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EK-DMZ32-UG-PRE
March 1984
138 pages
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Document:
DMZ32 24-line Asynchronous Multiplexer User Guide
Order Number:
EK-DMZ32-UG
Revision:
PRE
Pages:
138
Original Filename:
OCR Text
EK-DMZ32-UG-PRELIMINARY 14 MARCH 1984 DMZ32 24-LINE ASYNCHRONOUS MULTILPLEXER USER GUIDE ¢ J¢ J¢ e Je Je do Je Je Je Je Je de J Je de K Je de de d (PRELIMINARY RELEASE) de e e e de d e % 3 de e de e e de e de e de e ok - FOR INTERNAL USE ONLY - EK-DMZ32-UG~-PRELIMINARY 14 MARCH 1984 DMZ32 24-LINE ASYNCHRONOUS MULTILPLEXER USER GUIDE d¢ Je % % ¢ % Je Je Je Jo Je de Je e Je Kk Fe e ke ko d (PRELIMINARY'RELEASE) fhkkkkhkdhrkdhbkhhrkrkk - FOR INTERNAL USE ONLY - CONTENTS Page PREFACE e = WW WW il el il el iel ikl (H3014) 00 ~NOYO\OY Ut Remote Distribution Panel Power Supply Expansion Module Processor Module DMZ32 System Operation Tl Overview DMZ32 Specifications il (M8398) DMZ32 Module (M8398) Distribution Panel (H3014) Introduction Unpacking and Inspection Installation i Device Address Assignments Device Vector Assignment Procedure M8398 Module Installation H301l4 Distribution Panel Installation H9642-FC/FD - (UNIBUS Expansion Cabinet) o o e ~NSovwn Cable Installation DMZ32 Installation Check-off List 8 NN H9652-MF - (UNIBUS Expansion Cabinet) Non FCC Compliant Cabinet NN Ak OO WW WW DON NN NN INSTALLATION DR N+ Vot WN L] [ ] LS UNIBUS Interface Module UNIBUS Interface Shared RAM Interface Tl Interface Unit = o * W N * W= NN [) o e & NN o e o o . L o s [ & L] e o, [3 [] ° * L] CHAPTER 2 NN INTRODUCTION Introduction L] [ 1 DMZ32 General Description o [} VMTUTU WD NN e e el Nl el CHAPTER DMZ32 Installation Checkout - = FOR INTERNAL USE ONLY - Register Parameter (CSR) Register and Status Register Diagnostic Control and Status Register Diagnostic Register (DMZ.CSR[2]<15:0>) - Write Diagnostic Register DMZ.CSR[2]<15:0> - Read Line Parameter Register Receive Buffer Register Receive Silo Parameter Indirect Indirect Indirect (OCTET CSR) (LINE PAR REGK15:0>) (RX.BUF) Register R (RSP.REG) Indirect Register [ . Y A S Y S Y Y- S e T @ T [I - HHEEMWOYWWOWYWOWOOOoO0OomOoaea~Ioh Uld (WMN O OO O L] [] L] ¢ o B> W N W N 4 W Registers (IND.REG([31:0]) Registers (IND.REG[0]<13:0>) W Register (IND.REG[0]<15:0>) R (IND.REG([1]<15:0>) Indirect Register (IND.REG[2]<15:0>) Indirect Register (IND.REG[3]<15:0>) CHAPTER R/W R/W WW wWw J WWRON NN NE Octet Control and Status Register WWWW N » Configuration Control 3.13 [~ REG) lwwuuuut'»uw Www ww Line e Octet e Control W NV W O VW N IOV W WW RO DN * [ ¢ AU B WN o o o s ¢« oo o o & W RN Ui & & o o & Registers Octet (LP Octet Receive Buffer (RX BUF) Octet Indirect Register (IND REG) Initial Operation Parameter Initialization Transmit Operation Receiver Operation 0 o Device ww w Introduction Overview Device Registers and Vector Assignments WO 000000~ ¢ PROGRAMMING Www 3 o WWWWWwwWwWwWwuwWwwuwuwww Wwwww CHAPTER R/W R/W R/W SERVICE Introduction Maintenance Philosophy DMZ32 Replaceable Field Units Preventive Maintenance Self-Test Diagnostic Diagnostics Diagnostic Supervisor Local Loopback DMZ32 CSR Address and Vector Address T1 (H3028) Remote T1 Loopback (H3027) Single Line EIA Loopback (H3248) Staggered Multiline Loopback (29-24929-00) Manual Analog Modem Loopback Software Loopback Methods Shared RAM Loopback Local Trunk Loopback EIA Single-line or All Lines Local Modem Loopback DMZ32 Level 3 (EVDAE) Loopback 4-26 Diagnostic EVDAE Hardware Prerequisites EVDAE Software Diagnostic 4-27 Prerequisites EVDAE Diagnostic Description - FOR INTERNAL 4-27 USE ONLY - 4-29 Loading, Attaching, and Running EVDAE EVDAE Event Flags 4-30 EVDAF Hardware Prerequ131tes 4-31 EVDAF Diagnostic Description 4-32 4-31 DMZ32 Level 2R (EVDAF) Diagnostic 4-31 EVDAF Software Diagnostic Prerequisites 4.11.3 4.11.4 4.12 4,12.1 4.12.2 4.12.3 4.13 3=33 Loading, Attaching, and Running EVDAF H3014 Front Panel Indicators 4-36 Sync Indicator (SYNC) 4-37 Remove/Replace Procedures 4-39 4-37 Power Indicator (PWR) 4-37 Trunk Quality Indicator (TRNK QLTY) H3014 Power Supply Assembly Removal/Replacement 4.13.1 (29-24799-00) H3014 Fan Assembly Removal/Replacemnt (29-24800-00) H3014 Expansion Module Removal/Replacement (29-24798-00) H3014 Processor Moduel Removal/Replacement (29-24797-00) 4.13.2 4.13.3 4.13.4 H3014 Chassis/Backplane Replacement 4.13.5 4-40 4-42 4-44 4-46 4-50 (29-24796~-00) APPENDIX A Afll Aflz www APPENDIX B 1 .2 3 Floating Device Addresses and Vectors A-1 Floating Device Addresses A-3 Floating Vector Addresses T1 CABLE INFORMATION Introduction : Cable Configuration T1 Conductor Characteristics - FOR INTERNAL B-1 B-1 B-4 USE ONLY - PREFACE The DMZ32 User Guide is a stand-alone document that describes typical 24-line capabilities, troubleshooting philosophy. asynchronous installation, procedures multiplexer based on a module and Vectors are covered and and replacement information about the DM232 Manual Appendix ' 24-line asynchronous multiplexer can be found in the following: Technical in ‘ : Additional features service T-Carrier Techniques are covered in Appendix A, Floating Device Addresses B. use, programming, ®¢ DMZ32 (EK-DMZ32-TM-=-001), e Communications Options Minireference Manual (EK-CMIVI-RM-002) e DMZ32 Print Set (MP00997-01). The postage-paid READER'S COMMENTS form on the last page of this document requests your critical evaluation to assist us inpreparing future documentation. - FOR INTERNAL USE ONLY - CHAPTER 1 INTRODUCTION INTRODUCTION 1.1 This chapter DMZ32, contains a brief introduction this manual, throughout as used to the DMZ32. The term denotes the 24-line asyn- chronous multiplexer. DMZ32 GENERAL DESCRIPTION 1.2 The | DMZ32 is a 24-line asynchronous multiplexer consisting a maximum line speed Features of the DMZ32 of of a The DM232 has single height hex module and a distribution panel. 19.2K bps. include: Split baud rate and modem control on all lines Transmit and receive character DMA capability on transmit Programmable silo silo ® Improved alarm silos time-out period for the ' receive connectivity An added These features result in increased system throughput. The connection feature is the improved connectivity of the DMZ32. between the VAX UNIBUS Interface Module (M8398) and the Remote Distribution Panel (H3014) is accomplished by two cables (BC22N-10 The panel and BCl8L-15). remote mounted up distribution to 5000 feet away (M8398) with additional cable on the distribution The DMZ32 (H3014), from the of the UNIBUS DMZ32, Interface (See Appendix B). panel are 24 RS232-C Male plugs into a Small Peripheral runs under the VMS operating system DB25 Controller the DMZ32 - FOR INTERNAL an connectors (SPC) and is Located slot and Figure 1-2 (Version 4 or later). to Figure 1l-1 for the component parts of for the DMZ32 functional block diagram.) be Module The H301l4 active distribution panel that requires external power. which allow connection to 24 different lines. can USE (Refer ONLY - - | Iy T n M {M8398) n_ o [: L (BC22N-10) ‘ {aC18L-15) - (H3014) bo1eess Figure 1-1 DMZ32 H3028 Component - Parts FOR INTERNAL USE ONLY - POWER SUPPLY 1.544 UNK The first mounted on interface is a the single hex following logic sections: ° UNIBUS Interface ® Tl Block Diagram (M8398) of Interface height the DMZ32 and is Module board (UIM). Asynchronous The divided UIM into is the (UBI) (SR) Shared RAM Interface °® ~ H3014 Functional component UNIBUS t E& > $ DMZ32 UNIBUS Interface Module Multiplexer = — 33 OEMUX 1-2 €A ASYNC LINES ORIVERS/ e enrace [ INTEREACE Figure l1.2.1 EIA RECEIVERS T, BPs C SHARED A ” — CQNTROL INTERFACE | INTERFACE |2z x TM I MODEM |T unNiBus Interface Unit (TIO) 1.2.1.1 UNIBUS Interface The UNIBUS Interface (UBI) UNIBUS and the shared is the section of logic which handles This section passes data between the VAX interfacing. all UNIBUS Random Access Memory (RAM) interface. 1.2.1.2 Shared RAM Interface The Shared of passing the UNIBUS Shared RAM Interface RAM Interface data from Interface the Tl is an area asynchronous as well allows Interface from (SR) one access as to of shared process the allows T1 to access, Interface to access a means Unit from The another. the UNIBUS Interface. 1.2.1.3 Tl Interface Unit The T1 Interface off the high the T1 carrier Unit (TIU) interface. speed (1.544 is the time Tl trunk.- It controls MBPS) division all multiplexer and data going on and - FOR INTERNAL USE ONLY - 1.2.2 Remote Distribution Panel The second component Remote Distribution distribution panel supply. The transfers between that H3014 of is powered from its responsible for of 24 asynchronous the H3014 it may also be ' the _appropriate DMZ32 Asynchronous Multiplexer (H3014). The H301l4 1is an is any The configuration therefore of the Panel (H3014) option depends responsible is on own independent coordinating lines and the the for option passing installed. The is the active power all data T1 trunk. purchased and modem signals distribution if panel decodes the incoming Tl formatted serial data. - In the reverse direction it places outgoing asynchronous terminal data and modem control signals into the T1 serial bit stream using bipolar encoding The techniques. H3014 ° ) consists of 1.2.2.1 Power The Power electronic ‘provided Supply provides circuitry power ° +5 @ ° +12 -12 vdc vdc vde 10 @ @ Expansion expansion modem following major components: Supply by the l.2.2.2 the Power Supply Expansion Module Processor Module ® The : supported by supply are: Data necessary for the of the that are The voltages A Module provides Signaling To Set drivers/receivers for The expansion Request Data voltages distribution panel. 2.5 A 2.5 A signals. the operating the module control the within modem module Rate are control as six signals follows: Select Send Ready Clear To Send RS-449 Local Loopback RS-449 (Refer to Table Test 1-1 for Mode pin assignment and - signal FOR descriptions.) INTERNAL USE ONLY - Table 1-1 V.24/RS232 Pin Assignments . Pin CCITT EIA Origin 1 101 AA - 2 103 BA " DTE Received Data 3 164 BB ca DCE DTE Clear 5 106 CB DCE Ground 7 102 AB Carrier Detect (CD) 8 109 CF Description Protective Ground Transmitted Data 4 Request To Send (RTS) to Send (CTS) 6 Data Set Ready (DSR) Signal RS449 Local Loopback Data Terminal Ready Ring Indicator The S T | - DCE DTE (DTR) 20 108.2 CD DTE 22 125 CE DCE 23 111 CH DTE (DSRS) RS449 Test Mode 1.2.2.3 ' 18 (RI) ] DCE cC 107 . (LL) Data Signalling Rate Selector 105 o (TM) Processor 25 DCE Module processor module contains the microprocessor that controls the H3014 operation, status indicators (Pwr, Sync, and Trnk Qlty), drivers/receivers for data signals, The modem control drivers/receivers module and modem control signals. contained on the processor are: e Data e Carrier Terminal e Ring Ready Detect Indicator - FOR INTERNAL USE ONLY - DMZ32 The DMZ32 by setting transmit the line A register. data to and bit in receive can take marking) of A except data is disabled in the Program NPR/DMA to load Mode specific line special handled from Line before is held uses maintenance I/0 and enabled to receive data. no NPR/DMA mode silos). order There is the ON situations. techniques, the DMA Mode is enabled by setting silo receive character of (or standard the transmit silos. 128 (LINE in different the receiver in Control two uses Each octet the receiving in (8-line three of (total the line A line must be enable bit in the appropriate LINE CTRL register. a different transmission using For reception of data, shares 24 Although both of these techniques use Program Mode and DMA Mode. silos, the be enabled line must place. state, Transmission enable data the transmit line is enabled ) CNTRL) data can During transmission of data, 7’ lines. SYSTEM OPERATION group) receive mode of the DMZ32. 1.4 Tl Overview The DMZ32 uses a "T1" transmission technique by way of two twisted pair cables to provide optimal channel utilization for transfer of data between the UIM and the distribution panel. "pl" from is "T-Carrier" or the based Bell System pulse on multiplexing (TDM) data independent subsequently placed stream or is mark the T1 link. At receive end the this serial bit and distribution 1.5 DMZ32 techniques. into a This Using encoded are 1.544 mbps transmission these into serial bit into a specific (AMI) technique and of link, the is Tl clock techique division techniques, Dbits 8 stream. format, inversion the time and (PCM) using This 24 and bit a bipolar transmitted down reconstructed from stream and used to synchronize the demultiplexing of the data to the appropriate line. SPECIFICATIONS The specifications the following: (M8398 module system. modulation channels converted then alternate carrier coded taken term industry telecommunication a is and Physical for the the H3014 two major components of the INTERNAL USE panel) distribution are divided DMZ32 into Specifications Electrical Specifications Environmental Specifications UNIBUS Conductor ’4 1.3 Specifications - FOR ONLY - 1.5.1 DMZ32 Module (M8398) Physical Specifications Single Hex height module Electrical Specifications DC Voltage +5V @ 9.0 Amps. +15v @ 0.1 Amps. Data Baud Rates (Half or Full Duplex) 50, 75, 110, 134.5, 150, 300, 600, 1200, 1800, 2000, 2400, 4800, 9600, 19200. and Environmental Specifications Temperatures Operating 10°C0(50°F) to 40°C Non-operating -40°C (-40°f¥”€6“33°5“’“ 151°F) (104°F) Relative Humidity 10% to 90% with a maximum wet bulb of Operating 28°¢c (82°F) -omaximum dewgoint of 2°C (36°F), noncondensing. 5% to 95% densing. Non-operating noncon- UNIBUS Specifications UNIBUS 6.2 ac unit loads Loads 1.5 dc unit loads Addresses Vector 760440 - 763740 (Octal) (Typical) 300 (Octal) Interrupt BR Levels - FOR (Typical) 5 INTERNAL USE ONLY - 1.5.2 Distribution Panel (H3014) Physical Specifications Height . Width Depth . Mounting Weight 13.3 cm (5.25 in) 48.2 cm (19 in) 43.18 cm (17 in) Standard 48.2 cm (19 in) (18 1lbs) 8.1 kg maximum Electrical Specifications AC Line Voltage 90-130 VAC, or 180-255 VAC Line Frequency 47-63 Hz. Input Current 1.5 Amp @ 120 VAC .8 Amp @ 220-240 VAC Grounding Frame Ground The chassis frame electrically bonded earth ground primary via circuit 1is to the con- nector. Logic Ground EIA Ground is ground. This is carrying refer- signal This ence a non-current ground as a reference used for all Electronic Industries re(EIA) Association ceiver inputs. USE ONLY - FOR INTERNAL Environmental Specifications Temperatures Class B (Non Air Conditioned) lOOCO(SOOF) to 40°¢ (104°F) Relative Humidity Class B (Non Air Conditioned) o 10% to 90% with maxsmum wet bulb 28°C - maxi&num due (82°F) point 2°C (36 F) noncondencing Heat Dissipation 454 BTU per hour - FOR INTERNAL USE ONLY - CHAPTER TWO INSTALLATION INTRODUCTION 2.1 This chapter contains checking the DMZ32. installation process, procedures for unpacking, installing, and A checklist, which can be used to verify the is included. UNPACKING AND INSPECTION 2.2 The DMZ32 When is packaged according to commercial packing practices. unpacking a to materials making sure not damage contents against the shipping list. of each DMZ32 option. remove carefully option, DM232 Inspect all all and the contents items carefully. packing check the Table 2-1 lists the contents Pay close attention to the module to check for cracks, loose components, and ‘breaks in the etched paths. Table 2-1 OPTION DMZ32-M CK-DMZ32-DY : List PART NUMBER CONTENTS M8398 BC22N-10 e ® One UNIBUS HEX module One Internal cable and 2 x 4 BCl8L-15 e One External cable bulkhead insert H3028 e One Local T1 Loopback EK-DMZ32-UG ® One User Guide H3014-CA ® Remote Distribution Panel e Shipping Bracket 120V Power Cord H3027 CK-DMZ32-AY DMZ32 Option Packing H3014-AA e One Remote T1 Loopback (120V/240V) with Modem Control e 240V Power Cord @ Remote e Shipping Bracket ® Picture Frame ® 240V e Distribution (120v/240V) Panel No Modem Control 120V Power Cord Power Cord. - FOR INTERNAL USE ONLY - 2-1 Table OPTION DMZ32-AP DMZ32-DP DMZ32-N 2-1 DMZ32 Option PART NUMBER Packing List - continued - CONTENTS e e DMZ32-M (System CK-DMZ32-AY Integrated) Integrated) ® DMZ32-M e CK-DMZ32-DY (System ® Remote Distribution (H3014) Expansion Modem Control - FOR INTERNAL Panel Module USE for ONLY - 2.3 DEVICE ADDRESS ASSIGNMENTS The DMZ32's device addresses are selected from the floating device (I/0) page. When there input/output of the UNIBUS to Appendix B) (Refer space address Switch pack E-53. on the DMZ32 selects the first DMZ32 CSR address. are no floating devices floating address space is 760440 third hex) VMS floating address spaces 4.0 later), and 760540 (version the the DMZ32 respectfully. (FFE160 hex) or for before (FFE120 hex). the actual the SYSGEN utility. determined by using are 760500 (FFE140 - address(es) Refer to can be the VAX/VMS for the procedure controlled the VMS : DEVICE VECTOR ASSIGNMENT DMZ32 System. interrupt vectors are by Operating During autoconfiguration the operating system loads the value of the base vector floating vector are calculated into the DMZ32. from the base vector. The other DMZ32 vectors (Refer to Appendix A for addresses.) 'INSTALLATION PROCEDURE 2.5 The first When operating under to determine CSR address assignments. The the The second and (AA-H499B-TE) Guide to Writing a Device Driver 2.4 DMZ32, installation of the DMZ32 is broken down into the following procedures: ° UNIBUS ® Cable ° Interface Module (M8398) Installation Remote Distribution Panel (H3014) Installation Installation ' Installation Tools Required: VAX Cabinet Key (Usually a Phillips screwdriver 7/16 Hex Driver Flatblade Screwdriver 2.5.1 7/64 Allen Wrench) M8398 Module Installation To install 2-1 shows the M8398, perform the following steps in the given, ensuring that no steps are skipped or overlooked. the location of switch sequence Figure packs. - FOR INTERNAL USE ONLY - ¢ i i : i SWITCH SETTINGS OFF TO REDUCE POWER CONSUMPTION 9 " DO DATA PATH X %.%. TESTING (NCAMAL oo oata sate NOTE Sits FesT oML AND EI@1, ~ON” IS A LOGC *0% AND *OFF* IS A LOGIC .,'.' W 3 OUT Figure 2-1 DMZ32 Aoons!m TM2 1 0. ] 0 18 18 T 17 16 1s e UNIBUS Interface - Module FOR (M8398) INTERNAL USE ONLY - Set switches 2 through 9 priority level. on Set switches 1 through 8 UNIBUS addressv, on sw1tch pack Set switch 9 Set switch pack E-63 to on switch pack E-53 10 sw1tch. (Refer to Figure Power down 2-1 for the proper 9051ton{ ON the to E=53 switch settings.) M8398 the which in system the to to the ON position. pack switch on E-53 the correct being is installed. WARNING BEFORE SYSTEM PERFORMING ON INSTALLED, AND DOWN WHICH MUST THIS THE BE POWER THE THE POWER the Non Processor IS COMPLETELY SOURCE. FROM PROCEDURE, DMZ32 TO THE BE POWERED DISCONNECTED CORD INJURY PERSONAL - MAY RESULT IF THIS PROCEDURE IS IGNORED. Remove Grant the Small Peripheral Controller the M8398 module is to be resistance Install the M8398 module circuits up lofl the system and to the When the M8398 module supplied the Installation remaining steps the on backplane to ensure no exist. DD11-DK backplane. Power from where lane slot backp (SPC) installed. checks Perform short (CAl-CBl) wire (NPG) to into the prepared verify M8398 that TList +5.00 measures installation Check-off the is SPC slot vdc +5.00 of the that complete, proceed (Section 2.7) is vdc. for to the be performed. - FOR USE ONLY INTERNAL. 2.5.2 H3014 Distribution Panel Installation H9642-FC/FD - (UNIBUS Expansion Cabinet) NOTE Because of mounting - limitations, in h9642-fc/£fd model cabinets. : Figure 2-3 for rear Remove door assembly 2. Remove the FCC Shield Gasket removing the following: 7/64 allen wrench. Two side 7/16 and These Hex top of the VAX cabinet Panel Assembly head screws the FCC located left side of secure o o 1. '® Refer to the rear view of a model- H9642-FC/FD. the the be mounted only can panel distribution : - using the (Figure on the 2-2) top Nine Shield philips screws located Gasket (these screws Panel the Bulkhead to FCC under the secure assembly right the gasket panel assembly. Panel to vertical mounting rails of the cabinet. ® by the . the gasket Shield FCC panel Gasket Assembly H3014 down to Shield the to Figures be the 2-2 removed bottom and Gasket location is to be mounted. Frames must frame FCC the Panel where the These Bulkhead from most the top most frame. (See 2-3.) 3. Remove the nine (9) phillips screws secure FCC Bulkhead Frames together. 4., Remove the six (6) mounting phillips screws (Figure 2-2) that secure mounting rails the of FCC the - . NOTE below - Frame). The FCC Bulkhead Frames must be removed from g _ Bulkhead Frames (Figure to the 2-2) that vertical cabinet. - FOR INTERNAL USE ONLY - . g B o "\ ] T | ’ ., ) 17" . FCC SHIELD GASKET PANEL |~ ASSEMSLY 77 (6 AACSS) J 7 MOUNTING SCREWS = ’ 7/16 HEX HEAD "~ SCREWS (2PLACES) N\ SMALL PHILIPS SCREWS (g PLACES) I/0O PANEL FCC BULKHEAD (TYPICAL) FRAME POWER CONTROLLER Figure 2-2 Typical H9642-FC/FD Shielded Cabinet before H3014 Installation - FOR INTERNAL USE ONLY - Repeat steps 3 and 4 until all requiréd FCC Bulkhead Frames are removed, NOTE then proceed mounted above the to shown the vertical mounting screws the panel in cabinet in Figure 6. mounting (Figure distribution can only the be location 2-4. distribution cabinet After step ) The distribution Position to panel and secure rails wusing the it six to the philips 2-4). panel is mounted, secure the bottom of the distribution panel to the FCC Bulkhead Frame beneath it using the nine philips screws that were removed from the FCC Bulkhead Frame. NOTE If the remove H301l4 is the shipping received a cabinet, bracket in (Figure Install the FCC shield gasket panel assefibly by reversing the procedure When the in step distribution proceed to for remaining of the the 2. the panel Installation steps to be installation Check-off List performed in the is complete, (Section 2.7) installation DMZ32. - FOR INTERNAL USE ONLY - — - e Gme mae w— = - w— o U H9642-FC/FD CABINET H3014 SHIPPING SIDE — 8RACKET FRONT (TOP VIEW) ' REMOTE DISTRISBUTION PANEL (H3014) FRONT SIDE (SIDE VIEW) Figure 2-3 H30l14 Shipping Bracket - FOR Position INTERNAL USE ONLY - u — » ——_“. ot %] PLAGES) okt ’ . ) // H3014 SSES SSHT AL MOUNTING % BT TT d?nwsm t 2 e=» . "R ) fl_'i 1 NEES 8770 POWER CONTROL H === o : 4 Io 2x PANEL (TYPICAL) Figure 2-4 Typical H9642-FC/FD H3014 FCC Shielded Cabinet after Installation 2-10 - FOR INTERNAL USE ONLY - H9652-MF - (UNIBUS Expansion Cabinet) NOTE If H9652-MF the the boxes, BAll uses cabinet distribution not be mounted in power limitations. the : (2) two can panel cabinet due to 1. Remove the rear door assembly of the VAX cabinet using the 2. Remove the FCC Shield Gasket Panel Assembly removing the following: 7/64 allen wrench. ® Two (2) 7/16 side right Hex and head top screws are located of side left (Figure 2-5) on the gasket pane Gasket Panel assembly. These secure the FCC Shield Nine phillips located (9) Shield 3. screws gasket panel assembly. Gasket Panel to are tog the to the vertical mounting rails of the cabinet. e by under the These screws secure the FCC ‘ the FCC Bulkhead Frame. Remove the nine (9) small phillips screws (Figure 2-5) tfiég secure the FCC Bulkhead the six (6) Frame to the top of the cabinet frame. 4, Remove vertical mounting 5. mounting phillips screws (Figure 2-5) that secure the top most FCC Bulkhead Frame to the cabinet rails. Repeat steps 3 and 4 until all required FCC Bulkhead Frames When completed, proceed to step 6. are removed. NOTE The distribution mounted Frame in the panel top two can FCC only be Bulkhead locations. - FOR INTERNAL USE ONLY - Position the cabinet mounting After of screws (Figure the nine and rails using (9) secure the it to six the philips 2-7). distribution panel it using panel mounting the distribution panel the step distribution vertical to is mounted, the phillips FCC secure Bulkhead screws that the bottom Frame beneath were removedin 3. NOTE If the H301l4 is received in a cabinet, (Figure shipping bracket the remove If you seven, are mounting two distribution Install the FCC Shield Gasket the procedure in step 2. 10. When the proceed panels, repeat and when completed, proceed to step nine. distribution to the panel Installation for the remaining of the DMZ32. steps panel assembly installation Check-off to be performed List in by is the step reversing complete, (Section 2.7) installation 2-12 - FOR INTERNAL USE ONLY - i pYye HEAD ke EC ninG SCREWS Sich (q PLACESD ” ” SCREWS ((p PLACS ; I Figure 2-5 Typical HS652-MF (VAX11-780) before H3014 FCC Installation Shielded Cabinet 2-13 - FOR INTERNAL USE ONLY - [J —— H9652-MF CABINET FRONT SIDE H3014 SHIPPING BRACKETS REMOTE DISTRIBUTION PANEL(S) (H3014) ) | i 2 l FRONT - — ‘= |1 SIDE - -—-L- - M I 11 I Il H I === 1 1 1 jfr=—==== i B |H (BA11-K BOX) HI R J1 : - - CONTROLLER ~Jl |~ POWER I U | | TD (SIDE VIEW) Figure 2-6 H3014 Sshipping Bracket - FOR Position INTERNAL USE ONLY - - ' : MOUNTING SCREWS b ) SRS CAUTION iF TWO BAt1 BOXES ARE BEING USED 8Y THE “VAX11-780. THE H3014 DISTRISUTION PANEL(S) IN THE CABINET BECAUSE OF POWER UMITATIONS. Figure 2-7 Typical H9652-MF FCC Installation (VAX11-780) after H3014 Shielded Cabinet 2-15 - FOR INTERNAL USE ONLY - Non FCC Compliant Cabinet Remove 7/64 the Position and the rear door assembly of the VAX cabinet using the allen wrench. the secure distribution it to six philips mounting If you where it is to the to be mounted screws. are mounting two distribution panels, then proceed When panel the cabinet vertical mounting rails using step repeat step 2 4. distribution panel installation is complete groceed to the Installation Check-off List (Section 2.75 or of the the remaining steps to be performed in the installation DMZ32. ' - FOR INTERNAL USE ONLY - 2.5.3 Cable Installation NOTE in an FCC cabinet, the 2 X 4 cable. the before be should it connected, is the BC22N-=10 attached to I/0 panel that is shipped with installing I1f cabinet, discard the 2 (Refer to Figure 2-8). X in 4 a non-FCC Panel. I/0 1/0 panel from the FCC Bulkhead Frame Remove a blank 2 X 4 where the new 2 x 4 I/0 panel (supplied with the cable) is to be located. Remove the two screws that secure the panel to the FCC Bulkhead. Feed the cable opening at the end of the BC22N-10 cable through location where the new I/O panel the is to be secured. Secure the new BC22N-10 cable panel was 2 X 4 I/O panel that to the FCC Bulkhead is connected to the Frame where the blank removed. Connect the 15 pin berg connector of the BC22N-10 cable to J1 of the M8398 module, located in the BAll-K box. "This Side Up"TM Label Be sure is visible. Connect one end of the BCl8L-15 cable to the external side of the Connect new I/0 panel. the loose end of the BCl8L-15 Connector on the distribution panel. - FOR cable to the T1 INTERNAL USE ONLY - 2X4 1/0 PANEL oy BC22N-10 - M8398 THREADED SPACERS » - (= T0 DISTRIBUTION MODULE PANEL T J1 L 1 CONNECTOR 8C18L-15 | INTERNAL TO CABINET <w————t———s EXTERNAL TO CABINET Figure 2-8 BC22N-10 to BCl8L-15 Connection - INTERNAL FOR USE ONLY - 2.6 DMZ32 INSTALLATION CHECKOOT The following procedure is used to check-out the installation of the DMZ32. 1. Remove the BC22N-10 cable from J1 of the M8398 module. 2. Install the Local T1 Loopback (H3028) connector into J1 of the M8398 module (Figure 2-9). H3028 G A E f M8398 N Figure 2-9 H3028 Loopback Connectoi Installed'on‘figgés 3. Power up the VAX and execute diagnostic EVDAE for 2 passes with event how to (Refer to Chapter 4 for details on flag 3 set. execute EVDAE). If a failure occurs, check the following: e Seating of M8398 module 1in the DD11-DK backplane ©¢ e IF ROM seating on Seating connector THE REFER H3028 the of loopback in Jl FAULT TO the M8398 module IS CHAPTER NOT 4 THEN FOR CORRECTED, CORRECTIVE ACTION. - FOR INTERNAL USE ONLY - After two successful passes, remove the H3028 loopgack connector from the M8398 module and connect the BC22N-10 cable between M8398 module J1 and the 2 X 4 I/O panel insert (Refer to Figure 2-10). gat1.k—1| o - 8C22N-10 I~ Co 80X FRONT OF CABINET Figure 2-10 BC22N-10 1/Q BULKHEAD . Cable between 1 / PANEL M8398 and - INTERNAL FOR I/0 Bulkhead USE ONLY - the *L Install the H3027 loopback connector (Figure 2-11) to the - I/0 Panel side of the I/O Panel connector (outside of cabinet), and execute diagnostic EVDAE setting event flag 3 for two passes without errors. If a failure occurs, check the Tl cable for proper seatlng . at both ends. IF THE FAULT IS NOT CORRECTIVE ACTION. If the H301l4 is REFER CORRECTED, installed TO CHAPTER in a remote location, it 4 - FOR To- s is the customer's responsibility to supply and install the Remote Tl cable. (Refer to Appendix C for Tl cable information.)- mgflfima ~r | — o——— — — | | H3027 s LOOPBACK CONNECTOR | N P - -~ /O PANEL INSERT NOTE THE LOCATION OF THIS I/0 PANEL INSERT CONNECTOR WILL VARY WITH EACH UNIT. THIS IS ONLY A TYPICAL REPRESENTATION. Figure 2-11 H3027 Loopback Connector Installed on 1/0 Bulkhead 2-21 - FOR INTERNAL USE ONLY - 6. Remove the Connect panel. 7. H3027 the loopback Remote (Refer Figure T1 Connector cable or from BCl8L-15 the to I/0 the Bulkhead. 2 X 4 I/0 2-12). Install the H3027 loopback connector (Figure 2-12) to the opposite end of the Remote Tl cable or BCI8L-15 and execute EVDAE diagnostic for 2 passes with event flag 3 set. NOTE This loopback test can only be performed if the Tl cable length is 2500 feet or less in length. REMOTE CABLE (REFER TO APPENDIX 8) -~ Figure 2-12 H3027 2X4 1/0 PANEL Loopback Connected to Remote End of Tl .Cable 2-22 - FOR INTERNAL USE ONLY - 8. After two successful passes of EVDAE, remove the H3027 loopback connector. cable or BCl18L-15 (Figure to connector T1 input e S = =S D e e S e = R =1 the stop the diagnostic, Connect the Remote Tl on the H301l4 2-13). S 3 =8 S =38 e ”flfififl%?@flflfi@flfi@fififlllfi : - / BCi18L-15 CONNECTOR 2X4 1/O PANEL - Figure 2-13 T1 Connector Between I/0 and H3014 2-23 - FOR INTERNAL USE ONLY - 9. Install the connectors six which (6) are 29-24929-00 supplied 29-24929-4» in kit 1loopback (Figure 2-14). H3014 Distribution Panel - INTERNAL ONLY LOOPBACK CONNECTOR @ plee)o] Q Pl - staggered the CD - HANDLE ~ el oo ° @) {REAR VIEW) (Fhonr VIEW) O | [t==2) ,"‘o ojoooo* | "iv o O,O , 249-24929-0 @ Figure 2-14 29-24929-00 Installed on 2-24 FOR USE - 10. Execute EVDAE diagnostic for 2 passes with event flag 6 set. If a failure occurs, check the following: e Tl cable for proper seating e H3014 modules for proper seating e H3014 power supply voltages IF THE FAULT IS NOT R CORRECTED, REFER TO CHAPTER 4 CORRECTIVE ACTION. - FOR , CAUTION order In the 11. 12. to check seating, proper the refer procedures to FRU's removing the checking power H301l4 to be of for 4 followed the for boards Chapter H3014 when and supply voltages. Upon successful completion of EVDAE, remove the 29-24929-00 loopback connectors from the H3014 distribution panel. Execute loopback the set DM232 for details. (loop on-line diagnostic type equals EVDAF with four). Refer to internal Chapter 4 If a failure occurs, perform the following: e Check for proper module seating e Verify proper e check IF THE UNIBUS placement voltages FAULT IS NOT CORRECTED, REFER TO CHAPTER - FOR INTERNAL 4 FOR CORRECTIVE ACTION. — USE ONLY - 13. After the User DMZ32 Exerciser during UETP, has passed Test Program check the the system EVDAF diagnostic, (UETP). If a configuration. failure execute occurs 14, After the DMZ32 has passed UETP, return the system to the normal configuration and initiate customer acceptance. S i a M8395 2 EQUIVALENT TEST ey L it LOOPBACK gfiieNmoo .l CONNECTOR =l FR.0|T ' { H3027 N \] o0 cgimecmn TEST "i':'} ) PANEL { VIEW) VIEW) 8CIBL-1S EQUIVALENT ; i — H3248 CONNECTOR TEST LU A UNIBUS INTERFACE MODULE: I M8338 BC22 E/F OR H3027 CONNECTOR : \ry casLe REAR CABINET AREA . Hofa2 FeffD » HI9652-MF Figure 2-15 DMZ32 Installation Overview 2-26 - FOR INTERNAL USE ONLY - 2.7 DMZ32 INSTALLATION CHECK-OFF LIST PHASE I - Preinstallation Consfiderations: 1. System Requirements A. M8398 Module (Section (Section 1.4) 1l.4.1) UNIBUS Loading A Power Requirements AR Interrupt Priority Level A DMZ32 Device Address Determination B. H301l4 Distribution Panel / (Section 1.4.2) , Power Requirements PHASE 1. II - M8398 /__/ Installation Unpack DMZ32 option and verify .that all components were Table 2-1) ® 2. E-63 set for shipped proper (Section 2.2 E-53 S1 through S8 and /____/ priority level (Section 2.5.1 and Figure 2-1). 3. {f set to | UNIBUS /__/ Address, refer to Appendix B (Figure 2-1). for UNIBUS Address 4, E-53 S9 set to "ON" (Figure 2-1). 5. E-53 6. NPG wire (CAl -CB1l) removed. /S 7. Backplane resistance checks complete. A 8. With Power ON, verify selected SPC backplane S10 voltages. 9. set to "ON" — /S (Figure 2-1). S - /S Install'M8398 Module into selected SPC slot of the backplane. - FOR INTERNAL /_/ USE ONLY - PHASE Installation - H3014 III 1. Unpack H3014 distribution panel and that all components were shipped. 2. Install H301l4 3. 4. into proper verify cabinet. / / Connect power cable to Switched output of power controller. If the H3014 the (Section is received 2.5.2) in a cabinet, remove shipping bracket. PHASE 1V - Cable Installation 1. Connect the 2 2. Remove blank X 4 I/0 panel 1/0 panel from supplied with the DMZ32 to the BC22N-10 cable. Frame to make space for supplied with the DMZ32. Connect BC22N-10 cable to 4. Connect BCl8L-15 X 4 the FCC Bulkhead the new I/0 panel 3. 2 /__/ I1/0 the M8398 module. cable between panel and the BC22N-10 the H3014 distribution panel. PHASE V - DMZ32 1. Run _ System Checkout EVDAE with M8398 module 2. Connéct M8398 module panel 3. Run (Figure 2-10). EVDAE with the cable 4, When (Section power is connected to J1 of the to /_/ the BC22N-10 cable I/0 VAR H3027 connected to the BC22N-10 2.6). applied LEDs display a Table 4-4). 5. H3028 (Section 2.6). normal /_/ to the H3014, indication the front (Refer panel to / _/ Run EVDAE with BC1l8L-15 connected to the I/O panel with a H3027 of the cable. to the 2500 far turnaround end connected to the open end (If a remote cable, connect the H3027 of feet or less the Tl cable in length.) ONLY - if FOR the cable | INTERNAL is S/ USE ONLY - Disconnect the H3027 from the Tl cable and connect the Tl cable to six the (6) the H3014 29-24929-00 H3014 T1 Connector. staggered Distribution Panel Then place turnaround and run connectors EVDAE. EVDAE on runs successfully under all conditions (Section 2.6). _/_/ EVDAF runs successfully under all (Section 2.6). Remove all loopback connectors, over to the customer. conditions and turn system S - S/ - 2-29 - FOR INTERNAL USE ONLY - CHAPTER THREE PROGRAMMING INTRODUCTION 3.1 This chapter describes bits of each register are defined. operation of the DMZ32. the different registers which control the Each register is listed and the different Overview 3.1.1 The DMZ32 asychronous multiplexer contains 3 octets of 8 transmit and 8 receive lines each making a total of 24 lines available for data. baud These 24 rates to lines may be programmed to bps from 50 19,200 bps. capability of operating with different operate at transmit baud receive and All lines have modem control and each receive and transmit rates. line can be independently enabled or disabled. rate 14 one -of lines have the 24 All and receive vector interrupt transmit There is each for of sepa- a the 3 These vectors may be enabled or disabled independently. Separate TX READY and RX DATA AVAILABLE bits exist for each octet octets. These octets to allow for non-interrupt-driven device operation. e, each can be operated independently from each other. For exampl octets. other the of any affecting octet can be reset without In the DM2Z32, characters receive line respective their with numbers and status information are stored in a 128 character silo. An interrupt may be generated for Each octet has its own RX silo. the following reasons: ¢ the RX silo e the RX contains programmed time silo was read. characters, been has silo 64 interval or for non-empty since the last more than a time the RX : The DMZ32 may be programmed to echo all received characters. Each transmit line has its own separate 32 character TX silo. characters to be respective TX silo. transmitted must first be 1loaded into All the The TX silo may be loaded in one of two ways. The first method (Programmed Mode) is to use CPU move instructichs to load one or two characters at a time into the proper Indirect Address Memory Register. Access (DMA) The second transfers method (DMA from main Mode) memory. is via Once Direct a DMA transfer has been initiated, characters are automatically put into the TX silo every time the TX silo count drops below 8 characters. This cycle continues until the DMA byte count is When the zero. last character to be transmitted is fetched from the TX silo, an interrupt silo may will be be generated flushed, if resulting requested. in If emptying zeroing any remaining DMA byte count. If bit is HIGH, an interrupt is generated. desired, each TX the TX silo and the TX interrupt enable - FOR INTERNAL USE ONLY - Each transmit The line's When enabled, transmit line may receiver a line character received to will be operated must be XOFF the 1In a transmit XOFF character will either enabled disabled. 3.1.2 Device Registers the operating system or long RX silo timeouts as the- transmitter. The UNIBUS to DMZ32 -device- registers, is to This mode the time-critical for each three octet. XON/XOFF mode cause to the in respective an In XON both the octet's RX transmissions have been of operation XOFF (3) The allows for 1nstant1y dlsables : - groups of four four device (4)- registers are: : 3.1.3 The mode. operate. receiving be enabled. be stored aware that interface uses one this will line the XON or so automatic for like manner, cases, silo an character be disabled. cause in enabled ® Octet @ ® Octet Line Parameter Register (LINE.PAR.REG) Octet Receive Buffer (RX.BUF/OCTET Receive Control ® Octet Parameter and Status Register (RSP.REG) Indirect Registers is used for the Silo (IND.REG) Octet Control and Status Register OCTET.CSR (OCTED.CSR) (OCTET.CSR) following: ‘To select one of four Indirect Registers To select a register line number To initiate a Master Reset To To To To 3.1.4 Octet enable/disable receive and transmit interrupts indicate when data is in the RX silo indicate when a TX silo is empty indicate a NXM error Line Parameter The LINE.PAR.REG is used The bits per to Register specify (LINE.PAR.REG) the character The number of stop bits per The receive following: and transmit frame baud rates The parity enable/disable and 3.1.5 The The sense Octet Receive Buffer (RX.BUF/bCTET Receive Silo Parameter (RSP.REG) RSP.REG is used to read the following: e The received character ® The status ® The RX RSP.REG is used to silo byte associated write: alarm timeout N with the received character. FOR INTERNAL USE value 3-2 - ONLY - 3.1.6 Octet Indirect Register (IND.REG) The IND.REG is used as a window to one of four registers (IND.REG e IND.REG O e IND.REG 1 ¢ e ® e e e e e Write to the can following The 0, IND.REG 1, IND.REG 2, or IND.REG 3). performed by the appropriate registers: be TX silo Read the TX silo count Read the RX modem signals Enable a preempt characte Set the TX modem signals Functions of reporting the Enable Control Maintenance the Enable an RX modem signal change Flush the TX silo Break the TX line Enable the receiver and/or transmit- ter ® e IND.REG 2 e e IND.REG 3 e ® Enable auto XON/XOFF Specify buffer Specify buffer bits of a DMA upper the 2 bits of a DMA address Specify the DMA transfer byte count INITIAL OPERATION 3.2 Before the DMZ32 can be prepared for system lower 16 the address must itself diagnostic operation. routine conditions: be checked within the for loading line parameters, proper DMZ32 This self-diagnostic power up is is operation. run to run under ¢ On e e e After UNIBUS Initialization (INIT) M8398 pushbutton switch AAQ00 to the diagnostic register verify the proper following - PARAMETER INITIALIZATION 3.3 After an the self- A INIT or a Master Reset has occurred within the DMZ32, the load the transmit and receive buffers are empty and all lines are disabled. Before operation can begin, the Operating System must line parameter register (LINE.PAR.REGK15:0>) with the desired parameters for specific lines before enabling these lines. (The are line parameter registers must be loaded even if all parameters Zero.) 3-3 - FOR INTERNAL USE ONLY - The line the lower number <2:0>. parameters byte of the program After interrupt enable (CSR<K15: 0>), and receive TX Modem cleared the any signals are Reset. Modem program is ready Signals of the 3.4 The the appropriate is not set, TX.RDY is an INIT and signals going to the DMZ32 If register every lines. An desired transmit DMZ32 can Master time INIT Register the Reset. are there or are Master a in the the is loaded Reset set, then is of data the is is can occur, line IND.REG line 1 is and line must If held programmed a a performed Register. disabled not whenever active when due has to line. be the -- one or causes transmit silo a the appropriate bit marking echo becomes will contain OCTET.CSR<13> to an aborted clears cleared is DMA TX.RDY. before set the if the the empty DMZ32 is can state remote due to a a silo flush. then line an interrupt number The act important assert to read CSR<K15:0> If TX.RDY 1is transmission transfer. This or where has of reading because TX.RDY the been for TX.RDY another - %= To minimize the possibility of interrupt overload from occurring, the program should the program decides transmit attempt to to fill keep a silo count register transmitted from the silo count indicates how many full of this, a silo silos specific full silo, at it all may times. If inspect the to determine how many characters have been Because while count of it is positions zero being filled. there are indicates an The in the empty silo silo. silo, and a silo count of 32 indicates a full silo. The transmit silo count registers may be examined at any time and any particular line's silo may be loaded or flushed. These operations may be performed regardless of whether the not. a line disabled If is transmission stops transmitted. However, respective after if the will remain and upon the will resume as normal. transmit while the contents silo - enabled. setting the auto set, be by the in for TX.RDY becomes OCTET.CSRK2:0> OCTET.CSR<15:0> a i transmit line empty. stopped by into also or Modem B affected the transmit vector is posted. The program should in order to determine the cause of the interrupt. silo set TX a change on leaving the silo to be transmitted or TX.I.E. be The not is _ OPERATION asserted character the after of bit (providing loopback) . from appropriate Status enable INIT or in LINE.SELECT the and only transmission enabling coming contained update. TRANSMIT Before sets Control to is Register, an signal device register loaded after cleared Control be optionally the time to Parameter in respective device more are Line bits Control at the lines. Master - RX whose order its silo current silo enabling line is is enabled being character emptied, has has been 1loaded, the line, transmission 3-4 or the been silo from : - FOR INTERNAL USE ONLY - - 3.5 The bits RECEIVER OPERATION receive lines data. in All the lines DMZ32 are enabled by A line must be enabled 1. IND.REG in in each octet share a is no DMA mode for the receiver. There 3.6 setting appropriate in order to receive 128 character receive silo. DEVICE REGISTERS AND VECTOR ASSIGNMENTS A block of 16 words has been assigned to the iegisters which control line the the DMZ32. floating block CSR range via includes CSRs for the <12:5> of the base on the The base address DIP switches device floating the for A Appendix to (Refer This for each octet. registers CSRs and four is selected 1in DMZ32' -module. and addresses - vectors.) The floating words (refer determine bits registers that are Access by word means register (DATOB) DMZ32 3-1). the hex in Eight starting a contiguous switches on block of 14 DMZ32 the address. The a line's transmit silo. causes a data UNIBUS cycle. than data byte used to out (DATO) rather on registers the that registers access instruction that operates on the a out The DMZ32 pays no attention to the least significant UNIBUS address bit only. are in this block can only be addressed by word except for contained the Figure to that are word access- Because of this, the register block must be located on a 20 address devices as boundary. shown The in Figure sixteen 3-1l. words are allocated to the - FOR INTERNAL USE ONLY - 7750‘408 DMZ32 BASE +0 CONFIGURATION CONTROL ANO STATUS CONFIG. CSR DIAGNOSTIC CONTROL AND STATUS DIAG.CSR _ 7760444, DMZ32.BASE. OCTET CONTROL AND STATUS LINE PARAMETER LINE.PAR.REG RECEIVER BUFFER/RECEIVE SILO PARAMETER IND.REG[OL[11.{2}.13) INDIRECT REGISTERS OCTET CONTROL AND STATUS UNE PARAMETER UNE.PAR.REG RECEIVER BUFFER/RECEIVE SILO PARAMETER INOIRECT REGISTERS OCTET O BASE +6 [ OCTET 1 BASE +0 . , OCTET 1 BASE +2 OCTET OCTET 2 BASE +0 LINE PARAMETER OCTET 2 BASE +2 RECEIVER BUFFER/RECEIVE SILO PARAMETER RAX.BUF/RSP.AREG OCTET 2 BASE +6 IND.REG{O}.[1].{2].[3] Allocation OCTET OCTET 2 .B,A'.S_E_fé R INDIRECT REGISTERS DMZ32 Word OCTET OCTET L ONTROL AND STATUS LINE.PAR.REG 3-1 OCTET O BASE +2 OCTET | BASE +6 IND.REG {01.{1L.12].{3] Figure l OCTET 1 BASE +4 RX.BUF/RSP.REG 77604648 OCTET O BASE +0 OCTET O BASE +4 RX.BUF/RSP.REG 7760454a +2 of Device Registers - Control/Statu . FOR INTERNAL USE ONLY - 3.7 CONFIGURATION CONTROL AND STATUS REGISTER (CONFIG.CSR) The Configuration Control and Status Register has an address which. establishes the rest of the remaining addresses the for DMZ32. Refer to Appendix A for the floating device addresses and vectors. This register (Figure is 3-=2) used by the VAX/VMS Operating System at the time the system is being automatically configured. The autoconfiguration routine scans each bit of the CONFIG.CSR(O0] register to determine what type drivers should be loaded. Refer to Figure 3-1.1 registers. for a bit map 12 15 CONFIG. CSR 08 " INTERFACE TYPE 4 overview of .the 07 DMZ32 . o VECTOR BASE A0DDRESS NUMBER QOF OCTETS 5 DIAG. CSR 1 co ‘ DIAGNOSTIC 1S 164 13 CONTROL 12 11 10 08 07 o068 05 TRANSMIT LINE , TRANSMIT UNUSED INTEARUPT ENABLE TRANSMITTER 02 REG. NUMBER RECEIVE air O INOIRECT NUMBSER OCTET.CSR (READ/WRlTE) DATA o0t 00 R | b : MASTER NDIRECT REG RESET AVAILABLE ’ UNUSED 81T - REGISTER UINE NUMBER RECE;vi READY INTERRUPT ENABLE TRANSMIT QMA ERROA T 12 N TRANSMIT BAUD RATE | 08 07 08 05 RECEIVE BAUD RATE 04 01 OF f::::f““ LINE.PAR.REG (READ/WRITE) JINE SELECT T STOP CODE | samiry | o — enasie EVEN/ODD PARITY 1 14 13 12 1 10 o8 o7 RECEVE LNe RECEIVE CaRaCTES J ; RX.BUFF (READ ONLY) DATA FRAMING VALID €RAOR DATA SET CHANGE QVERRUN PARITY ERAOR EAROR 15 RSP.REG (WRITE ONLY) Figure o o8 RESERVED aI1s 3-1.1 07 % RECEIVER SILO ALARM TiargTMy 7 DMZ32 Register Bit Map Overview 3-7 - FOR INTERNAL USE ONLY - IND.REG O (WRITE ONLY) ] = L o 2 TRANSMIT CHARACTER 18 14 13 12 11 TRANSMIT CHARACTES 10 09 o8 o7 e USED BITS TRANSMIT SILO COUNT r IND.REG 0 (READ ONLY) RING CLeamTo | useR I:0ICATOR | SEND RECEIVE | OATA SET CARRIER READY DETECT 1§ 14 13 UNUSED 12 11 10 09 O8 07 O Os oOsa 03 02 O Q0 UNUSED TS 1 IND.REG 1 (READ/WRITE) PREEMPT UNUSED | DATA MAINTENANCE | FLUSH RECEIVE | TRANSMIT ar CONTROL ENABLE TERMINAL | TRANSMIT | READY REQUEST TO SEND | SiLO ENaBLE LINE OATA usEn OATA SET SIGNAL TRANSMIT CHANGE AUTO ENABLE XON/XOF$ RATE SREAK TRANSANT SELECT IND.REG 2 (READ/WRITE) IND.REG 3 (READ/WRITE) 15 I = TRANSMIT BUFFER ADDRESS TR EERE 00 RANSMIT BUFFER DMA CHARACTER COUNT ADDRESS Figure 3-1.1 DMZ32 Register Bit Map Overview - Continued - 3-8 - FOR INTERNAL USE ONLY - ] used by interrupt vectors six There are the to contiguous M8398 There are no switches on the M8398 module that the first vector. have control over the interrupt vectors the interrupt vectors as are under software control. to Table 3-1 for the bit map of the configuration control Refer (MUX.CSR[0]<K15:>). and status register This register cycle. may 12 18 accessed be INTERFACE TYPE with read modify R S Q0 - i (RMW) write - , o7 o8 11 a VECTOR BASE ADORESS NUMBER OF OCTETS %'?rTsE‘Zr.cs) of the WIRUS vechr sddiess ace lways =evo! dherefoce only the fop eisht hifs £2:2) of +he VNIBUS ace war mfi«l inh CONFIG,CSR £7:8). Figure 3-2 Table 3-1 Configuration Control and Status Bit Map Register vector (CONFIG.CSR) Configuration Control and Status Register Functions —----—-—---- -—----—-_----—-‘--—--‘-—'——-—--—-fi-——‘——---—--——--—-, <7:0> Vector The CONFIG.CSR<7:0> loaded vector six at is read/write and is autoconfiguration address floating of vector interrupt with vector Vector ° Vector Vector °® ' Receive vector [1]<8:2> Transmit vector [2]1<8:2> Receive vector [0]<8:2> for FIRST octet for FIRST octet .for The addresses are as follows: °® the [0]<8:2>. SECOND octet - FOR INTERNAL USE ONLY - | Table 3-1 Configuration Control and - Continued Bits Title <7:0> Vector Cont. e Vector [3]<8:2> Transmit vector for ® SECOND octet, Vector [4]<8:2> Receive vector ° for THIRD octet, Vector ([5]<8:2> and Transmit vector for There are interrupt no switches vectors. locations are at other vectors by as are shown VECTOR [0]<9:2> = 320 VECTOR [1]<9:2> = ) VECTOR [2]1<9:2> = 330 ° VECTOR [3]<9:2> = ° VECTOR [4]1<9:2> = 340 ° VECTOR [5]<K9:2> = 344 bits INIT.D executing are .. .. to The be 324 334 cleared upon receipt of the microdiagnostic. CONFIG.CSR<11l:8> will always be read as a binary value of three. In CONFIG.CSR<9:8> a 24-line octets) 1Interface ... . - below. ® These ... operating time. assumed ° Number the autoconfiguration when <12:15> THIRD octet. on the DM2Z32 for The six vector loaded system contiguous <8:11> Functions Function ~ e Status Register - binary unit is three (l1l) 1is (three to be eight line configured. present, a groups or CONFIG.CSR<12:15> will always be read as zero and controls the loading of drivers. Since only asynchronous lines are available, only asynchronous drivers will be loaded. - FOR INTERNAL USE ONLY - . 'DIAGNOSTIC CONTROL AND STATUS REGISTER (DIAG.CSR) 3.8 Device Base + status and control The diagnoétic register an has address of 2. 1is the The diagnostic control and status register (DIAG.CSR) The DIAG.CSR can be thought of as a UNIBUS window into the DMZ32. device used by the host processor in controlling trunk loopback functions, monitoring test status, requesting/reporting microcode T revision numbers, and starting on-board diagnostics.=~ Diagnostic Control and Status Register (DIAG.CSRK15:0>) =~ | | ' Write - 3.8.1 The bit map Figure 3-3.1. the for DMZ.CSR[2]<15:0> - register may NOT be accessed by word only. Bits ' with a RMW cycle, Diagnostic it NOT be Control USED Register Status and (DIAG.CSRK15:0> - Write - Bit Map Diagnostic Control and Stutus Register DIAG.CSR<K15:0> - Write =~ Decimal Octal Function/Test Description o WRITTEN TO DIAG CSR<15:8> <15:8> can 00 9 o7 DIAGNOSTIC COMMAND 3-3.1 Hex accessed , 1§ Table 3-2.1 in (Refer to - Table 3-2.1 for the functions performed. Figure seen be This 1s for DMF32 -conformity. register for commands. This can - Write The DMZ32 only uses the upper byte (<15:8>) of this AA 170 252 Start Self Test 55 85 125 Halt UBI Microcode e 2A 42 52 Read UBI Microcode Version Number 2B 43 53 Read TIU Microcode Version Number 2C 44 54 Read RDP Microcode Version Number 2D 45 55 Set Local Trunk Loopback 3-11 - FOR INTERNAL USE ONLY - Table 3-2.1 Diagnostic Control and Status Register DIAG.CSR<15:0> - Continued Bits Hex Decimal Octal Function/Test Description 2E 46 56 Clear Local 31 49 61 Set 32 50 62 Clear ALL Lines Loopback (EIA) 33 - S T D D G D G 3.8.2 The i 51 GED GNP AES G D W 63 TED GNP T G WD AR R D G Diagnostic Control bit Read - map for Figure 3-3.2. This SR GE accessed Read G G WD D and D GNP MED G SR WD Lines T1 IR D Status D Loopback Status D G AR WD G Loopback (EIA) ca ' Register D WD WD G Register WD R I WD N D W D I D I G WD WD b WAL DIAG.CSRK15:0> e - ’ the (Refer register G ALL Trunk may DIAG.CSR[2]<K15:0> to NOT Table 3-2.2 be - Read - can be seen in can be for the functions performed. accessed with a RMW cycle, it by word only. 15 14 13 00 STATUS OR ERROR RETURNED VALID REG ERROR/ STATUS Figure 3-3.2 Diagnostic Control DIAG.CSRK15:0>- Table Y WS W 3-2.2 D GED EED G YRS GED SED Diagnostic P GED CHD CED Bits Hex <15> (valid D G D M) WA W GE GNP GED GNP GNP G Decimal Data Control Flagq) WHD GED GED GED GED UV Octal Read and IR and - Bit Status AR AL G D D G CuD D D Register P CHD ML D GHD CED Function/Test This bit the content is register set, Status is the Register Map DIAG.CSR<15:0> D GED WD SER S D A R D VD WD G GMD GES SRS G S Description used to of the valid. indicate if diagnostic If microcode executing the selftest. - FOR INTERNAL it is USE ONLY 1is not still - Diagnostic Control and Status Register DIAG.CSR<15:0> Table 3-2.2 - Continued - Function/Test Description Octal Decimal Bits Hex <14> (Status or Error Flag) the if indicates Dbit This content of the diagostic register is a status return or an error return. 0 1 <13:0> = Status = Error (Status or Error Return) Refer to Table 4-1 for details. 3.9 (OCTET.CSR) REGISTER STATUS AND CONTROL OCTET - Read/Write - The Octet Control and Status Régister (OCTET.CSRK15:0>) has an The bit map for the OCTET.CSR<15:0> address of Octet Base + 0. (Refer to Table 3-3 for the bit can be seen in Figure 3-4. ) functions performed by this register.) This register may NOT be accessed with a RMW cycle. 1 14 13 12 11 10 08 07 08 05 04 TRANSMIT LINE NUMBER FRANSMIT 01 00 REG. NUMBER RECEIVE aIT ENABLE TRANSMITTER READY , UNUSED INTERRUPT 02 INDIRECT DATA MASTER AVAILABLE UNUSED SI1T INDIRECT REG. RESET UNE NUMBER RECEIVE INTERRUPT ENABLE TRANSMIT QMA ERROR Figure 3-4 Octet Control and Status Register (OCTET.CSR) Bit Map Table 3-3 Bits <15> Octet Control and Status Register Functions Title Transmitter Ready Function This bit is set when an N enabled line (pointed silo into the to by OCTET.CSR <10:8>) has loaded the last character from the respective line holding register. 3-13 - FOR INTERNAL USE ONLY - - " This read/write Reset, INIT, register. <14> bit or Transmit When set, Interrupt requests to be made when TX.RDY is set. Enable A is the cleared act of this bit allows Master Reset to a Master this interrupt the or by reading transmit vector clears thls INIT read/write bit. <13> : This bit is used only when the respectivé Transmit DMZ . NXM line is in DMA mode. This bit is set the indicated line if the DMZ32 controller either did not receive Error at least 32 microseconds after for. . UNIBUS a SSYN issuing a MSYN, or the controller could not become bus master for at least 32 microseconds after having asserted BUS NPR. OCTET.CSR <2:0> points to the line in error. This read only bit program reads this <12> - Not Used - <11> - Not Used - <10:8> Transmit When TX.RDY contains 1is Line Number the number the and are become of empty. set, Receive Data Available <6> Receive Transmit whose silo read only, by Master Reset, INIT, a this are has Line bits cleared line the — These or the act of reading <7> S - INIT. an or Reset, is cleared when the register, by Master register. This Read ONLY bit is set whenever data is available in the receive silo and is automatically cleared when the receive silo is empty. Receive Data Available cleared by Master a (RX.DATA.AVAIL) Reset or Interrupt When this read/write bit is requests can be made to the Enable under the ° is INIT. set, interrupt receive vector following conditions: Receive Data set longer for Available than the has been timeout period ° 64 characters receive silo have entered the 3-14 - FOR INTERNAL USE ONLY - Table Bits Octet Line Control and Status Register Functions 3-3 - - Continued Function Title a Master cleared byhis ---P bit 1s ==-= read/write """""" se=s=s== <5> T - . INIT. Reset or - When this read/write bit is set, a Master This bit remains set Reset is initiated. while resetting is taking place "and is Master Reset cleared after Master failure. The Reset has occurred. This bit will remain set after a self-test program should not access device registers of the octet being reset (other than occurring. a Master effect. this one) while reset is Writing to this register while Reset Master is taking place up takes Reset has to no 500 microseconds. NOTE Performing the Master only affects one octet. be <4:3> <2:0> Reset function Each octet must — individually reset. - Indirect These read/write bits point to one of four Number automatically Register Indirect Register Line Number (4) indirect registers. cleared by These bits are Master Reset oOr INIT. These read/write bits point to one of eight (8) indirect register groups. This register is accessed through location Octet Base + 6. These bits ically cleared by Master - FOR are automat- Reset or INIT. INTERNAL USE ONLY - 3.10 LINE PARAMETER REGISTER (LINE.PAR.REG<K15:0>) The Line Parameter Register has an address of Octet bit map for the line parameter register can be seen Refer This to Table 3-4 for individual bit register may be accessed with a NOTE The line ALWAYS the parameter be loaded particular enabled (even line if Base + 2. in Figure The 3-5. RMW cycle. the should parameter before the Read/Write functions. register with - the for line parameters is are all Zeros). Bits <2:0> are used to specify number when writing only. OCTET.CSR 15 12 <2:0> 1 TRANSMIT BAUD RATE | . selects 08 07 the When the 06 line 05 number. 04 RECEIVE BAUD RATE' line reading, 03 02 &u:g:mn 00 UNE SELECT STOP CODE | PARITY ENABLE EVEN/OOD PARITY Figure 3-5 Line Parameter Table 3-4 D D G G S D Bits <15:12> D G A WD D CED GED AN D D CED DGR Transmit Rate (LINE.PAR.REG.<K15:0>) Line Parameter Register Functions GES D Title Baud Register D TED D P D b AR WD GU NP NS WED GAD G ED CED G G D ED D W WA D D I SED G TED D WD G GEP WD D GHD WD P N GNP S WG S Function When . a line is selected, specify one baud rates: Bits of the <15:12> these bits following Baud 14 Rate 50 Baud 0001 75 Baud 0010 110 Baud 0011 0100 0101 134.5 150 300 Baud Baud Baud 0000 transmit 3-16 - FOR INTERNAL USE ONLY - Table 3-4 Line Parameter Register Functions 1200 Baud 1001 2000 Baud 1100 4800 Baud 1111 19200 Baud Split baud rate capability is supported. rate specifies the rate. Bits <15:12> Baud 75 Baud 0101 300 Baud 011l 1200 Baud 1001 2000 Bauwd .. 1100 4800 Baud 1111 19200 Baud 1110 . Baud 9600 This bit specifies the number of stop bits follows: logic 0 = 1 stop bit logic l ® 2 stop bits When parity enable is set, even/odd parity specifies which parity is being used. as follows: e e Parity Enable Baud 2400 for the selected line as e <5> Baud 1800 1010 Baud Baud Baud Baud 600 1000 Parity Baud 110 134.5 150 0110 Even/0dd = _ 0010 0011 0100 0001 <6> Rate 50 0000 Stop Code the receive baud selected receiver's When a line is selected, baud <7> Baud 9600 1110 Baud Rate Baud 2400 1010 Receive Baud 1800 1000 - Baud 600 0110 0111 <11:8> - Continued Logic 0 Logic 1l odd character parity even character parity When set, this bit causes a parity biE to be generated on transmission. bit is checked and stripped of the selected line. The parilty on reception 3-17 - FOR INTERNAL USE ONLY - Table D G W IR D <4:3> D S G D 3-4 D GED GNP GED Line GNY GRS WD TED CED WD Parameter SR Character SN ORI CED WED WED WD GED WD Register D D These D WD GhE GUL CED two SN D Select line as follows: These the written. for GND CED GED D R 4l SR bits D CED specify counting if - Continued GES ED N GED the start, enabled) R for SN D CEL GND SUD - R SR CED W A character stop, the and selected per character bits per character bits per character bits per character bits 1line D bits (not 00 = 5 0l = 6 10 = 7 11 = 8 Line CED CED length parity bits, <2:0> Functions contain whose Selection reading the binary parameter is of a done number are to particular by of be line way of OCTET.CSR<K2:0>. - FOR INTERNAL USE ONLY - 3.11 RECEIVE BUFFER REGISTER (RX.BUFK15:0>) The receive buffer register has and Table - Read Only - an address of Octet Base + 4, Refer to Figure 3-6 for the bit map of the receive buffer register register. in this functions of each bit contained the 3-5 for It is through the receive buffer register that the program_accesEvery time this register is read, data ses the receive silo. in words silo the shift down by one cycles access successive silo entries. read Successive position. g This receive silo not only contains receive characters and associated status information, but also contains data set change information. B Master Reset or INIT flushes the silo. 00 This register may NOT be accessed with a RMW cycle. i8 14 13 12 11 | " ) T T Figure 3-6 ‘ Receive Buffer Register Table 3-5 VD RECEIVE CHARACTER ERROR ERROR =R | — Receveune | NUMBER PARITY OVERAUN D WIS W 08 ,07 FRAMING | DATA SET CHANGE ERROR DATA VALID D 10 D YD CED IR G S W G (RX.BUF) - Read Only - Bit Map Receive Buffer Register Functions N TED WEP WIS CED GND WD UR W TR P D wEE WD W TR WD D WD W D D D D D S WD D SN G W WS N G ik R SIS A G D G T W G T D P = = Bits Title Function <15> Data When this bit is set, the remaining bits valid ' are valid. loaded into is This bit the set when data is receive buffer This bit is cleared by Master register. as there Reset, INIT, long This bit will remain set as is data in the buffer. or when the receive buffer becomes empty. <l4> Overrun Error This bit is only useful (RX.BUF<K11>) is clear. one or more previous if Data Set Change This bit is set 1f characters were lost on the line due to the silo being full. <13> Framing Error This bit is only useful if Data (RX.BUF<11>) the line received the time on which the was in the first the character spacing (0) stop bit was FOR INTERNAL 3-19 - Set Change This bit is set 1if is clear. was state at sampled. USE ONLY - Table 3-5 Receive Buffer Register Functions - Continued Function D D S A D D WD G CER R G G D L D D D N S S S > ol - D P G Y D This bit Change W <10:8> <7:0> D D D D R D R YD WS G D G D GED T ED D N ) GED W WD D is only useful if the Data error has which the is enabled been character character Data Set S W (RX.BUF<K1ll>) bit will be <11> R is is clear. for If the W W W= Set parity line on and the received, incorrectly, received D this set. When this bit is set, RX.BUF<7:0> is Change zero, RX.BUFK10:8> contains the line number of the modem line that has changed. Receive These bits contain Line the line on which a character was received Number and set change.experienced. Receive These bits contain the received character only if RX.BUFK1l> is clear. 1If parity is Character a data enabled, the Characters the binary number parity less justified are right If RX.BUFK11l> the RX.MODEM signal. bits will set be to bit than is eight with of stripped bits the in high off. length order zero. zero 1is and - set, the FOR then program INTERNAL RX.BUFK7:0> should USE read ONLY - 3.12 "RECEIVE SILO - Write (RSP.REGK15:0>) PARAMETER REGISTER Only - The receive silo parameter register has an address of Octet Base + The This register is write only and is accessed by word. alarm silo receive silo parameter register contains the receive timeout. Refer to Figure 3-7 for the bit map of the receive silo 4. parameter register. This register may MNOT be accessed by a RMW cycle. o8 _ 15 _ RECEIVER SILO ALARM TIMEOUT RESERVED BITS Figure 3-7 00 07 Receive Silo Parameter Register (RSP.REG) - Write Only Table 3-6 Bit Map Receive Silo Parameter Register Functions O - D G CED TS SR TED SED I WD WD W S CHp D W ED - D D D WD D WD D P I U W WD S NS D S GED D WD CES WD WD G GAD MER AN GED S GRS SUB D D D TP Chb M CHD GT OED CHD WD GND b W D Bits Title Reserved Bits <15:8> <7:0> Function Receive These bits specify the silo alarm timeout Alarm data has been sitting in the silo for a Silo Timeout An interrupt will be generated if period. time equal to or longer than the timeout period. read, a occurs, Every Master time Reset receive the restarting the occurs or internal is silo INIT an timer. The timeout period can range from 0 to Loading a approximately 255 milliseconds. value of zero into this register causes an infinite timeout. following The these eight shows bits progression specify the of silo how . alarm rate: Infinite timeout e 00000000 e 00000001 e 00000010 Approximately 2 milli- e 00000011l Approximately 3 milli- 3-21 Approximately 1 milliseconds timeout. seconds timeout. seconds timeout. - FOR INTERNAL . USE ONLY - Table - 3-6 Receive Silo Parameter Register Functions . D P D D WED D D NS WP WD GED GED WD Sb NS P SEG S WED IR D WEN D GV W WED WD W VED WS D D VNS GIR D VED R WIS WD D WD D WD D D D G G Bits - Title S G GES. D VD GNP WD WD D G GNP G WD GED - Continued D . D D e - e - D = Function D VS VD W THD WD SN G CED W D D G P WD MNP GHD D Ul P WP D GES MNP W R D WD WH WD D G} G GED GED SN S W D D MD R WD D D W <7:0> - Continued e¢ 11111111 = - Maximum timeout, approx- : imately 255 milliseconds. Approximately 1 millisecond is added for each bit on increment. microcode accurate. timeout Master is The set Reset 1loops or to This and timer receive a value is based is not very of 1 after silo alarm - INTERNAL " ST a INIT. FOR USE ONLY - INDIRECT REGISTERS 3.13 of the There are 32 indirect registers associated with each octet DMZ32. Oonly the generic indirect registers are covered 1in this chapter. The generic indirect registers IND.REG 1, IND.REG 2, and IND.REG 3. The indirect of the registers are addressed covered by the indicate the the Octet Control and Status Register <4:0>. address referenced, OCTET.CSR<2:0> are IND.REG O, five-bit address in-- The lower three bits 1line being number and the upper two bits OCTET.CSR<4:3> select which indirect register of that line is being accessed. - FOR INTERNAL : USE ONLY - 3.14 INDIRECT REGISTER The indirect register This write (IND.REG[0]<15:0>) - Write Only - of Octet Base + 6. [0] has an address while in the into the TX " Writing to this register enters one or two characters 1nto the 32 silo. two to This data register should this register will of Mode PROGRAMMED writing only operation. be written still load In is permissable but will to only Mode DMA characters result operation of in the mixing of the streams. for the selected line. transmit silo character this register is a WORD, for example; byte is into the silo first. characters are loaded into the silo. loaded ‘is 'a BYTE, loaded the UNIBUS If the write to DATO, The character then two in. the lower If the write to this register for example UNIBUS DATOB, then only the lower byte is into the silo, and the high order character is ignored. The bit map for the indirect register 0 - Write Only - can be seen in Figure This 3-8. register may AT NOT be accessed with o8 A 3-8 Indirect Register RMW cycle. 00 o7 TRANSMIT CHARACTER TRANSMIT CHARACTER Figure a (IND.REG[0]<15:0>) Only Bit Map - Write - Bits Title Function <15:0> Transmit This register is reserved for data that is Character Buffer being transmitted. 3-24 - FOR INTERNAL USE ONLY - INDIRECT REGISTER (IND.REG([0]<15:0>) - Read Only - 3.15 The The indirect register [0] has an address of Octet Base + 6. bit map for indirect register (IND>REG[0]<15:0>) - Read Only - can be seen in Figure 3-=9. This register may NOT be accessed by a RMW cycle. 14 1 12 13 11 10 USED 8ITS TRANSMIT SILO COUNT TT CLEAR TO ustla RING INDICATOR | SEND DATA SET CARRIER READY DETECT Figure 3-9 00 ‘ _ 07 08 09 RECEIVE UNUSED Indirect Register (IND.REG[0]<15:0>) Bit Map - Read Table 3-8 Only - Read Only - Functions Indirect Register 0 --—--—--—_--—» .---_—---—--—‘---——-_-o-—-”—-—d--‘-_‘—--“-fl-c--——---—— Bits Title Function <15:8> Receive This byte contains the receive modem All modem status for the selected line. Modem signals represented in this register come Status from data the equipment communications The MODEM.RX byte is updated after (DCE). a Master Reset or the RX silo. INIT but not flagged in If the receive silo is full and data set change enable (IND.REG[1]<5>) is set, a data set change will be flagged only after this when <15> Data Set ' Ready <14> Ring Indicator way, the the data RX silo silo set is becomes changes non-full. are not 1In lost full. This bit reflects the state of the Data Set line (RS232C circuit CC) coming from the modem connected to the selected line. This bit reflects the state of the Ring Indicator line from line. the modem 3-25 (RS232C circuit CE) coming connected - FOR to the selected INTERNAL USE ONLY - Table Bits ' 1Indirect Register Continued Title <13> - <12> 3-8 - Carrier Detect Clear to Send 0 - Read Only - Functions - Function _ This bit reflects the state of the Received Line (RS232C circuit Signal Dectector 1line CF) coming from the modem connected selected to the line. This bit reflects the state the Clear to Send line from (RS232C circuit CB) the modem connected This bit is connected pin 25 of the for whatever coming to the selected . ‘line. <11> Not Used <10> User Receive distribution to RS232C panel. connector This purpose bit the may user on be the used desires. <9:8> Not Used <7:0> Transmit Silo These bits contain the number of entries in the 32-character transmit silo for a Count selected Master line. Reset or They are cleared after INIT. - FOR INTERNAL USE ONLY - INDIRECT REGISTER (IND.REG[1]<15:0>) = Read/Write - 3.16 The indirect register [l] has an address of Octet Base + 6. This This read/write register is cleared by a Master Reset or INIT. to prior tion informa iate register must be loaded with the appropr using a The bit Reset. line after Master for map indirect the register read/write can be seen in Figure 3-10. -=(IND.REG[1]<15:0>) T : This register may be accessed by a RMW cycle. 1S, 13 14 12 10 09 UNUSED DATA 11 08 07 08 05 04 00 01 02 03 UNUSED BITS PRAEEMPY TERMINAL | READY BIT REGQUEST TO SEND DATA SIGNAL RATE RECEIVE | TRANSMIT MAINTENANCE | FLUSH DATA SEt¥ USER TRANSMIT _ ENABLE UNE TRANSMIT | ENABLE SiLo CONTRQL CHANGE BREAK TRANSMIT AUTO XON/XOFF _ENABLE SELECT Figure 3-10 Table 3-9 Bits Title <15:8> Modem Indirect Register Bit Map (IND.REG[1]<15:0>) Read/Write - Indirect Register 1 - Read/Write - Functions Transmit Function the These read/write bytes represent transmit line. modem for signals These bits are cleared by an by a Master Reset. always the selected INIT but not The modem signal lines follow these bits. - FOR INTERNAL USE ONLY - Table 3-9 Indirect - Register 1 - Read/Write - Functions - is set by the program to.preempt Continued Preempt This bit silo output. transmit The low byte be then will The user may that is loaded This allows character transmitted. PROGRAMMED interrupt to send a character load the the user register. by to be program to character next the then indirect the transmission DMA or (presumably an XON or XOFF) and then continue the PROGRAMMED or DMA transmission. When this process is performed, take note that there is no loss character is of characters effective When bit <14:13> - Not Used - <12> Request To transmit indirect data. The inserted output stream is 0 register cleared by Master Reset or This bit the to controls the modem. Request condition. to When Send to Request When Send that this bit is 1line this line is bit of the This data. this bit is INIT. Request RS232C circuit CA) preempt into loaded, is automatically cleared. (EIA Send or simply to Send Line is set, the connected is in is ON the clear, the in the OFF condi- tion. <11> - Not Used <10> Data Signal Rate Select - This bit controls Select line the is connected is in the in the OFF condition. is set, clear, the ON Data Signal Rate (EIA RS232C circuit CH) to the modem. Signal Data condition. the Data When that this Rate Select When this bit line bit is Signal Rate Select line 1is - FOR INTERNAL USE ONLY - Table 3-9 Functions - - Read/Write - Indirect Register 1 . Continued Bits Title Function <9> Data This bit controls the Data Terminal line Ready connected to the modem. Terminal (EIA RS232C circuit CD) set, the Data Terminal that is When this bit is Readx)ling is in B the ON condition. When this bit is clear, e OFF B the Data Terminal Ready line is in_th condition. <8> User Transmit This line is connected to pin 18 of the line's 25-pin RS232C connector on the distribution panel. RS232C unassigned pin. pin associated an EIA used for is This line and the may it with pin This be whatever purpose the user desires. <7:0> Line Control These read/write bits are cleared by a Master Reset or INIT. These bits must be loaded with the appropriate information prior to using a line after a Master Reset <7:6> Maintenance Control Function ' ' has been generated. These maintenance bits have the following meanings: 00 Normal Operation 01 Automatic Echo Mode. In put this mode into the of operation data received silo is and automatically retransmitted regard- less of the state of TX.ENA) at the same baud rate as the transmitter. RX.ENA must be set for this mode to work. Normal transmitter operation is not inhibited in this mode. - FOR INTERNAL USE ONLY - Table Bits <7:6> SR 3-9 1Indirect Register Continued Title 1 - Read/Write - Functions - Function Maintenance Control " ‘Function - Continued 10 Internal Line Loopback . In this mode of operatlon, the specific line's. output - is internally connected the line's (within the data is 1looped back. All signals are looped panel) . Received modem distribution back when operating 11 to input in this mode. Shared RAM Loopback In this mode of operation, specific line's internally connected output to the the is line's input. All data and modem signals are looped back at the UBI" = TIU interface (Shared RAM). <5> Data When set, Change receive signals for the selected line. Set Enable to this bit enables the multiplexer search for When such silo will a a transition in the modem transition is found, the Set Change bit A result is that the entry into the receive have the Data set, <4> , Flush The TX transmit silo Silo ' setting flushed and of this for DMA bit the causes selected terminated. the line to be Disabling the transmitter does not cause the silo to be flushed. Disabling the transmitter simply inhibits the silo character transmission. After has been flushed, ¢this bit 1is automatically cleared and TX.RDY is set. 3-30 - FOR INTERNAL USE ONLY - . - Table 3-9 - Read/Write - Functions - Indirect Register 1 Continued fl _--—-cc---s——‘—c----a---'——-‘-G-GQGQ-‘---‘oc-—-———o--—,-———n--q-- is When this bit transmits character spaces has Transmission the EIA Data line set, the- after the break after resumes current-. serialized. being finished is cleared. <2> Receive Enable When this bit is set, the receiver for the When this bit selected line is enabled. is clear, line set the zero to while a If the for receiver is disabled. selected receive enable character is 1is being assembled, then the character is lost. <1> Tx Auto XON/XOFF When this bit is set, the receipt of an XOFF causes the transmit enable bit to be The receipt of an XON causes the 'reset. The XON/XOFF character 1is bit to be set. put if into the RX silo receiver the is enabled. <0> Transmit Enable When this bit is set, the transmitter for the selected -line is enabled. bit is selected enable being clear, is line the cleared transmitted, the transmitter transmitter If is disabled. while then character a occurs after of an XON or XOFF character [l] - FOR for the transmit 1is the disabling of the character has been transmitted. this bit if IND.REG When this sets complete Reception or <2> is set. resets INTERNAL USE ONLY - 3.17 INDIRECT REGISTER The indirect register read/write register or read a After OCTET.CSR<4:3> is is (IND.REG[2]<15:0>) - Read/Write - not write cleared by Master line buffer in is incremented loaded address the DMA mode register of operation. the lower 16 bits with respective line. is meaningful of the DMA Reset address buffer the to automatically a respective line's DMA character count register. The This has an address of Octet Base +6. [2] only This or register, to point if the register buffer INIT. to the respective be should address for the Writing to this register while the DMA character count is non-zero will Refer to the Figure 3-11 for the bit map of the indirect register (IND.REG[2]) _contained If a mode. DMA and to have unpredictable results. Table 3-10 for the function of the bits in this register. error The is encountered, register will the contain line the will be address taken which out of caused DMA the error. This register may be accessed with a . RMW cycle. L] 15 ' Q0 TRANSMIT BUFFER ADORESS Figure Table 3-10 Bits <15:0> (IND.REG[2]<15:0>) Register Indirect 3-11 Indirect Register 2 . - Read/Write - Map - Functions - Continued Title Transmit Buffer Address Bit Read/Write -~ Function The lower 16 bits of the DMA buffer .address. 3-32 - FOR INTERNAL USE ONLY - INDIRECT REGISTER (IND.REG[3]<15:0>) - Read/Write - 3.18 The indirect register [3] has an address of Octet Base + 6. This to these read/write register contains the DMA character count and the upper bits two registers initiates a DMA transfer. the bit map of indirect register Writing address. buffer transmit the of Refer to the Figure 3-12 for (IND.REG[3]) and to Table 3-11 for the function of the bits contained in this register. The DMA character count is cleared by a Master Reset or INIT. The If a DMA error is encountered, two address bits are not cleared. Bits <15:14> will the DMA character count will be set to zero. contain the UNIBUS address bit <17:16> which caused the error. This register may be accessed by a RMW cycle. 15 , 13 14 | MIT BUFFER 00 DMA CHARACTER COUNT ADORESS Figure (IND.REG({3]<15:0>) Register Read/Write - Indirect 3-12 Indirect Register 3 Table 3-11 Continued Bits Title <15:14> Transmit - Read/Write - Bit Map | Functions - Function These bits <17:16> contain the UNIBUS address bits. ' Buffer Address <13:0> These bits contain the respective line's DMA 14-bit character counts. Character Count NOTE As characters the cycles, decremented. while the non-zero are DMA character count character «count Writing DMA will via fetched have to this DMA is register 1is unpredictable results. - FOR INTERNAL USE ONLY - CHAPTER FOUR SERVICE INTRODUCTION 4.1 This describes chapter field replacable wunits (FRU's), remove/replace procedures, preventive maintenance, self test, diagnostics and removal/replacement procedures. 4.2 The DMZ32 FIELD REPLACEABLE UNITS DMZ32 is designed for ease of maintainability. Internal g fault the microdiagnostics and system diagnostics aid in isolatin to a specific FRU. The FRUs of the DMZ32 are as follows: UNIBUS Interface Module (M8398) H3014 Processor Module (29-24797-00) H3014 Expansion Module (29-24798-00) H3014 Power Supply Assembly (29-24799-00) H3014 Fan (29-24800-00) H3014 Chassis with I/0O Panel (29-24796-00) 10 foot internal cable (BC22N-10) 15 foot external cable (BCl8L-15) For the removal/replacement procedures for each of the FRUs refer to section 4.13. - FOR INTERNAL USE ONLY - PREVENTIVE MAINTENANCE 4.3 There is DMZ32. scheduled preventive maintenance performed on the following of the should be checked: Check the voltages on the DD11-DK backplane Check the voltages on H3014 distribution panel the processor module , Check the voltages on the expansion module of the H3014 distribution panel Check H3014 disribution panel fan operation DD11-DK Voltage Test Points +5V (CA2) +15V (CUl) H3014 Voltage Test Points Processor Module TP14 TP1l3 TP12 TP1l (Second Module) - Figure 4-1 (BLACK) = Ground (RED) = +5V (BLUE) = +12V (WHITE) = -12V TP11 (WHITE) = =12V TP12 (BLUE} = +12V \\ the no However, when system preventive maintenance is performed, TP13 (RED) = +5V TP14 (BLACK) = GND ’ 3l ---1zz£mm | P2 [ l\ e A= S ) l‘\\!\‘\\‘ NA ! - f : / ] Figure 4-1 Processor Module Test Points 4-2 - FOR INTERNAL USE ONLY - Expansion Module (Top Module) TP14 TP13 TP12 TP1ll - Figure 4-2 (BLACK) = Ground (RED) = +5V (BLUE) = +12V (WHITE) = =12V TP11 (WHITE) = =12V TP12 (BLUE) = +12V TP13 (RED) = +5V TP14 (BLACK) = GNO ‘l , fT"l 1] Figure 4-2 Expansion Module Test Points - FOR INTERNAL USE ONLY - Power Supply Assembly - Figure 4-3 TB1-1 \ TBl-2 TTMB1-3 TBl-4 |- Input NOT Line Voltage USED - TB1l-5 - =12V TBl-6 - +12V TB1l-8 - +5V TBl-7 - Chassis Ground Figure 4-3 Power Supply Assembly Test Points 4-4 - FOR INTERNAL USE ONLY - 4.4 SELF-TEST DIAGNOSTIC The self-test diagnostic DMZ32 the for Memory (ROM) based microdiagnostic. executed during the is on-board an Only Read The self-test diagnostic is following: i Power-up : . When self-test pushbutton is pressed At UNIBUS initialization - to the dlagnostlc reglster When writing aa00 (hex) The results of the ROM based microdiagnostics can be seen by reading the eight (8) Diodes Light-emitting (LEDs) that- are- Refer to Figure 4-4 for the proper mounted on the M8398 module. Refer to Table 4-1 for orientation of how the LEDs are numbered. the LED coded display, the function tested when a display is seen, and the field replacable unit that is faulty for each display. When the self-test is <iiagnost1c finished, through the LSB (LED 0). everything has rotating pattern that passed the self-test, the LED's cycle in a repeats over and over. and The pattern repeats from the MSB (LED 7) 0 MSB 7 654 321LS8 Figure 4-4 M8398 LEDs 4-5 -~ FOR INTERNAL USE ONLY - Table 4-1 M8398 LEDS 4|3(2(1}0 M8398 Coded LED Display . Diagnostic LEDS Function Tested Hex |Decimal|Octal FRU .Illegal Code e|] M8398 | Q Register Condition Code 00- 0l 0l 01 02 02 02 M8398 | Working ole M8398 | Working Registers 8-18 03 03 03 M8398 | MSB of "A" & "B" Address of Working Register 04 04 04 05 05 05 ol |o 0-7 00 ® ° Registers 00 M8398 | Subroutine calls (4 Levels) ole M8398| Set Negative Bit 06 06 06 olo]e M8398: Set~Carry Bit 07 07 07 M8398 | Clear N Bit, C Bit 08 08 10 M8398 | XOR Fugction, AUX Z Bit 09 09 11 oa 10 12 ® ® ° ® ° M8398 | Rotate Left, Rotate Right ® oo M8398 | Mask Function 0B 11 13 ole M8398 | Negate Function 0oC 12 14 ole . ole|e M8398 | Decrement Function M83§8 OR Function oD OE 13 .15 14 16 ole oo - Not Used - OF 15 17 - Not Used - 10 16 20 - Not Used - 11 17 21 - Not Used - 12 18 22 M8398 | Shared RAM (Addressing) 13 19 23 M8398 | Shared RAM (Data) 14 20 24 WR & Q Register ) ° ° . ® ° o |eo le]| |o 4-6 - FOR INTERNAL USE ONLY - M8398 Coded LED Display - Continued - 'Function Tested ® ole M8398| ejofe M8398| ® ‘ eole 25 16 22 26 17 23 27 18 24 30 ® Octet 0 19 25 31 1A 26 32 I15 LS Addressing (.256K Blocks) COMF<24:25> LS Addressing (Direct M8398 | LS Addressing (Process COMJ<K23:16> Space) PROCK2:0> Space) ol® (1K Sections) 21 EA PADRK1l:> M8398)} LS Data Indirect LO ol® ) M8398]| LS Data Indirect HI Octet 0 ole! |[eole] M8398| LS Data Indirect LO M8398| LS Data Indirect HI Octet 1 1B 27 33 1C 28 34 1D 29 35 1E 30 36 ] o e|e Octet 1 - ) eleje Octet 2 Indirect HI e,fe-—?Eiigf olelole M8398| LS Data Octet 2 ejlo|o|ole M8398] LS .Data Indirect LO Maintenance Space 1F 31 37 M8398| LS Data Indirect Hi Maintenance Space 20 32 40 M8398| Starting DMA Tests 21 33 41 M8398| Slave Sync Time-Out During DMA DATO 22 34 42 M8398| Data Compare Error On DMA DATO 23 35 43 ) ' M8398| LS Data Indirect LO ° L B - FOR i ® ] M8398| LS Addressing ® 1 ° Hex|Decimal|Octal FrU M 4|3/2/1]0| Diagnostic LEDs | LEDs M8398 INTERNAL USE ONLY - [0 Table 4-1 Table 4-1 M8398 M8398 PEDS ‘ Coded LED Display - Continued - Diagnostic LEDs Function Tested S{4|3]2]1{0] . fRU Hex |Decimal |Octal ) ) M8398 | Slave Sync Time-Out On DMA DATI 24 ° ® ) 36 44 25 37 45 26 38 46 27 39 47 28 40 50 TIU 2901 29 41 51 M8398 | Data Compare DMA DATI : On Error M8398 | Failed To Become Master . o|e ) o|leojeo On DATO or DATI - Reserved - o |o M8398 | Starting TIU Self-Test o |o ° ° ° M8398 | TIU 2901 22 42 52 ° ° olo M8398 | TIU 2901 2B 43 53 L o0 2C 44 54 ° o0 M8398 | TIU Micro-Sequencer 2D 45 55 e eo|o M8398 | TIU Micro-Sequencer 2E 46 56 ® ejoje|e M8398 | TIU Micro-Sequencer 2F 47 57 M8398 | TIU Local Store 30 48 60 M8398 | TIU Local Store 31 49 61 o/ M8398| M8398 | TIU ) L) ° ole Shared Tl RAM o0 ° M8398 | TIU Interface 32 50 62 o e o0 M8398 | TIU T1 Interface 33 51 63 M8398 | TIU A23 34 52 64 Failure 35 53 65 oo |® L) ® oo ol - Reserved - 36 54 66 oo L) - - 37 55 67 - Reserved - 38 56 70 oo e ) Channel M8398 | Tl Link Synchronization Reserved 4-8 - FOR INTERNAL USE ONLY - : Table 4-1 M8398 Coded LED Display - Continued - M8398 LEDs 5{4]3({2/110 Diagnostic LEDs Function Tested Hex| Decimal}jOctal FRU - Reserved - 39 .57 71 - Reserved - 3A 58 72 TR 3K el e elej|oe - Reserved - Reserved - 3B 3C :Séi 60 73 74j ® - Reserved - 3D 61 75 eojeojolole - Reserved - 3E 62 76 olojojeole|0® - Reserved - 3F §3 77 40 64 100 Path [Octet 0, Line 1] 41 65 101 ° eoloieo ° ejlele el oj|eje® M8398 | Internal Local Tl Data Path ) M8398 | Internal Local T1 Data ° M8398| Internal Local Tl Data Path [Octet 0, Line 2] 42 66 102 ol M8398| Internal Local Tl Data Path [Octet 0, Line 3] 43 67 103 M8398 | Internal Local T1 Data Path [Octet 0, Line 4] 44 68 104 Internal Local Tl Data Path [Octet 0, Line 5] 45 69 105 ° ® ° M8398| Internal Local T1 Data ol® M8398 Line 6] 46 70 106 olo|® M8398 | Internal Local Tl Data Path [Octet 0, Line 7] 47 71 107 Line 0] 48 72 110 M8398 | Internal Local T1 Data Path [Octet 1, Line 1] 49 73 111 Path [Octet 0, M8398 | Internal Local T1 Data ° ® [Octet 0, Line 0] Path o [Octet 1, - FOR INTERNAL USE ONLY - i ; M8398 Coded LED Display - Continued - 4{31211}0 Diagnostic LEDs Function Tested M8398 LEDs Hex |Decimal |Octal FRU ® ° M8398 | Internal Local Tl Data Path [Octet 1, Line 2] 4A 74 112 ° eole M8398 | Internal Local T1l Data Path [Octet 1, Line 3] 4B 75 113 4C 76 114 4D 77 115 4E 78 116 4F 79 117 50 80 120 51 81 121 Path o0 ° [Octet 1, Line 4] M8398 | Internal Local T1 Data Path [Octet 1, Line 5] eojefe M8398 | Internal Local Tl Data ojejo|e M8398 | Internal Local T1 Data Path Path [Octet [Octet 1, 1, Line 6] Line 7] f | § M8398 | Internal Local Tl Data ) Path ® ° [Octet M8398 | Internal Path 2, Line 0] 2, Line 1] ° M8398 | Internal Local Tl Data ® o0 M8398 | Internal Local Tl Data Path : Path [Octet [Octet 2, 2, Line ° ° ® ole M8398 | Internal Local T1 Data Path [Octet 2, Line 6] TM oo |® M8398 | Internal Local Tl Data ° [Octet 2, Line 4] Path [Octet 2, Line 5] [Octet 2, Line 122 53 83 123 54 M8398 | Internal Local Tl Data Path 82 84 55 7] 85 124 125 56 86 126 57 87.| 127 58 88 130 4-10 FOR i § f ? ! M8398 | Manual Tl Connector Data : Path [Octet 0, Line 0] - ) i M8398 | Internal Local Tl Data Path 52 @ Line 3] |o : % 2] o . ; Local Tl Data [Octet ° ol : M8398 | Internal Local Tl Data o0 ...,.1". Table 4-1 INTERNAL USE ONLY - | | % | ' M8398 Coded LED Display - Continued - Table 4-1 ° Hex |Decimal| Octal FRO 4132110 e|le Diagnostic LEDs Function Tested M8398 LEDs M8398 | Manual Tl Connector Data Path [Octet 0, Line 1] 59 89 131 eol0 Y M8398 | Manual T1 Connector Data Path [Octet 0, Line 2] 5A 90 132 "3IK ) o0 M8398 | Manual T1 Connector Data Path [Octet 0, Line 3] 5B 91 133 SC 92 134 M8398 | Manual T1 Connector Data Path [Octet 0, Line 5] 5D 93 135 M8398 | Manual T1 Connector Data Path [Octet 0, Line 6] SE 94 136 M8398 | Manual T1 Connector Data Path [Octet 0, Line 7] SF 95 137 M8398 | Manual T1 Connector Data Path [Octet 1, Line 0] 60 96 140 61 97 141 62 98 142 63 99 143 64 100 144 65 101 145 66 102 o 146 67 103 147 IK M8398 | Manual T1 Connector Data 3K Path ° ejole K 3K eloio|oje (Y ° [Octet 0, Line 4] M8398 | Manual T1 Connector Data : Path 1, Line 1] [Octet ® ° M8398 | Manual T1 Connector Data ° o/|® M8398 { Manual T1 Connector Data ° ® Y ° Path Path [Octet 1, [Octet 1, Line 2] Line 3] M8398 | Manual T1 Connector Data Path [Octet 1, Line 4] ® M8398 | Manual Tl Connector Data Path [Octet 1, Line 5] oo M8398 | Manual Tl Connector Data Path [Octet 1, Line 6] o leole M8398 | Manual Tl Connector Path [Octet 1, Data Line 7] 4-11 - FOR INTERNAL USE ONLY - Table 4-1 M8398 Coded LED Display - Continued - 41312|1f0 ° o ° Diagnostic LEDs Function Tested M8398 LEDs Hex|Decimal |Octal FRO : 104 : 150- 69 105 151. 6A | 106 152 M8398 | Manual T1 Connector Data Path [Octet 2, Line 0] 68 M8398 | Manual T1 Connector Data Path [Octet 2, Line 1] : o TM M8398 | Manual T1 Connector Data ° el M8398 | Manual T1 Connector Data Path [Octet 2, Line 3] 6B 107 153 M8398 | Manual T1 Connector Data Path [Octet 2, Line 4] 6C 108 154 M8398 [ Manual T1 Connector Data Path [Octet 2, Line 5] 6D 109 155 6E 110 156 6F 111 157 - NOT USED - 70 112 160 - NOT USED - 71 113 161 Path ole® ° [Octet 2, Line 2] ° ele ° ejo|e M8398 | Manual T1 Connector Data ° eojio|o|0® M8398 | Manual T1 Connector Data Path [Octet 2, Line 7] Path ° ° ° [Octet 2, Line 6] ° ° - NOT USED - 72 114 162 ° o0 - NOT USED - 73 115 163 - NOT USED - 74 116 164 - NOT USED - 75 117 165 ol® - NOT USED - 76 118 166 ojeo}le - NOT USED - 77 119 167 - NOT USED - 78 120 ;70 - NOT USED - 79 121 171 - NOT USED - 7A 122 172 ° o ° ® ole ® ® ole ele ejele ° ® 4-12 - FOR INTERNAL USE ONLY - Table 4-1 M8398 Coded LED Display - Continued - 5/41312(1({0 - NOT USED - . 7B 123 173 - NOT USED = 7C 124 174 - NOT USED - 7D 125 175 - NOT USED - 7E 126 176 H3014 Self-Test Failure 7F 127 177 H3014 Processor Internal EIA Data Path [Octet 0, Line 0] 80 128 200 H3014 Processor Internal EIA Data Path [Octet 0, Line 1] 81 129 201 ® H3014 Processor Internal EIA Data Path [Octet 0, Line 2] 82 130 202 ole H3014 Internal EIA Data Path H3014 Internal EIA Data Path H3014 Internal EIA Data Path ") H301l4 Processor Internal EIA Data Path [Octet 0, Line 6] oo @ H3014 Internal EIA Data Path XK RE ® eleleolo oleo oo |0 ejoj® 00 @ e °® H3014 Processor Processor Processor ° ° TM ® ® ° Hex |Decimal|Octal FRU eolo elo|o® R Diagnostic LEDs Function Tested M8398 LEDs ® Processor [Octet 0, [Octet 0, [Octet 0, Line 4] Line 5] Processor [Octet H3014 Processor Internal EIA Data Path [Octet 1, Line 0] H3014 Internal EIA Data Path Processor H3014 Processor 0, Line 3] [Octet 1, Line 7] Line 1] Internal EIA Data Path [Octet 1, Line 2] - FOR INTERNAL § 83 131 203 84 132 204 85 133 205 86 134 206 87 135 207 388 136 210 89 137 211 8A 138 212 USE ONLY - i ! . Table 4-1 M8398 Coded LED Display - Continued ' FRU el @ H3014 Internal EIA Data Path H3014 Internal EIA Data Path H3014 Internal H3014 Internal EIA Data Path H3014 Internal EIA Data Path H3014 Internal EIA Data Path H3014 Internal EIA Data Path ® H3014 Internal EIA Data Path Processor [Octet 2, ele® H3014 Internal [Octet 2, EIA Data Path Processor H3014 Processor Internal EIA Data Path [Octet 2, Line 4] H3014 Internal eol® H3014 Processor Internal EIA Data Path [Octet 2, Line 6] ele|e® H3014 Internal EIA Data Path ° Processor ° ° Processor | ole| olo|e® Processor Processor Processor ® ) ° ® Processor Processor Processor i ! Hex | Decimal Octa% 2/1({0 Processor | ' Diagnostic LEDs Function Tested M8398 LEDs : [Octet 1, Line 3] [Octet 1, Line 4] EIA Data [Octet 1, Line 5] [Octet 1, Line 6] [Octet 1, Line 7] [Octet 2, [Octet 2, [Octet 2, Path : Line 0] Line 1] Line 2] Line 3] EIA Data Line 5] Path [Octet 2, Line 7] - FOR INTERNAL ; 139 8B . . - b 213 8C 140 214 8D 141 215 SE 142 216 8F 143 217 90 144 220 91 145 221 92 146 222 93 147 223 94 148 224 149 225 , 95 ' 150 226 97 151 227 ONLY - -1 . 96 USE .. . M8398 Coded LED Display - Continued - Table 4-1 T - Illegal Codes -~ | eleo ® T "[Hex |Decimal]Octal : FROU 71615/41312]1]0 fDiagaestic~LEDsnmm — Function Tested M8398 LEDs UBI or TIU Failure - 98 152 230 255 377 (through) - Illegal Codes - olojojeojoie|e e FF UBI or TIU Failure ' When all of the microdiagnostics are successfully passed, the LEDs will display a walking ones 7 LEDs period. through When 0 flashing completed, (ls) pattern. sequentially a binary This is indicated by over number a will 2 time second be displayed indicating the peak, 24 line receive character rate since the last peak character rate number was displayed. displayed for approximately two seconds. the binary number is followed by a The binary number 1is After the two seconds, second number that In both cases, the binary displays the peak 24 line transmit character rate. lasts also for approximately two seconds. binary number displayed can be translated to peak characters per second by dividing by two and multiplying by 1000. binary number of second. walking 16 (00010000) translates This display For example, a characters to 8000 FOR INTERNAL per The TX peak character rate number is then followed by the ones patter again. - USE ONLY - DIAGNOSTICS 4.5 The DM232 is This section describes the use of DMZ32 diagnostics. The Level 3 supported by both Level 3 and Level 2R diagnostics. diagnostic is a standalone diagnostic diagnostic. The purpose of EVDAE Diagnostic Supervisor using direct I/O. of is loopback methods are used specific component of the DMZ32. used during the running of the controlled or manually inserted.- the runs verify the isolate the the DMZ32. Various The to that Level 2R diagnostic enables 1level option diagnostic, run while under the to the functionality ' “ fault to a The different loopback methods EVDAE field are service to VMS. under running Diagnostic either fault The Supervisor software isolate to 2R Level uses the EVDAF is the only Level the VMS device driver. interface of wunder EVDAE is the only Level 3 QIO 2R diagnostic. DIAGNOSTIC SUPERVISOR 4.6 and Level 2R diagnostics run under the Diagnostic Loading and using the Diagnostic Supervisor are Both Level 3 Supervisor. described in both the VAX-11/730 Diagnostic System Overview Manual (EK-DS730-UG) (EK-VX11D-UG) the and DMZ32 CSR ADDRESS AND VECTOR ADDRESS 4.7 The DMZ32 CSR address in Guide User's System Diagnostic VAX the following is used only as an example address (760440) diagnostic procedures. The actual address (Refer to Appendix A for floating depends on the switch setting of E-53 on the M8398 module. vector is software controlled. device addresses and vectors.) 4.8 MANUALLY CONTROLLED (HARDWARE) The LOOPBACK METHODS There are five manually controlled loopback methods that are used in running be manually the DM232 put in diagnostics. These be placed on the line(s) turnaround device controlled a loopback mode are loopback methods that Local (H3028) of 1loopbacks operation. used require a or that the local modem with the The manually DMZ32 are as follows: T1 Loopback Remote T1 Loopback Single Line (H3027) EIA Loopback (H3248) Staggered Multiline Loopback (29-24929-00) Manual Analog Modem Loopback - FOR INTERNAL USE ONLY - 4.8.1 Local Tl Loopback (H3028) l The Local Tl Loopback test is conducted by field service personne--- using the H3028 turnaround connector The H3028 (Figure 4-=5). turnaround connector is inserted at J1 on the M8398 Module. When the H3028 is inserted in J1 of the M8398 module, the T1 circuitry up to and including the analog I/O of the M8398 module is checked for proper operation. This loopback is supported by EVDAE with event flag 3 set. - POBNOWY P WN o J1 PIN NUMBER ¥ SIGNAL NAME H 307 8 DATA IN A () <= DATA IN B (=) SIGNAL GROUND Prza\ UNUSED 1eonns UNUSED 8 UNUSED UNUSED UNUSED DATA OUT A (+ — DATA OUT B (=) =i \1EE . \\\_a/fi \Es | H3027 0 "“‘ 'y T 29-24929 -6p ] = Loopsack = VERIFIED GOOD Figure 4-5 H3028 Loopback Connector 4-17 - FOR INTERNAL USE ONLY - Remote T1 Loopback 4.8.2 T1 The Remote (H3027) conducted is test Loopback personnel using the H3027 turnaround connector service field by (Figure 4-6). The H3027 turnaround connector is inserted at either the I/0 bulkhead or at between the the the and module M8398 end panel distribution of the’ interconnecting cable panel. distribution When inserted into the I/0 panel insert connector (BC22N-10), the M8398 module and the internal . proper: operation. - the distribution This loopback interconnecting Tl cable end T1 cable, are panel of the the is also checked for proper operation. (BC18L-15) is supported by EVDAE with event NOTE This checked for When the turnaround connector is connected to. 1loopback remote distance of H3027 can ONLY installation 2500 be to up flag 3 used a on T1 cable: set. a maximum feet. : SIGNAL NAME (REFERENCED TO H3027) PIN NUMBER 1 DATA OUT A (+ ———Jpn- 2 3 CHASSIS GROUND DATA IN A () 4 CHASSIS GROUND 5 8 UNUSED UNUSED 7 UNUSED 8 UNUSED 10 UNUSED 9 DATA OUT 8 (=) — 11 DATAIN 8 (=) 12 = ——u} UNUSED 13 SIGNAL GROUND 14 UNUSED 15 UNUSED H3028 H3014 BC22N-10 :§g§§2‘ = ==P=u$ J lc-.- n H3Q27 M = BC!BL 15 29-2429-00 ] = Loorsack 29-24429 -co = VERIFIED GOOD Figure 4-6 H3027 Loopback Connector 4-18 | - FOR INTERNAL USE ONLY - 4.8.3 Single Line EIA Loopback (H3248) The Single Line EIA Loopback test is conducted by field service using personnel the turnaround H3248 (Figure connector 4-7), The H3248 turnaround supplied in the CD Kit (A2-W0707-10). connector or at RS232C connector is inserted either at the H3014 the H3248 is When the EIA cable which connects to the modem. the remote on y connected to the suspect channel (directl ches;4 receive/lat drivers, line distribution panel), the connector, proper for checked are channel that for and all modem signals turnaround connector When the H3248 operation. is connected to the EIA cable associated with the channel, the EIA cable is also checked for proper operation. 5 set and This loopback is supported by EVDAE with event flag ce. sequen attach the in ed EVDAF loopback type 5 select PIN < : 2 TX DATA 3 RX DATA RTS 4 €E 5 - — SIGNAL NAME cTS 8 CARRIER 18 LOCAL LOOP REARVIEW 25 TEST MODE 23 DATA SIGNALING RATE SELECT 22 RING ENO OF A 6C22 CASLE H3028 \E __ Z FRONT VIEW #3248 SINGLE LINE TEST CONNECTOR PLUGS INTO 34.412 OR e H3014 8C22N-10 e E\CcEem=s it= N\ 1 fl _?a-‘? 'F O~ 8C18L-1§ ] = LooPBack = VERIFIED GOOD Figure 29-24929 '¢¢ 4-7 H3248 Turnaround Connector 4-19 - FOR INTERNAL USE ONLY - 4.8.4 Staggered Multiline Loopback (29-24929-00) The Staggered Multiline Loopback test is conducted- by field (Figure 4-8) (6) 29-24929-00 service personnel using six the CD Kit in supplied are which connectors turnaround The 29-24929-00 turnaround connectors are attached (A2-WO707-10). to the distribution panel so that all connectors have a loopback attached. when connected, this test checks for line interaction and asynchronous line problems. This loopback is supported by EVDAE with event flag 6 set. 35 through 41 of EVDAE are run when this connector is used. . Tests. : 29-24929-0¢ TX DATA (n) » RST (n) = CTS (n+1), CARRIER {n+1) DTR {n) ’ RX DTA (n+1) O —— DSR (n+1) LOCAL LOOP (n) — DATA RATE SELECT {n) —= RING (n+1) TX DATA (n+1) TEST MODE {n+1) 1O}| (FRONT VIEW) RX DATA (n) i T RTS (n+1) » CTS (n). CARRIER (n) DTR (n+1) - DSR (n) === —= TEST MODE (n) LEERE LOCAL LOOP (n+1) - [g DATA RATE SELECT (n+1) ~mmm—eme———stm H3028 RING (n) (BACK VIEW) H3014 8C22N-10 —— , ! H3Q27 . I’ H3248 U YM ) c <! 8C18L-15 3 3 29-2429-00 3 = woorsack = VERIFIED GOOD Figure 4-8 TN ! 29-24 Q@29-p0 29-24929-00 Staggered Loopback Connector 4-20 - FOR INTERNAL USE ONLY - 4.8.5 The Manual Analog Modem Loopback manual modem analog loopback conducted is test by service personnel by pressing the analog loopback button field on (AL) the modem (Figure 4-8.1). This loopback verifies that data can be sent to and received from the local modem. This loopback is supported by EVDAE with event flag -7 set, EVDAF with loopback type 7 selected in the attach sequence. and H3014 H3028 == i el ==2S| BC22N-10 ‘H3027 N - f | ) * BCi8L-15 29-2429-00 1 = woorsack = VERIFIED GOOD Figure 4-9 A-29429 ¢ & Manual Analog Modem Loopback 4-21 - FOR INTERNAL USE ONLY - 4.9 SOFTWARE LOOPBACK METHODS There are many loopback methods that can be used DMZ32 diagnostics. with the DMZ32 are as in running the The software loopback methods that are used follows: Shared RAM Loopback Local Trunk Loopback Internal Single-line Loopback Programmable Local Modem Loopback - FOR INTERNAL USE ONLY - 4.9.1 The Shared RAM Loopback Shared RAM Loopback to modem signals individual applies UBI and line basis TIU 4-10.,) This loopback is invoked loops without at data the the Shared UNIBUS sections of is only under by used attaching and modem RAM interface 1loopback Diagnostic Supervisor Event Flag type The 1 Shared or 1. an also between the Figure to RAM : loopback setting by ' on This (Refer module. EVDAE. signals lines. other affecting : ) the - T POWER SUPPLY -3 I SHARED x TM INTERFACE 15 < RAM > — 5 CONTROL INTERFACE | INTERFACE 3 o MODEM T UNIBUS o :w:4a P fasim z EIA " | rerFace [] ORIVERS/ LINK RECEIVERS : 2 — 22 1;\/;7 ma398 o H3014 CABLE " ~ (] = vemmeo Gooo [ - LooPgacy. Figure 4-10 Shared RAM Loopback - FOR Test INTERNAL USE ONLY - - 4,9.2 The Local Trunk Loopback Local Trunk Loopback 1loops driver/receiver on the M8398 module. data back before the (Refer to Figure 4-11.) This loopback is supported by EVDAE and the microdiagnostics. Tl The Local Trunk Loopback is invoked by attaching loopback type 2 or by setting Diagnostic Supervisor Event Flag 2. ' POWER . SUPPLY T UNIBUS L MODEM — )S CONTROL INTERFACE | INTERFACE . " al_] SHARED xg TM INTERFACE P 5 L;::; — WP AAM INK E1A £iA " -\ ; AL M8398 CABLE " o LINES RECEIVERS ' L [ A 32 [— 23 DEMUX . ASYNC —f Nrenrace [| ORIVERS/ H3014 " _J/ E = VERIFIED GOOD 1= WworgAck- Figure 4-11 Local Trunk Loopback Test - FOR INTERNAL USE ONLY - 4.,9.3 The Internal Single-line or all lines Loopback Single-line Loopback tested (Refer to Figure 4-12). time, on all lines selected. channel with the is associated being A message is sent, one line at a EIA latches, drivers, and receivers are not tested with this loopback. This loopback is used by EVDAE with event flag 4 set,’ and EVDAF A with loopback type 4 selected in the attach sequence. POWER SUPPLY MODEM CONTROL T UNIBUS INTERFACE | INTERFACE N SHARED 3 L_ 2z EIA 1.544 | / T! ___} MePs 1 vrerrace [] DRIVERS T RECEIVERS " RAM CE INTERFA x < 0 —; : UINK > » EIA ASYNC W 3| o 22 e 23 DEMUX ~ M malgs — a CABLE LINES " H3014 — r_‘:] = VERIFIED GOOD 1= LooPRACK Figure 4-12 Single Line Loopback Test - FOR INTERNAL USE ONLY - Programmable Local Modem Loopback 4.9.4 NOTE only work with a programmable local This loopback will modem that supports loopback. The Programmable signals and Loopback is Local be will selected Modem executed Loopback the if in the supervisor verifies the Programmable attach sequence and modem control is available. (Refer to Figure 4-13.) This by loopback is supported EVDAE DMZ32 . Modem Local - Modem with event flag 8 if the set, and o EVDAF with loopback type 8 selected in the attach sequence. POWER SUPPLY MODEM T UNIBUS CONTROL INTERFACE | INTERFACE 1] SHARED @ L- p-] EIA 1 nterrace [] ORIVERS/ RECEIVERS “—11 RAM INTERFACE 5P % . ;::; . > M8398 Y \ 1 , & DEMUX H3014 = VERIFIED GOOD [ 1 = LooPBACK. Figure 4-13 Analog Modem Loopback Test 4-26 - FOR INTERNAL USE ONLY - 4.10 DMZ32 LEVEL 3 (EVDAE) DIAGNOSTIC " There is only one Level 3 Diagnostic used to support the DMZ32, This diagnostic operates under the VAX Diagnostic EVDAE. Supervisor (VDS). EVDAE Hardware Prerequisites 4.10.1 The following must be functional before the Level 3 dlagnostlc may be used: e VAX-1ll CPU l KB) ® Memory (512 e UNIBUS Adapter 4 EVDAE Software Diagnostic Requirements 4.10.2 requires VAX Diagnostic Supervisor VAX Diagnostic Supervisors are as The Level 3 Diagnostic (EVDAE) The different 7.0 or later. follows: e e e 4.10.3 EVDAE VAX 11/725/730 - ENSAA VAX 11/750 - ECSAA VAX 11/780/782 - ESSAA is an aid system operation. the DMZ32. Table —_— EVDAE Diagnostic Description to field service personnel in verifing proper EVDAE is also used to aid in troubleshooting A summary of the test performed by EVDAE islisted in| 4-2. Table 4-2 EVDAE Diagnostic Summary Description Test Number 1 2 3 4 5 6 7 8 Register Access Test CSR Bit Test Indirect Space Access’ Master Reset Line Control & TX Modem Register Master Reset Octet CSR Line Parameter TX Silo Count Master Reset UNIBUS INIT 9 10 Flush Silo Test TX Ready, TX Enable 11 RX Data Available & 12 Count Data Loopback and Master TX Silo Reset ’ 4-27 _ FOR INTERNAL USE ONLY - Table 4-2 EVDAE Diagnostic Summary - Continued Description Test Number 15 16 17 TX Enable/Disable Character Length Load Word Test Transmit Interrupt Receive Interrupt 19 Multiple Interrupt 21 DMA Transfer 23 DMA Transfer, Unaligned Address 26 27 TX Break Test Receive Silo Overrun 13 14 18 20 22 24 25 28 Receive Interrupt at 64 Characters NPR-Nonexistent Memory (NO AUTO - INC) DMA Transfer (AUTO - INC) DMA Transfer (Memory Extension) Receive Silo Alarm Time-out Prempt 29 30 31 Interaction Test Dynamic Baud Rate Dynamic Word Length 33 TX & RX Modem Signals 32 34 35 36 37 38 39 40 Dynamic Parity Data Modem XON/XOFF NOTE To - Single (H3248) (H3248) Line or (Staggered) Framing Error (Staggered) Parity Error (Staggered) (Staggered) Auto Echo Mode "RX & TX Modem (Staggered) Data Set Change (Staggered) Split Baud Rate (Staggered) 41 42 Test Manual Section perform Tests 35 41, through 29-29249-00 loopback connectors must be installed on the distribution panel The manual intervention test (test 42) verifies- that a 256 byte block, or multiple, of data can be transmitted error free. _ FOR INTERNAL USE ONLY - 4.10.4 Loading, Attaching, After ‘the and Running EVDAE 1loaded, is Supervisor Dlagnostlc operating the instructions in Figure 4-13 can be used for the EVDAE diagnostic. The colored portlons are what the user enters into the system. EVDAE uses the sequence input VDS standard for attaching the The user must. select the:, UNIBUS adapter and loading the program. lines to be tested, the baud rate to be used in external testing and the loopback type° On-line help may be obtained by typing HELP EVDAE. ot 1C SOR. 22-EXSAR-7.0-YYY 8-PEB-198) 09:40:14.80 08> Afl”mio S8t OWO 3 ¢ 3 POR VAX/780 ATTACH THE UBA ON THE SBS o8> A'i’?or'lio HUR DWO 3 POR VAX/750 TESTING 08> ATT DW7I0 WUB DWO 08> LOAD EYDAR 3 . 08> ATT DNR32 POR VAX/730 TESTING . ; LOAD 7HE OM311 DIAGWOSTIC : ATTACK TTMHE OM3J2 OEVICE LIuR? DWO THE 0NEI2 IS LINKED TO TTMNE UBA OEVICE NANR? TZA $ THE GENERIC NANE FOR OME12 UMIT 1 CSR? 760440 3 THE CSR ADRS IS 760440 3 (RANGE=760000-777776) vEcToR? 300 ; VECTOR AORS IS 100 m? s (RANGR=300-776) ': BR INTERRUPT LEIVEL 1S S (RANGE®5-6) TEST LINES(OCTETO)? 377 : LINES 0«7 OF OCTZT O WILL BE TESTED - LEVEL ] ONLY - TEST LINEZS(OCTETI)? 1 ; LING O OF OCTET 1 WILL 8 TESTED LEVEL 3 ONLY - TEST LINES(OCTET2)? 208 3 L3NG 7 OF OCTEF 2 WILL BC TESTED : {OCTAL BIT HAP OF DESIRED LINES TO ; H TES?, ——— R 8170 © LING O, 8171 = LI¥g 1, m RANGE =~ 000-137 H : EXAMPLE: TEST unur XIJ ¢ TEST LINES 3IX, POUR, ONE ANO ZERO SAUD RATE? )00 ; BAUD RATE TO BC USED IN TEST )4 : MANUAL TEST. ; BAUD RATES THAT CAM BE SELICT 3 ARE, 50, 7S, 110, 133, 150, 100, : 600, 2 0 H LOOPBACK TYPE? 6 IIOO o 1200, 9604, 1800, INTERMAL 1%200 2000, - 2440, (AUTO) H 3 — ) e mANOAL T CONIECT!ON : 4 = i 5 = SINGLE LINE - 1240 CONNECTOR [NTERNAL LINE : 6 = STAGGERED CONNECTOR i 7 « LOCAL MODE (MANUAL ANALOG LOOPBACK) MOOEt CONTROL? 3S> 35 Figure 4-14 SELICT T2A aenke Y ; 8 i YRS ¢ : (EXPANSION MODULE) NO = DATA ONLY : Se LECT = PROGRAMMABLE LOCAL MODEM o HIOL4 CMA!“ MODEN OPTION » SPECIPIC OMZ32 TO BL RUN, Loading, Attaching, and Running EVDAE 4-29 . _ FOR INTERNAL USE ONLY - 4.10.5 The EVDAE Event Flags loopback type event flag. event attach flag is also by selected setting the appropriate only ONE event flag is to be set at a time. set overrides the type loopback selected during The the sequence. To use a specific loopback type the following: DS> CLEAR EVENT ALL DS> SET EVENT X s CLEAR PREVIOUS LOOPBACK, ; IF ANY X = EVENT FLAG = LOOPBACK TYPE 1 = SHARED RAM 2 = LOCAL TRUNK 3 = MANUAL T1 CONNECTOR or H3028) 4 = INTERNAL . (H3027 LINE (H3248) 5 = SINGLE LINE 7 = LOCAL MODEM (MANUAL) 8 = (PROGRAMMABLE) 6 = STAGGERED LOCAL MODEM LOOPBACK 4-30 _ FOR INTERNAL USE ONLY - 4.11 DMZ32 LEVEL 2R (EVDAF) DIAGNOSTIC EVDAF can run only with VAX/VMS Operating System version 4.0 or later, the latest DMZ32 4.11.1 EVDAF Hardware Prerequisites version 7.0 or later. driver and the VAX Diagnostic ) Supervisor s Tt . The following must be functional before the Level 2R diagnostic may be used: e e e 4.11.2 DW780, DW750, or DW730 fully tested without errors VAX family of processors with at least the minimum VMS - configuration Modem - (Optional) EVDAF Software Diagnostic Requirements This diagnostic is intended to test the to a VAX family of processors. attached DMZ32 product that is The host VAX must have the following: ¢ e Minimum fiefiory required by VMS Operating System One (1) DM2Z32 module with H3014 distribution panel oe The VAX Diagnostic Supervisors are as follows: e e e VAX 11/725/730 - ENSAA VAX 11/750 - ECSAA VAX 11/780/782 - ESSAA ‘ - FOR INTERNAL USE ONLY - 4.11.3 This EVDAF Diagnostic Description diagnostic following: @ e aid an is field to personnel service in the Verification of customer installation Service calls: device isolation and verification A summary of the tests performed by EVDAF are listed in Table 4-3. Table 4-3 EVDAF Diagnostic Summary Test Number Single 1 Description : Line Internal Line 1Internal 2 Single 3 Modem Signals Loopback 4 EIA Data Loopback Loopback ‘ Data (DMA) (H3248) External Data Loopback 4-32 - FOR INTERNAL USE ONLY - 4.11.4 Loading, Attaching, and Running EVDAF The DMZ32 architecture is very similar to the DMF32 therefore many programming similarities exist. the async portion of three (3) The DMZ32 appears very much like appear as if there are three DMF32s on the UNIBUS. The program treats each octet selected as though it is a . ' For example: device. e When vyou select TZA only, (Octet) e only the first A of the DMZ32 is tested. select When you TZB (lines (lines 0 - 7), 8 - TZA and TZB, the program 15). The program treats the When TZA, e You TZB, and TZIC are selected, TZA first, TZB second and TZC last. must (Refer 8 : lines ] tests two TZA perform the attach sequence octets Because of the program must run twice. e separate SR then the program starts over and tests as though they were two separate devices. this, will vectors and CSRs DMF32s. the program runs for each octet. to Figure 4-15.) On-line help may be obtained by typing HELP EVDAF - FOR INTERNAL USE ONLY - Before EVDAF will run, the following must be performed: After the (11/780/782=ESSAA, ; START SUPERVISOR ' $ RUN ENSAA 11/725/730=ENSAA ;11/750=ECSAA, the operating loaded, is Supervisor Diagnostic Figure 4-15 can be used for the EVDAF diagnostic. instruction in The colored portions of Figure 4-15 are what the user enters into DIAGNOSTIC SUPERVISOR. SBI DWO ZZ-ENSAA~-6.10-YYY S 7 ; 9-0CT-1983 09:40:14.80 ATTACH THE UBA TO THE SBI, VAX/780 DSS ATT 33750 HUB OWO ’ OS> ATT 83730 HUB DWO ; FOR VAX/750 TESTING ; FOR VAX/730 TESTING DS> LOAD ;: DS> ATT DM2Z32 ATTACH THE 1ST DEVICE LINK? DWO -e ATT DW780 THE OPTION IS LINKED TO THE UBA DEVICE NAME? ; THE OPTION IS NAMED TZIA we DS> THE CSR ADRS EVDAF TZA VECTOR? BR? 300 5 TEST LINES (OCTET 0)? LOAD THE LEVEL BAUD BR ; LINES ; (OCTET BIT MAP OF DESIRED LINES TO 0-7 TEST, EXAMPLE: ; TEST LINES (OCTET 1) 3 ONLY - TEST LINES (OCTET 2) LINK? DWO DEVICE NAME? T2B CSR? 760440 Loading, 0 WILL LINE 5 O ? O ; TESTS. RATE 600, 9600, BE TESTED BE to Level 13 Applies only to Level 3 USED IN 1800, 2000, EXTERNAL 2400, DATA SELECTED 4800, ARE: (EIA) (INTERNAL 7 = LOCAL MOCEM 8 = LOCAL MODEM : DOES THE ; YES ; ATTACH THE 2ND OCTET ; THE OPTION IS LINKED TO THE OPTION IS NAMED TZB ; THE CSR ; (RANGE=760000-777776) and ZERO only ; OR AND RATES THAT CAN BE LOOPBACK TYPES 4 = LOCAL LINE H3248 123 ONE Applies ; TO 19200 = FOUR, ; BAUD 1200, LINES? SIX, S Attaching, (RANGE=5-6) O, e DMZ32 DEVICE 1S OCTET NS ATT Y LEVEL e DS> CONTROL? (RANGE=300-776) ~e MODEM 300 ACTIVE ? BAUD we 4 = LINES ; we TYPE? IN BITO ; ; IS BIT1l = LINE 1, ETC. RANGE = 000~377) - LOOPBACK ADRS INTERRUPT ONLY 9600 ot 1S 760440 ;i 377 3 RATE? OCTET VECTOR ; TEST DIAGNOSTIC (RANGE=760000-777776) ; H LEVEL ) -e ~e CSR? 760440 Figure 4-15 : _ the system. LOOPBACK) TURNAROUND IN ANALOG LOOP (PROGRAMMABLE LOOPBACK) DEVICE HAVE NO. ADRS IS MODEM CONTROL, THE UBA 760440 Running EVDAF (Sheet 1 of 2) 4-34 - FOR INTERNAL USE ONLY - ; VECTOR ADRS IS 300 (RANGE=300-776) VECTOR? 300 ; BR INTERRUPT LEVEL IS S {RANGE=5-6) ‘ BR? S (OCTET 0)? 377 TEST LINES LEVEL 3 ONLY - TEST LINES iOCTET 1)2 0 LEVEL 3 ONLY - TEST LINES (OCTET 2)? 0 BAUD RATE? ; Applies only to Level 3 ; Applies only to Leve3 l- _ - 9600 4 LOOPBACK TYPE? Y -, ATTACH THE 3RD OCTET DS> ATT DMZ32 DEVICE LINK? DWO -e MODE CONTROL? THE OPTION IS LIMKED TO THE UBA THE OPTION IS NAMED TZC CSR? 760440 THE SCR ADRS IS 760440 we DEVICE NAME? T2ZC VECTOR? - -~ (RANGE=760000-777776) 300 BR INTERRUPT LEVEL IS S (RANGE=5-6) - BR? 5 TEST LINES _ VECTOR ADRS IS 300 (RANGE=300-776) (OCTET 0)? 377- LEVEL 3 ONLY - TEST LINES (OCTET 1)? 0 LEVEL 3 ONLY - TEST LINES (OCTET 2)? 0 : Applies only to Level 3 : Applies only to Level 3 BAUD RATE? 9600 4 ' LOOPBACK TYPE? MODE CONTROL? Y ~ DEVICE LINK? DWO 3 THE OPTION IS LINKED TO THE UBA THE OPTION IS NAMED TZC ~e DEVICE NAME? TIC THE SCR ADRS IS 760440 weo CSR? 760440 s {RANGE=760000-777776) ; VECTOR ADRS IS 300 (RANGE=300~776) £y VECTOR? 300 BR? ATTACH THE 3RD OCTET ~e DS> ATT DMZ32 S BR INTERRUPT LEVEL IS 5 (RANGE=5-6) (OCTET 0}? 377 TEST LINES LEVEL 3 ONLY - TEST LINES (OCTET 1)? O LEVEL 3 ONLY - TEST LINES (OCTET 2)2? 0 BAUD RATE? ; Applies only to Level 3 ; Applies only to Level 3 9600 LOOPBACK TYPE? 4 MODEM CONTROL? Y DS> SEL TZA ; SELECTS LINES 0-7 DS> SEL TZB ; SELECTS LINES 8-1S5 DS> SEL TZC : SELECTS LINES 16-23 DS> START Figure 4-15 Loading, Attaching, and Running EVDAF (Sheet 2 of 2) 4-35 - FOR INTERNAL USE ONLY - 4.12 There panel. H3014 FRONT PANEL INDICATORS are three LED These LED (3) indicators indicators are the on H301l4 distribution the T1 oos T o located directly above Connector, as viewed from the connector side of the panel (refer to Figure 4-15). e Power These indicators are as follows: . (PWR) ® Sync (SYNC) ® Trunk Quality (TRNK QLTY) "PPhe three LEDs display coded information that indicates the status to " of the H30l4. (Refer During-normal operation, : combinations.) all for 4-4 Table three the different indication - indicators that the H30l4 is operating correctly. when the H301l4 fails its self-test, are ON, signifying three LEDs will all remain OFF. POWER (PWR) INDICATOR SYNC {SYNC) INDICATOR UNK QUALITY (TRNK QLTY) INDICATOR S / —— Figure 4-16 H3014 T~ LED Indicators 4-36 - FOR INTERNAL USE ONLY - 4.12.1 The Power Indicator (PWR) indicator LED PWR provides on-line an indication that the three power supply outputs (+12V, =12V, and +5V) are good when the If any of the three power supplies fail during PWR LED is lit. normal on-line operation, the PWR indicator will go out. During the power-up sequence, H3014 the performs a self "test- s of the coded ome part evaluation and the PWR LED indicator bec display that is used to tell the status of the H301l4. Table 4-4 for the coded display indications.) 4.12.2 Sync Indicator (Refer to ) (SYNC) The SYNC LED indicator is the most useful indicator on the H3014. There are three states of the sync indicator: e OFF e Blinking e ON (Refer to Table 4-4 for the coded display indications.) OFF when the sync indicator is OFF, present at the distribution panel. a valid trunk signal 1is not oN When the sync indicator is ON, a valid trunk interface signal is present. 4.12.3 Trunk Quality Indicator (TRNK QLTY) When the T1 circuitry in the H3014 detects a bipolar viloation, the TRNK QLTY LED will be turned off for apporximately 1 second. - FOR INTERNAL USE ONLY - Table 4-4 PWR SYNC P TRNK H3014 Front Panel Indicators VALID ' TRUNK SIGNAL PRESENT PROBABLE CAUSE 2 2 22 22 22222 2222222223222 2 2222 2 22 2 2 22 22 2 222ty B g "THIS INFORMATION 2y ****************************************************************** GLEN ROY." HAS CHANGED. INPUT TO COME FROM TIM SAGEAR OR—-- ' khkkhkkRhkhhdhhhhhrkhrkhhhkhhihhhhhhhkhhhhhhhhhhhhhhhhhhdkihhkiidd ARk hkRedhkkkhkhhhrhhhhrhhrhhhhhkhhhkhhhhhdhhhhhhhhhhhdkrhhhhhhhehhx - FOR INTERNAL USE ONLY - 4.13 H3014 REMOVAL/REPLACEMENT PROCEDURES This section contains the removal and replacement procedures for all Field Replacement Units contained the in H3014 distribution . panel. Tools e e Required: 7/64 Allen Wrench Small Phillips screwdriver WARNING OR REMOVAL THESE PERFORMING BEFORE REPLACEMENT PROCEDURES, MAKE SURE THAT THE H3014 IS TURNED OFF AND THE POWER CORD IS REMOVED FROM CONTROLLER. THE POWER - INTERNAL : 4-39 FOR USE ONLY - 4.13.1 H3014 Power Supply Assembly Removal/Replacement (29-24799-00) 1. Open the VAX cabinet using a 7/64 allen wrench. 2. Disconnect 3. Loosen the two receptacle. input power (2) the H301l4 power 1\4 turn phillips head lock fasteners on the H3014 distribution panel e from cable (Refer to Figure 4 -17.) V/ —7 (Refer to Figure 4-17). % TURN LOCK FASTENERS (2 PLACES) Gf/ . 1= \wour POWER CONNECTOR Figure 4-17 1\4 Turn Lock Fasteners 4, Open the rear cover of the H3014 distribution panel. 5. Disconnect the power connector that is connected to the fan assembly (Refer to Figure 4-18). - FOR INTERNAL USE ONLY - 6. Disconnect the power connectors from the processor module and the expansion module (Refer to Figure 4-18). 7. Remove the processor module (Refer to Figure 4-18). 8. Lift the power supply assembly (Refer to Figure 4-18) 1/2 about chassis. up inch and pull the assembly out of the H301l4 S : 9., Using a 3/8 nut driver, disconnect the CHASSIS GND 10. To o connection from the power supply chassis.. replace through the supply power assembly, reverse step 1 9. EXPANSION MODULE POWER CONNECTOR FAN POWER CONNECTOR PROCESSOR MQDULE POWER CONNECTOR. pp/ ” L / . LR ) ANSION ] PROCESSOR POWER SUPPLY ASSEMSBLY Figure 4-18 H3014 Distribution Panel with Rear Cover Open - FOR INTERNAL USE ONLY - 4,13.2 H3014 Fan Assembly Removal/Replacement (29-24800-00) Open the VAX cabinet using a 7/64 allen wrench. Disconnect receptacle the input power cable the from H3014 power (Figure 4-17). Loosen the two 1/4 turn phillips head lock fasteners on the H3014 distribution panel (Refer to Figure 4-17). Open the rear cover of the H3014 distribution panel. Disconnect the power connector that is connected to the fan assembly Slide the : (Refer to Figure 4-19). fan assembly out of pulling the fan mounting bracket the H3014 toward chassis by the rear of the chassis. CAUTION Make certain that the fan is so that the air flows inward. installed To replace the fan assembly, reverse steps 1 through 6. - FOR INTERNAL USE ONLY - FAN POWER CONNECTOR NN\ AN . , X - | S O S -------- ---------------------------------------------------------------------------------------- Figure 4-19 Y Y R R R 2R H3014 Distribution Panel with Rear Cover Open 222X 22X XT XSRS X222 2 2 R R a2 a2 R A R R 2 2 2 R a2 022 & ************************************************************* TO BE SUPPLIED WHEN NEW DISTRIBUTION PANEL IS FINALIZED ************************************************************** Je de J¢ Je e de & Je e Je Je Je de de e de de de de de g do de Je de de de do K de Je T e dede do de K Je fe ke do e de do Je ke de de de de K de e de ke dede ke de KK Figure 4-20 Fan Mounting Bracket Assembly - FOR INTERNAL USE ONLY - 4.13.3 - H3014 Expansion Module Remove/Replacement (29-24798-00) 1. Open the VAX cabinet using a 7/64 allen wrench. 2. Disconnect 3. Loosen the two 1/4 turn lock phillips head fasteners on the H3014 distribution panel (Refer to Figure 4-17). 4, Open the rear cover of the H3014 distribution panel. S. ‘Disconnect the expansion module and the processor module 6. Grasp the two finger handles (Figure 4-20) on either side receptacle the power cable (Figure 4-17). power connectors of input power from the H3014 : ' (Refer to Figure 4-21). the expansion module. Pull the finger handles toward the back of the H301l4 to physically remove the expansion module 7. from the backplane. To replace the expansion module, reverse steps 1 through 6. - FOR INTERNAL USE ONLY - PROCESSOR. MODULE POWEL CONNECTOK EXPANSION MODULE POWER CONNECTOR FINGER MANDLE : { o " *O = - 2 . - N S1 A PROC T, L T S5 NANGRAE Tl 1H S A AT R] - el ) - !1 \ - ’ FINGER HANODLE ry /] ‘ f T e T L e T T T e T T L T o smesmsmserar s e T L I LI L L amamr et LY 5 Figure 4-21 H3014 Distribution Panel with Rear Cover Open 4-45 - FOR INTERNAL USE ONLY - 4.13.4 1. H3014 Processor Module Removal/Replacement (29-24797-00) Open the VAX cabinet using a 7/64 allen.wrenéh. 2. Disconnect the input power cable from the :_H3014 power 3. Loosen the two 1/4 4. Open the rear cover of the H3014 distribution panel. 5. 6. receptacle (Figure 4-17). turn lock phillips head fasteners on the H3014 distribution panel (Refer to Figure 4-17). Disconnect the power connectors processor and module (Refer to Figure 4-21). expansion module . Grasp the two finger handles (Figure 4-21) on either side of the processor module. Pull the finger handles toward the back of the H301l4 to physically remove the processor module from the backplane. - FOR INTERNAL USE ONLY - 7. To replace the processor module, reverse steps 1 through 60 NOTE Before placing the processor module back into the jumpers e e H3014, and Jumper verify switch between always in place the E6 following settings. and E7 is (Refer to Figure Jumper between E4 and ES5 is always in place (Refer to Figure 4‘-23)0 - FOR INTERNAL USE ONLY - (o3 N us? uso €E6/E7 JUMPER Cm Unuso uso ¥ us1 ] SWITCH N v Ylus2 [l L%fis Ul (vot usep) u ;Ima (V3] U108 U109 | 1[1'_1 78 Tm17£;:::] ] Figure 4-22 Processor Module Clock Jumper and Dip Switch 4-48 - FOR INTERNAL USE ONLY - ' ‘ DS1 DS2 ;; c]mzs c 27(]‘] - I e 100 Figure 4-23 b ”""”lfl 53 E4 €5 MASTER/SLAVE JUMPER : Processor Module Master/Slave Jumper 4-49 - FOR INTERNAL USE ONLY - 4.13.5 H30l4 Chassis/Backplane Replacement CAUTION Two persons are needed One procedure. person to is perform this while the in place the chassis hold screws are being removed. 1. Disconnect all turn to attached are that <cables distribution panel. 1/4 required lock phillips head to the fasteners on 2. Loosen the two 3. Disconnect the input power connectors module and the processor module. 4. Remove the expansion module from 5. Remove the controller module from the distribution panel 6. Remove the power supply module from the distribuion panel (refer to Section 4.13.1). 7. Remove the the H3014 distribution panel (refer to Figure 4-17). (refer (refer to Section 4.13.3). the to the expansion distribution panel to Section 4.13.4). fan assembly (refer to Section 4.13.1). the from - FOR distribution INTERNAL panel USE ONLY - : Remove the eighteen (18) phillips screws that secure the mounting bracket of the distribution chassis. (Refer to Figure 4-25.) To replace the H3014 chassis/backplane, through : 8. - FOR panel to the reverse steps INTERNAL USE ONLY 1 - APPENDIX A FLOATING DEVICE ADDRESSES AND VECTORS FLOATING DEVICE ADDRESSES A.l UNIBUS addresses starting at 760010 and continuing through 763776 are designated as floating device addresses (see Figure A-1l). These other) are as used addresses register for communications devices interfacing with VAX-1ll computers. A gap of 10, must be left between the last address of one device type and the first address of the next device type. address of boundary. (and next the type device The gap of 10, must on start a The first module 10 must also be left for devices that ar not installed but are skipped over in the priority ranking list. Multiple devices of the same type must be assigned continuous Reassignment of device types already in the system may addresses. be required to make room for additional ones. 777 777 DIGITAL EQUIPMENT CORPORATION 2K WORDS (FIXED ADDRESSES) 770 000 767 777 DR11-C 1K ! WORDS t USER ADDRESSES 764 000 763 777 t 1K FLOATING ADDRESSES WORDS 760 010 DIGITAL EQUIP CORP (DIAGNOSTICS) 760 006 760 000 757 777 001 000 000 777 80 VECTORS t FLOATING VECTORS 000 300 000 277 48 TRAP & INTERRUPT VECTORS VECTORS 000 000 Figure A.1 UNIBUS Address Map A.l - FOR INTERNAL USE ONLY - Table A.l gives the floating CSR address- assignments for UNIBUS ' and QBUS devices. Table A.1 Floating CSR Address Assignments OPTION DECIMAL SIZE OCTAL MODULUS DJ11 4 10 DQ1ll 4 10 5 - DUP1l1l 4 10 7 DMC11/DMR11l 4 10 (DMC before DMR) DZS11,DZ32 4 10 (DZ1ll before DZ32) LPP1l1l 4 10 - RANK 1 2 3 4 6 8 9 10 DH1l1l DUl1l,DUV11 LK11lA Dz11/DZV11, RMC1l1 RL1l1l,RLV11 16 KwWwll-C 4 18 Reserved RX11/RX211 RXV11/RXV21 10 4 4 8 4 4 17 10 4 vMV21 VMV31l DWR70 - LPAl1l-K 10 4 11 12 13 14 15 20 8 10 20 10 10 10 4 . 4 10 21 DMP1l1l 4 10 23 ISB1l1l 4 10 25 DEUNA 4 10 27 DMF32 16 40 29 VS1l00 8 20 31 Reserved 8 20 DMZ32 16 40 22 24 26 28 30 32 33 DPV11 DMV11l UDASO KMS1l1 Reserved Reserved (After first) 10 10 4 DR11-W DR11-B : 20 (After first) 8 19 20 : 10 4 (After first) (RX11 before RX211) (After second) 10 4 20 8 4 2 (After first) (After first) 20 6 4 2 (After first) 20 8 - FOR INTERNAL USE ONLY - FLOATING VECTOR ADDRESSES A.2 Vector addresses starting at 300 and proceeding upward to 777 are (and family of These are used for communications designated as floating vectors. other) computers. Multiple devices devices sequentially. device of Table assignment interface with the VAX the same A.2 type the shows would be floating assigned interrupt OCTAL MODULUS DECIMAL SIZE DEVICE DC1l1 4 10 2 KL11l 4 10 2 DL11-B 4 10 2 DLV11l,DLV11-F 4 10 4 DM11l-A 4 10 6 DM11-BB/BA 2 4 8 DR11-A,DRV11-B 4 10 8 10 2 2 3 5 7 9 10 4 TUS8 10 4 DL11l-A DLV1l1l=-J DP11 DN11l DH11l Modem Control DR11-C,DRV11 (Reader+punch) 16 , 10 10 4 4 2 4 2 10 4 10 PA61ll 12 DTO7 4 10 14 DL11-C 4 10 DL11-E/DLV11-E 4 10 DH1l1l 4 10 17 VSV1l 8 19 DQ1l1 4 11 13 14 14 LPD11 DX11 DL11-D 15 DJ11l 17 GT40 16 18 20 vector sequence. 1 1 vectors Floating Interrupt Vector Device Assignment Table A.2 RANK that Vector size is determined by the device type. LPS11 KW1ll-W,KWV1l 10 4 10 4 10 4 10 4 10 8 10 10 12 10 10 4 - FOR INTERNAL USE ONLY - Table A.2 DEVICE RANK DU11,DUV11 21 22 23 ' 25 - 24 26 - 29 30 ' 10 4 LK1ll-A 4 10 DMC1l1 4 10 DZ32 KMC1l1l 4 4 10 (D211 Before DZ32) 10 VMV21 4 DV11l + Modem Control DWUN DZ11/DZS11/DZV11l, ' OCTAL MODULUS 10 DMR1l1l 27 DECIMAL SIZE 4 DUPLl1l 26 28 Floating Interrupt Vector Device Assignment - Continued - LPP1l1l 10 6 10 4 10 (DMC Before DMR) 4 10 4 10 VMV3l 4 10 33 DWR70 4 10 36 37 38 TS1l1l,TU8O LPAll-K IP11/1P300 KWll-C 2 4 2 4 (After the first) 4 10 (After the first) 4 ’ 10 40 DR11-W 2 4 4 10 31 32 34 35 39 41 42 VTVOol RL11/RLV11 RX11/RX211 RXV11/RXV21 DR11-B DMP1l1 10 4 2 2 - 2 4 2 4 4 (After the first) 4 (After the first) (RX11 before RX21l1l) 4 (After the first) 10 4 10 (MASSBUS device) 43 44 DPV1l ML1l1 46 DMV11l 4 48 UDASO0 2 4 50 KMS1l1 6 10 52 VS1l00 2 4 54 Reserved 4 10 56 Reserved 4 10 58 DMZ32 12 45 47 49 51 53 55 57 ISBl1l1l DEUNA DMF32 PCL11-B Reserved Reserved Reserved 10 4 2 4 16 10 4 4 2 ' : (After the first) 10 4 4 (After the first) (After the first) 10 4 - FOR INTERNAL USE ONLY - 2 ' APPENDIX B Tl CABLE SPECIFICATIONS B.1l INTRODUCTION This appendix gives information concerning the Tl link from the 2 x 4 I/0 panel insert on the FCC Bulkhead Frame to the Tl Connector ‘ o input of the remote distribution panel (H301l4). B.2 CABLE CONFIGURATION The T1 cable (BCl8L-xx or BC1l8M-xx) is connected between the2 X 4 I/0 parel insert on the FCC bulkhead Frame and the T1 Connector input This H3014. the of configuration cable T1 defines the detail requirements for a 4 Conductor Shielded Cable Assembly with a 15 position female D-Subminature connector at one end and a 15 position male D-Subminature connector at the other end. A BCl8L-15 is supplied with this option when purchased. other lengths ordered be may DIGITAL from directly Cables of EQUIPMENT CORPORATION (Refer to Table B.2) or fabricated using the component specifications listed in Table B.l. Table B-1 BCl8L-xx Component Parts Material & Finish Description Digital Part Number 12-10493-39 Crimp Terminal Pin Brass, gold flash {Accomodates AWG 20 - minimum thickness on over nickel 0.00005 (contact) (Figure C-1) entire contact with 24] additional 0.00002 mating for gold thickness on end of 0.150/0.175 Carrier length inch. - strip may not be gold plated. NOTE TM used when An AMP 90265~-1 crimping inserting connector housing is a trademark of AMP, tool pin is into to be the (12-10493-57). Inc. - FOR INTERNAL USE ONLY - Table B-1l BCl8L-xx Component Parts -'Continued D G S D P T WD WD GHD D S D D WD WED GNP AR WD CUB NS G GED AED G N SN WD ED WD GED WD WR GNP WD WD D VIP W D GEP Wi GED M GEP GED ED WD WD T D G GED SN NP GED D ED GED i W Crimp Terminal Socket Phosphor Bronze %old [Accommodates AWG 20 - 24]. 0.00005 minimum thickness on entire. (contact), (Figure C-2) G GNP G G Material & Finish Digital Part Number 12-10493-41 P GIP WL D G G Description flash over nickel contact with additional 0.00002 gold minimum thickness on mating end for length 0.150/0.175 NOTE of inch. TM 90302-1 crimping tool is to be An AMP used when inserting the socket into the connector housing 12-10493-57 (Figure C-=3) (12-10493-58). Connector Housing, : A. Shell: Steel for 15 Male (Pins) with Tin Plating. relief. B. Insulator: Glass filled Nylon, color contacts with strain black. 12-10493-58 (Figure C-4) A. Connector Housing, for 15 Female (Sockets) contacts with strain Shell: Steel with Tin Plating. relief. B. Insulator: filled black. Nylon, Glass color et b | Bt B-2 - FOR INTERNAL USE ONLY * - S = Table B-2 Digital Cable Option Designations Tl EXTERNAL PVC CABLE BC1lS8L DIGITAL Option Cable Length 15 Feet 50 Feet Number BCl8L=15 BC18L-50 , BC1l8L-A0 100 Feet 150 Feet BC18L-AS Feet Feet Feet Feet Feet BC18L-BS BCl8L-C5 BCl8L-EQ BCl8L-HS5 BC18LOLO BCl8L-BO 200 Feet 250 350 500 750 1000 Tl EXTERNAL PLENUM CABLE BCl8M BC18M-15 15 Feet BC1l8M-50 50 Feet BC18M-AQ 100 Feet 150 Feet BCl8M-AS BC18M~-BO 200 Feet 350 Feet BC18M-CS 500 Feet BC1l8M-EO 1000 Feet BCl8M-LO 750 Feet BC1l8M-HS5 B-3 - FOR INTERNAL USE ONLY - B.3 The T1 CONDUCTOR CHARACTERISTICS conductor that characteristics. Electrical Pairs: Nominal is the for used 1link Tl has following the Characteristics: Impedance - 100 ohms - Nominal Capacitance between conductors - 16 pf/ft Nominal velocity of propagation - 66% Nominal delay - l1.54 nano seconds per ft. Capacitance unbalance (pair to pair) - 160 picofarads/1000 feet - Maximum at 1000 Hz ohms 1.20 pair) (individual unbalance Resistive D.C./1000 feet - Maximum Crosstalk - 70 db/1000 feet mingmum at 150 KHz far end. Insulation resistance - 10 x 10 ohms/1000 feet minimum at 200-500 volts DC for 1 minute. Attenuation - 6.0 db/1000 feet Maximum at 1 MHz Shield Coverage - 100% Nominal shield DC resistance - 5.0 ohms/1000 feet Nominal conductor DC resistance - 17.0 ohms/1000 feet Maximin operating voltage - 150 volts AC RMS : UL listed AWM Style 2919 Physical Characteristics: Nominal weight/1000 feet - 40 lbs. Minimum bending radius -3 incheg . Temperature rating - -30"C to 80°C Shield Type - Foil and braid with 22 AWG Drain Wire Maximum pulling tension - 64 lbs. Insulation material - Jacket material - PVC Outise Dimensions - Polyethylene .296 inches Dia. - FOR INTERNAL USE ONLY - T1 Cable Schematic Table B-3 WIRE Description - From Color | Connection | 22 22 WHT/BLU 22 22 WHT/ORN 22 DRAIN P1l-9 Pl-1 Pl-1 P1-3 P1 Shell AWG | BLU ORN TABLE ‘ TO Remarks Connection | P2-9 p2-1 P2-11 P2-3 P2 Shell - FOR INTERNAL USE ONLY -
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