Media Card also provides echo cancellation and compression/decompression of voice streams. Survivability Refer to Communication Server 1000S: Installation and Configuration (553-3031-210) for instructions on configuring the card for survivability. Circuit Card Description and Installation...
  • Page 844 Page 844 of 906 NTVQ01xx Media Card 553-3001-211 Standard 3.00 August 2005...

  • Page 845: Physical Description

    ITG-P card faceplate and an alternative connection to the same serial port on the I/O backplane. Note: Do not connect maintenance terminals to the faceplate and I/O panel serial maintenance port connections at the same time. Page 845 of 906 Circuit Card Description and Installation...

  • Page 846: Functional Description

    Functional description Figure 181 on information in this section describes the components. Faceplate components The faceplate connector labeled NWK is a 9-pin, sub-miniature D-type connector. The connector is not used for the ITG-P application. ITG-P LED (Card Status) The red status faceplate LED indicates the enabled/disabled status of the 24-card ports.
  • Page 847 Reset Status NWK LEDs (Ethernet) Type III PCMCIA slot (ATA Drive A:) Four-character LED-based Matrix Maintenance Display NTVQ55AA Maint Inboard: Port - Type III PCMCIA slot (ATA Drive B:) - Onboard Flash Drive C: Circuit Card 553-CSE9150 Description and Installation...

  • Page 848: Backplane Interfaces

    NWK Status LED NWK Status LEDs display the TLAN interface card Ethernet activity: • Green – on if the carrier (link pulse) is received from the TLAN interface card Ethernet hub. • Yellow – flashes when there is TLAN interface card data activity. During heavy traffic, yellow can stay continuously lit.

  • Page 849: Assembly Description

    Card LAN carries card polling and initialization messages on the backplane between the ITG-P card and the SSC. Assembly description The ITG-P card assembly consists of a two-slot motherboard/daughterboard combination. A PCI interconnect board connects the ITG-P motherboard and the DSP daughterboard. Circuit Card Description and Installation...
  • Page 850 Page 850 of 906 NTVQ55AA ITG Pentium card 553-3001-211 Standard 3.00 August 2005...

  • Page 851: Introduction

    Use either the NT8D41 SDI paddle board or the QPC841 Quad Serial Data Interface card to connect the switch to an asynchronous serial peripheral. Page 851 of 906 Circuit Card Description and Installation...

  • Page 852: Physical Description

    Each system can accommodate up to eight ESDI cards, for a total of 16 synchronous ports per system. The ESDI cards can be housed in the network slots of any of the following modules: • NT5D21 Core/Network module (slots 0 through 7) •...
  • Page 853 Figure 182 CPC513 ESDI card front panel Card lock latch Card lock latch CSL/ ESDI Enable/disable switch ESDI port 1 connector ESDI port 2 connector 553-5981 Circuit Card Description and Installation...

  • Page 854: Functional Description

    Functional description The QPC513 ESDI card is an intelligent, two-port synchronous serial data interface card. See Figure 183. The two serial input/output data ports terminate on DB-25 connectors on the front panel of the card. Each port operates independently in synchronous mode, in half or full duplex, at speeds of up to 64 kbps.

  • Page 855: Synchronous Communication

    Administration (553-3001-311) to modify the link control system parameters and performance thresholds. Note 2: The values in parentheses are the default. 901. Description half, (full) 1200, 2400, (4800), 9600, 19200, 48000, 56000, 64000 (internal), external (1), 3 Circuit Card Description and Installation...
  • Page 856 Table 266 Characteristics of synchronous ports (Part 2 of 2) Characteristics Data Link Level LAPB protocol remote host address Modify link control system parameters* Modify link performance thresholds (Note 1) Note 1: * See the Configuration Record (LD 17) in Software Input/Output: Administration (553-3001-311) to modify the link control system parameters and performance thresholds.

  • Page 857: Connection Characteristics

    (>50 ft and <100 ft) >30.48 m (>100 ft) Interconnection Regular 25-conductor cable Twisted pair for balanced circuits Network interface devices such as stand-alone modems or DS-1 facilities using Asynchronous/Synchronous Interface Module (ASIM) and Data Line card (DLC) Circuit Card Description and Installation...
  • Page 858 Electrical interface options Interface options are selected by inserting jumper plugs into the appropriate sockets on the card: • RS-232-C interface: The EIA RS-232-C interface can be used for speeds up to 19.2 kbps and distances of less than 15.24 m (50 ft). The ESDI card supports a subset of the RS-232-C signals.

  • Page 859: Connector Pin Assignments

    Clear to send (CTS) Data set ready (DSR) Carrier detect (CD) Data terminal ready (DTR) page 860 Signal source To DCE From DCE — — — — — — — — Circuit Card Description and Installation shows the pin circuit...
  • Page 860 Table 268 Connector J1 and J2 pin assignments – RS-232-C interface (Part 2 of 2) Pin number Receiver signal element timing (DCE) Transmitter signal element timing (DTE) Note: Pins not used are 9 to 14, 16, 18, 19, 21, 22, 25. Table 269 Connector J1 and J2 pin assignments –...
  • Page 861 Signal functions ing (DTE) – lead B ing (DCE) – lead B ing (DCE) – lead A ing (DTE) – lead A (DCE) – lead A (DCE) – lead B Circuit Card Signal source From To DCE — — —...

  • Page 862: Configuring The Esdi Card

    Configuring the ESDI card Configuring the ESDI card consists of setting the port addresses using the address selection switch and setting the port interface options using the jumper blocks. The system software must then be configured to recognize the ESDI card. Figure 185 on and jumper sockets on the ESDI card.
  • Page 863 An ESDI port configured as DCE appears as a modem to the user equipment. Interface options are set by installing option jumper plugs into the sockets indicated in Table 271 on Switch S2 style A page 865 and Table 272 on Circuit Card Description and Installation Switch S2 style B page 865.
  • Page 864 Figure 185 ESDI card option switch locations Note: Ports 1 and 2 shown with jumper plugs installed for DCE and RS-232-C operation. 553-3001-211 Standard 3.00 Jumper plug installed in socket Port no. 1 jumpers Empty jumper socket Port no. 2 jumpers August 2005 STYLE...
  • Page 865 Record program (LD 17) are shown in LD 17 – Serial port configuration Jumper socket Port designations UA10 UA17 UA16 Jumper socket Port designations UB10 UB16 UB17 page Circuit Card Description and Installation UA12 UA11 UA19 UA18 UB11 UB12 UB18 UB19 855. These...
  • Page 866 parameters. These parameters must be set for each ports if both ports are being used. LD 17 – Serial port configuration parameters. Prompt Response REQ: TYPE: IOTB ADAN NEW TTY x NEW PRT x CDNO 1-16 DENS DDEN USER (NO) YES 553-3001-211 Standard 3.00 Description...

  • Page 867: Applications

    ESDI card supplies the data to the system processor as a block. The ESDI card serial ports terminate on the card front panel. Figure 186 on page 868 shows the typical ESDI card connections in a system. Circuit Card Description and Installation...
  • Page 868 Figure 186 QPC513 ESDI card cabling Filter adapters (Note 2) Meridian Link Cables to peripherals Meridian Mail NT8D95 cables (Note 1) Note 1: Note 2: 553-3001-211 Standard 3.00 Port 2 Port 1 This cable available in different lengths with various male/female connector combinations.

  • Page 869: Contents

    Automatic Call Distribution (ACD) and Call Detail Recording (CDR) features. The QSDI card is compatible with all existing system software. It does not support 20 mA current loop interface. Page 869 of 906 Circuit Card Description and Installation...

  • Page 870: Physical Description

    QSDI cards are housed in the following modules: • NT5D21 Core/Network module (slots 0 through 7) • NT6D39 CPU/Network module (slots 1 through 9, and 13) • NT6D60 Core module (slots 0 through 5) • NT8D35 Network module (slots 5 through 13) •...
  • Page 871 Figure 187 QPC841 QSDI card front panel Card lock latch Card lock latch QPC841 QSDI Enable/disable switch Port 1 connector (RS-232C) Ports 2, 3, and 4 connector (non-standard) Circuit Card Description and Installation 553-5985...

  • Page 872: Functional Description

    Functional description The QPC841 Quad Serial Data Interface card contains all the logic for four asynchronous serial ports, including the baud rate generators. These serial ports are directly accessed by the system processor using memory reads and writes. The QPC841 Quad Serial Data Interface card contains four universal asynchronous receiver/transmitters (UARTs) and the logic necessary to connect the UARTs to the system processor bus.
  • Page 873 Processor RS-232-C drivers and receivers UARTs UART no. 1 UART no. 2 UART no. 3 UART no. 4 Clock and bit rate select logic Circuit Card Port 1 Port 2 Port 3 Port 4 553-5986 Description and Installation...

  • Page 874: Connector Pin Assignments

    Connector pin assignments Connector J1 is connected to port one, and uses the RS-232-C standard DB-25 pinout. Connector J2 is connected to ports two, three, and four, and is a non-standard pinout that requires an adapter cable. An adapter cable (NT8D96) splits the J2 signals out to three standard RS-232-C connectors.
  • Page 875 Data terminal ready Transmitted data Received data Request to send (not used) Clear to send (Note 1) Data set ready (Note 1) Circuit Card Purpose in DCE mode Frame ground Transmitted data Received data Request to send (Note 2) Clear to send...

  • Page 876: Configuring The Qsdi Card

    Table 274 Connector J2 pin assignments (Part 2 of 2) Number Port Signal Note 1: In DTE mode, the signals CD, DSR, and CTS are tied to +12 volts (through a resistor) to indicate that the QSDI port is always ready to transmit and receive data. Note 2: In DCE mode, the signals DTR and RTS are tied to +12 volts (through a resistor) to indicate that the QSDI port is always ready to transmit and receive data.
  • Page 877 Note 2: To avoid address conflicts, SW14 and SW15 can never have identical settings. Note 3: To disable ports 1 and 2, set SW14 position 1 to ON. To disable ports 3 and 4, set SW15 position 1 to ON. Switch settings Circuit Card Description and Installation...
  • Page 878 Baud rate switch settings Table 276 lists the switch settings necessary to set the baud rate. Table 276 QSDI card baud rate switch settings Port 1 – SW10 Baud rate 1200 2400 4800 9600 553-3001-211 Standard 3.00 Port 2 – SW11 August 2005 Port 3 –...
  • Page 879 OFF for proper operation. Port 1 – SW8 Port 2 – SW6 Port 3 – SW4 Port 4 – SW2 Port1 – SW9 Port 2 – SW7 Port 3 – SW5 Port 4 – SW3 Circuit Card Description and Installation...

  • Page 880: Address Selection

    Figure 189 QSDI card option switch locations 1 2 3 4 Port 1 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 553-3001-211 Standard 3.00...
  • Page 881 Double density SDI paddle board. Enter the user of port x. The values that can be entered depend on the software being used. See Software Input/ Output: Administration (553-3001-311) for details. Port is used for the system monitor. Circuit Card Description and Installation...

  • Page 882: Applications

    Applications The QPD841 Quad Serial Data Interface (QSDI) card is used to connect the switch to a variety of communication devices and peripherals. Any RS-232-C compatible device can be connected to any of the four serial ports. The standard application for the QSDI card is to connect the switch to the system console.
  • Page 883 Port 1 Port 2 terminal Port 3 equipment Port 4 NT8D95 cables Note : Supplied with NT8D82 cable. I/O panel Filter adapters cable (Note) NT8D96 NT8D90 cable cable Backplane NT8D82 cables Circuit Card Description and Installation Card faceplate Module front 553-2034...

  • Page 884: Standard 3.00 August

    Page 884 of 906 QPC841 Quad Serial Data Interface card 553-3001-211 Standard 3.00 August 2005...

  • Page 885: Introduction

    LD 13 (for DTR) and LD 17 (for TDS and TTY). The TDS/DTR card provides: • 30 channels of Tone and Digit Switch • Two Serial Data Interface ports • 8 tone detection circuits configured as Digitone Receivers Page 885 of 906 Circuit Card Description and Installation...

  • Page 886: Features

    Features Tone transmitter The TDS/DTR tone transmitter provides 30 channels of tone transmission. Up to 256 tones are available as u-Law or A-Law and up to 256 bursts and cadences are downloaded from the CPU. The TDS/DTR card does not provide the Music on Hold feature as do other TDS cards.

  • Page 887: Tones And Cadences

    Ringing overload Tones -23/-23 ÷ -23/-23 ÷ ÷ -19/-19 ÷ -25/-25 ÷ ÷ -30/-30 ÷ ÷ ÷ ÷ -22/-22 ÷ -23/-23 ÷ -24/-24 ÷ -12/-10 -12/-10 -12/-10 -12/-10 -12/-10 Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 888 Table 278 NTAK03, NTDK20, and NTDK97 µ-Law tones and cadence (Part 2 of 6) Frequency Tone # (Hz) 770/1340 770/1480 850/1210 850/1340 850/1480 940/1340 940/1210 940/1480 700/1630 770/1630 850/1630 reserved reserved reserved [400 x (120@85%)] 940/1630 700/1210 700/1340 700/1480 553-3001-211 Standard 3.00 Precision dB below...
  • Page 889 700/1100 900/1100 700/1300 900/1300 1100/1300 Precision dB below Ringing overload Tones -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -17/-15 -13/-13 -13/-13 -13/-13 -13/-13 -13/-13 -13/-13 -13/-13 Circuit Card DTMF Digits MF Digits 2/CC Description and Installation...
  • Page 890 Table 278 NTAK03, NTDK20, and NTDK97 µ-Law tones and cadence (Part 4 of 6) Frequency Tone # (Hz) 700/1500 900/1500 1100/1500 700/1700 900/1700 1100/1700 1300/1700 1500/1700 400 x 50 (533 + 666) x 20 reserved 350/440 480/620 440/480 400/450 480/620 440/480 553-3001-211 Standard 3.00...
  • Page 891 1400 1400 1800 1300 1500 1880 350/440 Precision dB below Ringing overload Tones ÷ ÷ ÷ -17/-17 ÷ -17/-17 ÷ ÷ ÷ ÷ ÷ ÷ ÷ ÷ ÷ ÷ ÷ -10/-10 Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 892 Table 278 NTAK03, NTDK20, and NTDK97 µ-Law tones and cadence (Part 6 of 6) Frequency Tone # (Hz) 1400 Note: Tones #1 - 16 (inclusive) and #234 - 249 (inclusive) are included for Norwegian and Malaysian specifications. Table 279 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 1 of 9) Tone # Frequency (Hz) 940 X 1630...
  • Page 893 940/1210 940/1340 940/1480 700/1630 770/1630 Precision dB below Ringing overload Tones -14/-13 -14/-13 -14/-13 -14/-13 -14/-13 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 -13/-12 Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 894 Table 279 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 3 of 9) Tone # Frequency (Hz) 850/1630 350/440 400/450 1400 1400 1800 940/1630 700/1210 700/1340 700/1480 770/1210 770/1340 770/1480 850/1210 850/1340 850/1480 940/1340 940/1210 553-3001-211 Standard 3.00 Precision dB below Ringing overload...
  • Page 895 770/1480 850/1210 Precision dB below Ringing overload Tones -12/-10 -12/-10 -12/-10 -12/-10 -22/-22 ÷ ÷ ÷ -22/-22 ÷ ÷ ÷ ÷ ÷ ÷ -18/-17 -18/-17 -18/-17 -18/-17 -18/-17 -18/-17 -18/-17 -18/-17 Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 896 Table 279 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 5 of 9) Tone # Frequency (Hz) 850/1340 850/1480 940/1340 940/1210 940/1480 700/1630 770/1630 850/1630 (533 + 666) X 10 (533 + 666) X 20 420 X 25 (553 + 666) X 10 (553 + 666) X 20 330/440 553-3001-211...
  • Page 897 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 6 of 9) Tone # Frequency (Hz) 1700 1400 reserved 1020 1800 1400 1400 1800 1880 Precision dB below Ringing overload Tones ÷ ÷ ÷ ÷ Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 898 Table 279 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 7 of 9) Tone # Frequency (Hz) 420 X 25 940/1630 700/1210 700/1340 700/1480 770/1210 770/1340 770/1480 850/1210 850/1340 850/1480 940/1340 940/1210 940/1480 700/1630 770/1630 850/1630 553-3001-211 Standard 3.00 Precision dB below Ringing...
  • Page 899 700/1210 700/1340 700/1480 770/1210 770/1340 770/1480 850/1210 850/1340 850/1480 940/1340 940/1210 Precision dB below Ringing overload Tones -9/-9 -14/-14 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 -14/-12 Circuit Card DTMF Digits MF Digits Description and Installation...
  • Page 900 Table 279 NTAK03, NTDK20, and NTDK97 A-Law tones and cadences (Part 9 of 9) Tone # Frequency (Hz) 940/1480 700/1630 770/1630 850/1630 940 X 1630 700 X 1210 700 X 1340 700 X 1480 770 X 1210 770 X 1340 770 X 1480 850 X 1210 553-3001-211...

  • Page 901: Protocol

    Applications which use an ESDI port in synchronous mode must conform to the following requirements. Operation Circuit Switch Equipment transfers data to the QPC513 in blocks consisting of 1 to 128 eight-bit octets. Each block is processed in accordance with the Page 901 of 906 Circuit Card Description and Installation...

  • Page 902: Frame Structure

    LAPB subset of the HDLC protocol and transmitted serially to the line at a rate determined by the downloaded parameters. The QPC513 card receives data serially from the line, packaged in LAPB information frames. After determining that a block is error free the data is supplied to the Circuit Switch Equipment as a block.

  • Page 903: Lapb Balanced Class Of Procedure

    A combined station has balanced link control capability and transmits both commands and responses to, and receives both commands and responses from the other combined station. Control Information 8 bits unspecified (no. of bits) Circuit Card Flag 16 bits 01111110 page 904. Description and Installation...

  • Page 904: Commands And Responses

    Figure 191 Balanced configuration Asynchronous Balanced Mode Asynchronous Balanced Mode (ABM) is a balanced, configured operational mode in which either combined station may send commands at any time and may initiate certain response frame transmissions without receiving permission from the other combined station. Commands and responses The elements of procedure are described in terms of actions which take place when a command is received.

  • Page 905: Description Of Procedure

    (for more information, see ISO-4375-1979-[E]) • exception condition reporting and recovery implemented in accordance with BX.25 and ADCCP specifications • link set-up and disconnect implemented according to BX.25 specifications Command Response REJ or FRMR SABM DISC Circuit Card Option Description and Installation...
  • Page 906 Page 906 of 906 Appendix A: LAPB Data Link Control protocol 553-3001-211 Standard 3.00 August 2005...
  • Page 908 Copyright © Nortel Networks Limited 2005 All Rights Reserved Information is subject to change without notice. Nortel Networks reserves the right to make changes in design or components as progress in engineering and manufacturing may warrant. Nortel, Nortel (Logo), the Globemark, This is the Way, This is Nortel (Design mark), SL-1, Meridian 1, and Succession are trademarks of Nortel Networks.

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