PRECISION PROGRAMMABLE

Transcription

1 PRECISION PROGRAMMABLE P A T C H SOLID STATE SWITCH SYSTEMS 9 9 SALIENT FEATURES High density,00 cross points in one mainframe Solid state reliability Built-in self test and diagnostics with test subsystem Computer control via RS-C, RS- or IEEE-Std- Multi-mainframe systems with single control Non-volatile storage of switch configurations Signal switching of 0 Vpk to 00 khz Small signal bandwidth to MHz Modular construction uses a multi-layer PC bottom plane to replace rat s nest card interconnections DESCRIPTION The Precision 9 switching system employs solid-state modules to form a switch matrix system. The standard matrix tables below give you an idea of the variety possible with the Precision 9 Programmable Patch. Larger systems can be configured by bussing multiple mainframes, using T connections, and our multi-mainframe firmware. 9 Switching System The matrix can be augmented with reed relay bank switches with buffers to concentrate signals ahead of the switch matrix or to expand signals after the matrix. In addition to the switch matrix, you may install independent bank switches. A single mainframe may house multiple independent small matrices. Systems are available with coaxial BNC, twinaxial BNC, or multipin connectors. Custom connectors can be provided to meet special requirements. Standard Matrices with BNC I/O Connectors x x x x x0 x7 x x x x x x0 x7 x x x x x x0 x7 x x x x x x0 x7 x 0x 0x 0x 0x 0x0 0x7 0x 9x 9x 9x 9x 9x0 9x7 x x x x x0 x7 x x x x x0 x7 x x x x x0 x7 Multiple Independent Matrices x Matrices or x Matrices Standard Matrices with Multipin Connectors x x x x x x x x x x x x x x x x 0x 0x 0x 0x 9x 9x 9x 9x x x x x x x x x x x x x 0x 0x 0x 0x x0 x9 9x 9x x0 x9 x x x0 x9 x x x0 x9 x x 0x0 0x9 0x 0x 9x0 9x9 x0 x9 Multiple Independent x0 x9 Matrices x0 x9 0x Matrices 0x0 0x9,, or x Matrices

2 SYSTEM OPERATION It s simple to enter the crosspoint switch settings you want foryourtestsetup.it sthensimpletoverifythatyoursettings have in fact been correctly entered into memory. It s also a simple matter to verify that your Precision Patch is performing correctly with the switch settings you entered. Should there be a problem, a diagnostic report helps you isolate the problem. We ve created the Precision Programmable Patch to respect and protect the productivity of scheduled time in the test facility. Setting Up Your Programmable Patch You know the inlets where you ve connected the signals coming from your model under test. You also know the outlets to which you ve connected the various instruments. Make a matrix diagram that shows the inlets and outlets. Then, mark the crosspoints where you want the switches closed. Use the diagram to list the coordinates for each crosspoint. With this list, it s easy to enter the crosspoints into a setup in memory. Five setups can be defined. Sets through are stored locally in nonvolatile memory. A fifth set, Set 0, is reset to open all switches when power is removed from the system. Front panel menus and controls provide a convenient way to configure setups for the switch system. There s computer control available, of course, via the remote interface. Select the outlet and enter the inlet. Step to the next outlet and enter the inlet. You can quickly enter the crosspoints for a large matrix. Or you can do your programming off-line and download to your Programmable Patch. Unlimited programs can be stored in the host computer. At power up, the system activates Set 0, with all switches reset to open. Sets through, stored in non-volatile memory, are available to be selected as the active set. IN OUT SET MODE # # identifies the matrix. If the system has multiple matrices in a single mainframe, they are identified #, #, #, etc. A separate status line is displayed for each matrix. IN OUT identifies the inlet that will be connected to the corresponding addressed outlet. It is easy to step through the outputs to make connections and to check that the correct connections were entered. SET selects one of five matrix sets. Four matrix setups are retained in non-volatile internal memory. At power down, all switches in Set 0 are set to open. Set 0 is automatically selected at power up. MODE determines how many outlets can be connected to an inlet. - indicates that only one outlet can be connected to an inlet. -M indicates that an inlet can be connected to oneormoreoutlets. The COPY keyletsyoucopyanexistingsetasatemplate for creating additional matrix setups. The EDIT key enables Edit mode in which a scratch-pad copyofthematrixsetsiscreated.thesetscanbemodified off-line. No changes are made in hardware until the edits are saved by pressing the SAVE key. The TEST key lets you select either a self test of the current switch settings (TEST:0) or a comprehensive test (TEST:) ofallpossibleconnectionsinthematrix.thetestisinitiated with either the front panel ENT key, or a remote command. The PAGE keyletsyoudisplaythereportofthemostrecent self test on the front panel menu. The test report can also be read by the host computer. Remote Operation Programming the switch system from a host computer is as easyasoperatingitatthefrontpanel.ifthesystemhas been programmed at the front panel the setup can be uploaded to the host computer and stored. The stored setup can be down-loaded from the host-computer, eliminating programming effort altogether. The commands are in plain English and similar to the front panel menu. This command sequence, sent from the host computer, defines two switch closures for the system. Command Description SET:; Select setup # (of ) for configuration. 0*0; Open all connections in set. MODE:-; Select switch mode: one input per output, and one output per input. *0; Connect inlet to outlet 0. * ; Connect inlet to outlet. Verifying Performance You can read and verify from the front panel that your switch settings are in memory. Or you can call for a status report via the host computer that lists the coordinates in memory which you can verify with your program list. SET:?; Returns a report that identifies the active set (0 through ).?*; Returns a report that identifies inlet connected to outlet. Page

3 ELEMENTS OF A SWITCHING SYSTEM MAINFRAMES A single mainframe may house multiple independent matrices. A single system may consist of several mainframes bussed together. The variety of Precision Patch configuration is immense. The 9 begins with a mainframe that houses a bottom plane. Up to eighteen input connector cards and output connector cards, plus up to eighteen switch modules can be interconnected by the bottom plane. Also interconnected are the control module, front panel and power. The completed mainframe is designated 9-R??, where the two-digit suffix is a unique mainframe ID number. Basic Mainframe The basic mainframe is an enclosure with power supplies but without a front panel, rear panel, or bottom-plane. The mainframe is 9" wide, 0." high, and " deep and is designed to fit in a standard RETMA rack. BOTTOM PLANES The bottom plane provides signal bussing from switch module to switch module, and between switch modules and the input and output connector cards. Signals are routed between ground planes and ground lines are placed between signals to reduce crosstalk. The bottom plane includes the connectors for plugging in the connector cards and switch modules, while providing structure for the mainframe. The size of the bottom plane and the number of connectors vary with the size of the switch matrix, as needed now or anticipated for the future. Bottom planes which support multiple independent switch matrices in a single mainframe are also available. Switch module bussing in the bottom plane builds larger switches from the switch modules. Outputs are bussed to expand the switch to a larger number of inputs. Similarly, to expand outputs, inputs are bussed in the bottom plane. In addition, the bottom plane busses test and monitor signals to the input and output connector cards for self-test and diagnostics, busses control signals to the switch and connector cards, and distributes power to all system components. The switch modules and connector cards plug into bottom plane connectors. The bottom plane contains multi-row DINstyle pin connectors. The switch modules and connector cards contain the mating socket connector. 9-R0 Basic Mainframe, Rear View Bottom planes vary in size from a 9--BMP0, which is twelve I/O connectors wide, to a 9--BMP, which is eighteen I/O connectors wide. In addition, bottom planes may be partially populated with connectors which provides a lower cost solution for a switch system that will not be filled to its maximum capacity. Custom bottom planes can be made to allow two, three, or four independent switch matrices to operate in one mainframe. Power Requirements The standard power supply lets you select operation at 0 or 0 VAC. The power frequency may range from 7 to Hz. Option on the mainframe provides 7-0 Hz operation. FRONT PANELS Coax Inputs x Switch Coax Outputs 9-I-MP 9-x-SSX 9-O-MP In x Outputs Out The 9-FP is a front panel with controls and display for entering commands and displaying switch states. The FP allows remote control via a computer interface as well as front panel control. Inputs The 9-FP0 is a blank front panel with switch control via the computer interface. The 9-FP0 is often used in multiple mainframe systems in which the master mainframe has an FP front panel and slaved mainframes have a 9-FP0 front panel. Display Control Key Pwr Elements of a 9 Switch System Page

4 There are two families of bottom planes: The BNCXX family is used with coaxial and twinaxial BNC connector cards and the BMPXX family is used with multipin connector cards. The model number conveys the connector type, the number of bussed signal lines on the bottom plane, and the number of connector cards and switch modules. for BNC I/O Cards 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-0x-SSX 0 input x output switch matrix 9--BNC0-?-? Number of switch modules Number of connector cards Number of bussed lines on BP Connector: BNC or multipin Number of card slots for MP? I/O Cards 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-x-SSX input x output switch matrix 9-0x-SSX 0 input x output switch matrix CONNECTOR CARDS Number Description Table 9--BNC0-?-? 0 bussed inputs for BNC conn. conn. cards wide; 0x max. 9--BNC-?-? bussed inputs for BNC conn. conn. cards wide; x7 max. 9--BNC-?-? Two matrices in mainframe; BNC conn. x max. 9--?BNC-?-? or matrices in mainframe; BNC s, conn. cards wide; x max. 9--BMP0-?-? 0 bussed inputs for MP conn. conn. cards wide; 0x9 max. 9--BMP0-?-? 0 bussed inlets for MP conn. conn. cards wide; 0x max. 9-BMP0-?-? matrices in mainframe; 7 multipin connectors; 0x max. 9-?BMP-?-?, or matrices in mainframe; multipin connectors; x max. SWITCH MODULES 9 switch modules are small solid state switch matrices that are bussed in the bottom plane to form a larger switch matrix. Each switch module is a small solid state switch matrix. Modules are interconnected on the bottom plane via input and output bussing to build large matrices. Up to switch modules may be installed in the bottom plane. Solidstate T switches ensure high reliability and low crosstalk. Input connections are made on the plug-in input connector cards. Output connections are made on the plug-in output connector cards. Connector cards offer a choice of coaxial BNC, twinaxial BNC, and multipin connectors. The number of connectors per card also varies to provide economical implementation of different sizes of systems. Input cards are not interchangeable with output cards. Each input is buffered with a differential input stage to reduce grounding problems, and outputs are driven by buffer stages with output ground reference so as to minimize grounding problems. The input buffer provides a low impedance to drive the switch matrix and reduce crosstalk, and the output buffer provides a low capacitance, high-input impedance to reduce insertion loss and band-limiting. Control and power are received from the bottom plane. Depending on the size of the switching system, up to eighteen connector cards plug into the 9 bottom plane, and form the mainframe s rear panel. System 000 bank switch cards can be installed in open connector card locations in the mainframe to support applications which require bank switching. Unused slots are filled with blank panels. To support test and diagnostic functions, 9 input cards provide solid state switches at the input which can sum a test source with the input signal. A detector circuit at the output allows self-test of the matrix crosspoints. This option is used with the test subsystem option on the control. 9 Switch Module 9 Input and Output Connector Cards Page

5 BNC Input Connector Cards 9-I- coaxial BNC inputs w/ buffers 9-I-BNC coaxial BNC inputs w/ buffers 9-I-BNC coaxial BNC inputs w/ buffers 9-I- twinaxial BNC inputs w/ buffers 9-I-BNC twinaxial BNC inputs w/ buffers 9-I-BNC twinaxial BNC inputs w/ buffers 9-I-MP-T 9-I-MP-T Inputs Inputs () MP input connectors T d () MP input connectors T d n Inputs n 9-O-MP-T 9-O-MP-T () MP output connectors T d () MP output connectors T d Outputs BNC Output Connector Cards 9-O-BNC coaxial BNC outputs w/ buffers 9-O-BNC twinaxial BNC outputs w/buffers BNC Outputs Outputs Ground Reference MP and MP (Multipin) Gnd Ref "T'd" Outputs Option S, Input and Output Selection Switches Outputs The S option employs reed relays on a multipin input card to provide sixteen independent -of- input selections or two banks of sixteen inputs, depending on program mode. The S option on a multipin output card uses reed relays to provide sixteen independent -of- output selections or two banks of sixteen outputs, depending on program mode. 9-I-MP 9-I-MP MP input connector MP input connector 9-I-MP-S 9-I-MP-S Switched MP input connectors Switched MP input connectors Inputs MP and MP (Multipin) 9-O-MP MP output connector 9-O-MP MP output connector Inputs Inputs 9-O-MP-S 9-O-MP-S -of- Switched MP output connectors Switched MP output connectors Outputs Gnd Ref Relay Selects -of- Outputs Outputs Option T, Input and Output T s Connector cards with Option T provide parallel connectors for T ing the inputs or outputs of multiple mainframes. The T option on input cards provides the ability to T together inputs of multiple mainframes to form larger switch systems than can be accommodated in a single mainframe. Option T on output cards allows the card to drive two outputs from the matrix. Option ST, Output T ing Multiple Mainframes The ST options on output connector cards provide the ability to T together outputs of multiple mainframes to form larger switch systems than can be accommodated in a single mainframe. Outputs Gnd Ref Outputs Page

6 BANK SWITCH CARDS System 000 bank switch cards are available for applications which require bank switching. The bank switch cards can be installed in any unused I/O card slots in the bottom plane. Bank switch cards use reed relays for switches; the inlets and outlets are both on the same card. Switches in separate cards can be grouped to form larger bank switches. Depending on the program mode selected, each switch can be operated independently. Refer to the Precision 000 Bank Switch brochure for information about the bank switch cards. MATING CONNECTORS AND CABLES There are two multipin connector types available for the 9 switching system: MP and MP. The MP and MP are used exclusively on 000 bank switch connector cards which may in incorporated in custom systems. MP Connectors All MP input and output cards use an AMP connector designed for mass terminating with a coax ribbon cable. The ribbon coax can be split apart and connected to BNC connectors. The same AMP connector is used on the 9-I-MP input and 9-O-MP output cards. MP Connector: AMP -07- Mating Connector: AMP --7 w/- & - Coax Ribbon Cable: AMP -9-0Ω ( coax) AMP -- 7Ω AMP -7-9Ω MP Connectors The MP employs a 0-pin Cannon D connector. MP connectors are available on both the 9 connector cards and the 000 bank switch I/O cards. The mating connector is a crimp connector without pins. Pins are available in different sizes and styles.?9-?-mp Conn.: Mating Connector: Cannon DDC-0SAA Cannon DDC-0P BLANK REAR PANELS & REAR PANEL LABELS Each connector card has an unlabeled rear panel. Additional blank panels (RP-RP0) are provided to cover any of the eighteen connector card slots which are not used. A rear panel strip labels the connector cards. RP- RP- RP- RP- RP-0 LBL-RP Blank Rear Panel, Card Slot Blank Rear Panel, Card Slots Blank Rear Panel, Card Slots Blank Rear Panel, Card Slots Blank Rear Panel, 0 Card Slots Rear Panel Label CONTROL MODULES The control module provides programming commands to set switches on the switch modules and I/O modules. It operates the front panel display and keyboard and performs remote interface functions with a host computer. The control module printed circuit board mounts behind the System 9 front panel. Each 9 control module has unique control firmware, identified by a serialized number (S?) in the model number. 9-C-S and 9-C-S are examples of control module model numbers. Five control modules are available to meet different needs. 9-C0 Manual Control Only 9-C GPIB Interface () 9-C Serial Interface (RS-C) 9-C Serial Interface (RS-) 9-C9 Slave Control The 9-C0 provides full control of the system from the front panel, but provides no remote interface. The 9-C provides an interface that is plug compatible with the general purpose interface bus GPIB or IEEE-Std-. The 9-C provides a serial interface which conforms to EIA standard RS-C. The 9-C interface is compatible with the RS- serial interface. The 9-C9 Slave Control permits several 9 systems to be operated from a single control module that has the appropriate firmware. Test Subsystem Option T on the 9-C? control module, when used with test circuits on the connector cards, provides a means for performing go/no-go system tests and diagnostics for fault isolation. Make a quick go/no-go verification before you conduct your experiment. No need to disconnect cables. The test subsystem injects a signal and measures to verify that each crosspoint is made. And it all takes less than a m- inute. Should there be a problem, a diagnostic report helps isolate it. For routine periodic maintenance, you can perform an exhaustive test that checks all possible matrix connections. The test subsystem injects a low-level 0 khz sinewave into the individual inputs. This signal is summed at the input with the incoming signal. The corresponding output is checked via a synchronous detector. Any out-of-phase signal (i.e., the input signal) is rejected and the remaining test signal is checked for proper level. In addition, all other outputs are checked to insure the test signal is not present on any outputs to which it should not be connected. The generating input is checked to verify that the test signal is actually being applied to the matrix as an additional test. With these tests, the system can be checked for shorts or opens, and the test signal itself is checked. This helps to quickly isolate failures to the proper card. Page

7 The Setup Test The SETUP test provides a go/no-go and fault isolation test of the current matrix configuration. Because only the current setup is tested, this test will typically take less than one m- inute. The ALL Test The ALL test is an exhaustive test of all possible matrix connections which identifies opens or shorts. This allows complete system matrix verification. Test Reports When the test is complete, a test report is available to be displayed on the front panel, or read by the host computer. Thereportlistsfailuretypeandtheswitchmoduleor connector card that should be replaced. The test report remains resident in system memory until either system power is turned off, or a new test sequence is initiated by the operator. ACCESSORIES 9-X I/O connector card extender 9-X Switch card extender CB-MP-L Cable, MP to MP, length = L feet CB-MP-BNCF-L Cable, MP to BNC female receptacles, length = L feet CB-MP-BNCM-L Cable, MP to BNC male plugs, length = L feet CB-MPPP-L Cable, MP to MP, male-to-male, length = L feet CB-MPPS-L Cable, MP to MP, male-to-female, length = L feet U Rack mount with slides ENVIRONMENTAL SPECIFICATIONS Operating Temp: 0 o Cto0 o C Storage Temp: 0 o Cto70 o C: Relative Humidity: Less than 0%, non-condensing POWER REQUIREMENTS Voltage: Power Frequency: PHYSICAL CHARACTERISTICS Dimensions Mainframe : Weight Mainframe (PS, BP, and FP): Switch Card: I/O Conn Card: 0 or 0 VAC, selectable 7 to Hz 7 to 0 Hz w/ Option on mainframe 9 x 0. x inches (WHD) (. x.7 x. cm).0 lb. (0. kg). lb. (. kg).0 lb. (0. kg) SWITCH SYSTEM SPECIFICATIONS Solid State Switches Frequency Range: Maximum Output: Maximum Input: Input Z: Output Z: CMRR: Signal Level: Switch Crosstalk: Noise: DC Offset: Switch Type: DC to 00 khz +0. db 0 Vpk, mapk +0 Vpk MΩ 0 Ω 0 db +0 Vpk 0 db at 00 khz; db at 00 khz µvrms in 00 khz BW + mv typical Solid state T switch DECISION PATH FOR BUILDING A SYSTEM A. Select the input/output connector type you want. Coaxial BNC Twinaxial BNC Multipin Selection charts are organized according to these standard connector types. Call Precision Filters for information about custom connector requirements. B. Is the system a bank switch only? If yes, refer to the Precision 000 Bank Switch brochure. If no, proceed to step C. C. Select the matrix switch type based on your application using the table for guidance: Reed Relay Precision 09 Solid State Precision 9 Up to 00 Vpk, up to 00 ma Up to 0 Vpk, ma pk switching current Frequency to MHz Full power frequency to 00 khz Up to 0 crosspoints per Up to,00 crosspoints per mainframe mainframe Bidirectional Unidirectional buffered inputs and outputs For reed relay systems, refer to the Precision 09 brochure. For solid state systems, continue with step D. D. Select the matrix size. Refertothetablefortheswitchtypeandconnectors you have selected. Pick the nearest acceptable matrix size. If practical, include any future expansion that is anticipated. E. From the appropriate selection guide, determine the required hardware. Page 7

8 Example Let s make the selections for this hypothetical case: A. Coaxial BNC input and output connectors. B. system. C. Precision 9 solid state switch cards. D. Programmable patch with an 0x matrix. Going to the appropriate system selection guide, we find the line reproduced at the bottom of this page. And the chart indicates that we need the following:. Bottom plane: 9--BNC0-9-. Input cards: One each 9-I-BNC input card to be inserted in card slot. Six each 9-I-BNC input cards to be inserted in card slots, 0,,, and.. Output cards: Two each 9-O-BNC output cards to be inserted in card slots and 7. SYSTEM SELECTION GUIDES Eight selection tables follow which describe the standard 9 switch systems supported by Precision Filters. System Switches Banks Switches I/OConn Type Size() #Card Slots ReferTo Table# BNC 0x? x? ea.x? orea.x? Multipin 0x? 0x? ea.x? 7,orea.x? RefertotheSystem 000brochure. Each table identifies the model numbers and quantities of all the system components (bottom plane, input cards, output cards, switch modules, and blank panels) required to configure aswitching system of aspecific size. Contact Precision Filters for additional information about custom switching applications.. Blank panels for rear: One each RP- to fill in card slots -. Five each RP- to fill in slots, 7, 9, and.. Two each 9-0x-SSX switch modules to be inserted in switch module card slots and 7.. Select the desired front panel and control module. 7. Select whether to include the test option on the control module. Precision9with CardsInstalled Size BottomPlane 9-- x BNC0-- 0x BNC0-9- x BNC0-- Sample Selection Guide Table BNCConnectors 9--BNC0-?-? OutputCards SwitchModules BlankPanels 9-I-?BNC? 9-O-BNC? 9-??x??-SSX # Card Slot # Card Slot # Card Slot,7 RP,,,,, -x-,7 BNC 0,,,, BNC BNC BNC,0,,,,,7 RP,,,,, -0x-,7,,7 RP0,, -x-,,7 Page SampleSystemSelection Guide

9 Size 9-- x BNC0-- x BNC0-- Table BNC Connectors 9-I-?BNC? 9-O-BNC? 9--BNC0-?-? Blank Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot BNC BNC BNC, 7 RP0,, -x- 7 7 RP0,,, -x- 7 x BNC0-- BNC,,, 7 RP0,,, -x- 7 x BNC0-7- 0x BNC0-- x BNC0-- x BNC0-- BNC BNC BNC BNC BNC BNC 0,,,,,0,,,,, 7 RP,,,,,, -x- 7 7 RP,,,,,, -0x- 7,7 RP0, -x-,7,7 RP0,, -x-,7 x BNC0-- BNC,,,,7 RP0,, -x-,7 x BNC0-- 0x BNC0-9- x BNC0-- x BNC0-- BNC BNC BNC BNC BNC BNC 0,,,,,0,,,,,,7 RP,,,,, -x-,7,7 RP,,,,, -0x-,7,,7 RP0,, -x-,,7,,7 RP0, -x-,,7 x BNC0-7- BNC,,,,,7 RP0, -x-,,7 x BNC0-9- 0x BNC0-0- x BNC0-- x BNC0-7- BNC BNC BNC BNC BNC BNC 0,,,,,0,,,,,,,7 RP,,,, -x-,,7,,7 RP,,,, -0x-,,7,,,7 RP0,, -x-,,,7,,,7 RP0, -x-,,,7 x BNC0-- BNC,,,,,,7 RP0 -x-,,,7 x BNC0-0- 0x BNC0-- x0 BNC0-7- x0 BNC0-- BNC BNC BNC BNC BNC BNC 0,,,,,0,,,,,,,,7 RP,,, -x-,,,7,,,7 RP,,, -0x-,,,7 9,,,,7 9,,,,7 x0 BNC0-9- BNC,,, 9,,,,7 x0 BNC0-- 9,,, BNC 0,,,,,7 0x0 BNC0-- BNC BNC,0,,,, 9,,,,7 RP,,, -x- 9,,,,7 RP,, -x- 9,,,,7 RP, -x- 9,,,,7 RP,, -x- 9,,,,7 RP,, -0x- 9,,,,7 Page 9

10 Size 9-- x7 BNC0-- x7 BNC0-9- Table BNC Connectors 9-I-?BNC? 9-O-BNC? 9--BNC0-?-? Blank Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot BNC BNC BNC, 7,9,,,,7 7,9,,,,7 x7 BNC0-0- BNC,,, 7,9,,,,7 x7 BNC0-- 7,9,,, BNC 0,,,,,7 0x7 BNC0-- x BNC0-9-7 x BNC0-0-7 BNC BNC BNC BNC BNC,0,,,,, 7,9,,,,7 7,7,9,,,,7 7,7,9,,,,7 x BNC0--7 BNC,,, 7,7,9,,,,7 x BNC0--7 7,7,9,,, BNC 0,,,,,7 0x BNC0--7 BNC BNC,0,,,, 7,7,9,,,,7 RP,,,,, -x- 7,9,,,,7 RP,,,, -x- 7,9,,,,7 RP,,, -x- 7,9,,,,7 RP, -x- 7,9,,,,7 RP, -0x- 7,9,,,,7 RP,,,,, 7 -x-,7,9,,,,7 RP,,,, 7 -x-,7,9,,,,7 RP,,, 7 -x-,7,9,,,,7 RP, 7 -x-,7,9,,,,7 RP 7-0x-,7,9,,,,7 Page 0

11 Size Table BNC Connectors 9-I-?BNC? 9--BNC-?-? Bottomplane 9-O-BNC? Blank Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot 9x BNC-9- BNC,7,9,,,,7, RP,,,,, x BNC-- 9 x BNC-- 0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7, RP,,,,, RP,,,,, x BNC-- BNC -,7,9,,,,7, RP,,,, 9x BNC-0- BNC,7,9,,,,7,, RP,,,, x BNC-- 9 x BNC-- 0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7,, RP,,,,, RP,,,, x BNC-- BNC -,7,9,,,,7,, RP,,, 9x BNC-- BNC,7,9,,,,7,,, RP,,, x BNC-- 9 x BNC-- 0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7, 9-- -x- -0x- -x- -0x-,, RP,,,,, RP,,, x BNC-- BNC -,7,9,,,,7,,, RP,, 9x BNC-- BNC,7,9,,,,7, 0,,, x BNC-- 9 x BNC-- 0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7, 0,,, 0,,, x BNC-- BNC -,7,9,,,,7, 0,,, 9x0 BNC--0 BNC,7,9,,,,7,,0,,, x0 BNC--0 9 x0 BNC--0 0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7,,0,,,,0,,, x0 BNC-7-0 BNC -,7,9,,,,7,,0,,, 9x7 BNC-- BNC,7,9,,,,7,,,0,,, x7 BNC-- 9 x7 BNC-7-0 BNC BNC BNC,,7,9,,,,7, -,7,9,,,,7,,,0,,,,,0,,, x7 BNC-- BNC -,7,9,,,,7,,,0,,, RP,, RP,, RP,, RP, RP, RP, RP, RP RP RP RP -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x -x- -0x- -x- -0x- -x- -0x- -x- -0x ,,7,,7,,7,,7,,,,7,,,,7,,,,7,,,,7 0,,,,,, 7 0,,,,,, 7 0,,,,,, 7 0,,,,,, 7,0,,, 9,,,,7,0,,, 9,,,,7,0,,, 9,,,,7,0,,, 9,,,,7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7 Page

12 Size Table BNC Connectors 9--BNC-?-? 9-- ea. x BNC-- ea. x BNC-- 9-I-?BNC? 9-O-BNC? Multiple Matrices in One Mainframe Blank Rear Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot? BNC? BNC? BNC?, 0,,,0,, ea. x BNC-0- BNC?,,,0,,, ea. x BNC-0- BNC?, BNC?,0,, ea. x BNC-- BNC?,,,0,,, ea. x BNC-- BNC?,,,0,,, ea. x BNC-- BNC?,,,0,,, 9,7 RP,,,, x 9,7 9,7 RP,,,,, x 9,7 9,7 RP,,,,, x 9,7, 7,9,,7 RP,,, x 7,9,,7 7,9,,7 RP,,,, x 7,9,,7,7,9,,, 7,,7,9,,,7 RP,, x,7,9,,,7 RP x,,7,9,,,,7 Size Table BNC Connectors 9--?BNC-?-? Multiple Matrices in One Mainframe 9-- ea. x BNC-- ea. x BNC-9- ea. x BNC-- ea. x BNC-- ea. x BNC-0- ea. x BNC-- ea. x BNC-- ea. x BNC--9 9-I-?BNC? 9-O-BNC? Blank Rear Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot? BNC?? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? BNC? 0,,,0,,,, 0,,,,,,,0,,,, 0,,,,,,,0,,,, 0,,,,,,,0,,,,7 RP,,, x,7,,7 RP,,,,,,7 RP,,,,,,,7 RP,,,,, 9,,, 7,,9,,,7 7,9,,,,7 9,,,7,9,,,,7 x,,7 x,7 x,,7 RP,,, x 9,,,7 RP,, x,,9,,,7 RP, x 7,9,,,,7 9 x,,,7,9,,,,7 Page

13 Size 9-- Table Multipin Connectors 9-I-MP? 9-O-MP? 9--BMP0-?-? Blank Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot x BMP0-- 7 RP0,, -x- 7 x BMP0--, 7 RP0,, -x- 7 x BMP0--,, 7 RP0,,, -x- 7 x BMP0--,,, 7 RP0,,, -x- 7 0x BMP0-- 0,,,, 7 RP,,,, -0x- 7 x BMP0--,7 RP0,, -x-,7 x BMP0--,,7 RP0, -x-,7 x BMP0--,,,7 RP0,, -x-,7 x BMP0--,,,,7 RP0,, -x-,7 0x BMP0-7- 0,,,,,7 RP,,, -0x-,7 x BMP0--,,7 RP0,,, -x-,,7 x BMP0--,,,7 RP0,, -x-,,7 x BMP0--,,,,7 RP0, -x-,,7 x BMP0-7-,,,,,7 RP0, -x-,,7 0x BMP0-- 0,,,,,,7 RP,, -0x-,,7 x BMP0--,,,7 RP0,,, -x-,,,7 x BMP0--,,,,7 RP0,, -x-,,,7 x BMP0-7-,,,,,7 RP0, -x-,,,7 x BMP0--,,,,,,7 RP0 -x-,,,7 0x BMP0-9- 0,,,,,,,7 RP, -0x-,,,7 x0 BMP0-- 9,,,,7 RP,,,, -x- 9,,,,7 x0 BMP0-7-, 9,,,,7 RP,,, -x- 9,,,,7 x0 BMP0--,, 9,,,,7 RP,, -x- 9,,,,7 x0 BMP0-9-,,, 9,,,,7 RP, -x- 9,,,,7 0x0 BMP0-0- 0,,,, 9,,,,7 RP -0x- 9,,,,7 x9 BMP0-7- 7,9,,,,7 RP,,,,,, -x- 7,9,,,,7 x9 BMP0--, 7,9,,,,7 RP,,,,, -x- 7,9,,,,7 x9 BMP0-9-,, 7,9,,,,7 RP,,,, -x- 7,9,,,,7 x9 BMP0-0-,,, 7,9,,,,7 RP,,, -x- 7,9,,,,7 0x9 BMP0-- 0,,,, 7,9,,,,7 RP,, -0x- 7,9,,,,7 Page

14 Size Table Multipin Connectors 9-I-MP? 9x BMP0-7-,,,, 7, x BMP0-- 7,,,,, 7, x BMP0-9-,,,,,,7, x BMP0-0- 9,,,,,,,7, 0x BMP0-- 0,,,,,,,,7, 9x BMP0--,,,, 7, x BMP0-9- 7,,,,, 7, x BMP0-0-,,,,,,7, x BMP0-- 9,,,,,,,7, 0x BMP0-- 0,,,,,,,,7, 9x BMP0-9-,,,, 7, x MP0-0- 7,,,,, 7, x BMP0--,,,,,,7, x BMP0-- 9,,,,,,,7, 0x BMP0-- 0,,,,,,,,7, 9x BMP0-0-,,,, 7, x BMP0-- 7,,,,, 7, x BMP0--,,,,,,7, x BMP0-- 9,,,,,,,7, 0x BMP0-- 0,,,,,,,,7, 9x0 BMP0--0,,,, 7, x0 BMP0--0 7,,,,, 7, x0 BMP0--0,,,,,,7, x0 BMP0--0 9,,,,,,,7, 0x0 BMP0--0 0,,,,,,,,7, 9-O-MP? 9--BMP0-?-? Blank Rear Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot RP,,,,, RP,,,,, RP,,,,,, RP,,,,,, , RP,,,,, RP,,,,,, RP,,,,,,,7,,7,,7, RP,,,, -0x- -7,, RP,,,,, RP,,,,, RP,,,,,, RP,,,,,,,,7,,,,7,,,,7,,,,7,, RP,,, -0x- -7 0,,, RP,,, 0,,, RP,,, 0,,, RP,,,, 0,,, RP,,,, 0,,, RP,,, -0x ,0,,, 9,0,,, 9,0,,, 9,0,,, 9,0,,, RP,, RP,, RP,,, RP,,, 9-- -x- -0x- -x- -0x- -x- -0x- -x- -0x- RP,,,,, -0x-,7, RP,,,, -x-, -0x-,7 -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- RP,, 0-0x- -7 0,,,,,,7 0,,,,,,7 0,,,,,,7 0,,,,,,7,0,,, 9,,,,7,0,,, 9,,,,7,0,,, 9,,,,7,0,,, 9,,,,7 Page

15 Size Table Multipin Connectors 9-I-MP? 9x9 BMP0--,,,,7, x9 BMP0-- 7,,,,, 7, x9 BMP0--,,,,,,7, x9 BMP0-- 9,,,,,,,7, 0x9 BMP0-- 0,,,,,,,,7, 9x BMP0--,,,, 7, x BMP0-- 7,,,,, 7, x BMP0--,,,,,,7, x BMP0-- 9,,,,,,,7, 0x BMP0-7- 0,,,,,,,,7, 9x BMP0--,,,, 7, x BMP0-- 7,,,,, 7, x BMP0--,,,,,,7, x BMP0-7- 9,,,,,,,7, 0x BMP0-- 0,,,,,,,,7, 9-O-MP? 9--BMP0-?-? Blank Rear Panels 9-??x??-SSX # Card Slot # Card Slot # Card Slot 7,9,0,,, 7,9,0,,, 7,9,0,,, 7,9,0,,, 7,9,0,,, 7,7,9,0,,, 7,7,9,0,,, 7,7,9,0,,, 7,7,9,0,,, 7,7,9,0,,,,,7,9,0,,,,,7,9,0,,,,,7,9,0,,,,,7,9,0,,,,,7,9,0,,, RP, RP, RP,, RP,, RP, -0x- -7 RP, 7 7 RP 7 7 RP, 7 7 RP, 7 7 RP -0x- -7 RP,, RP, RP RP 9-- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -x- -0x- -0x- -7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7,,0,,, 7,9,,,,7,,,0,,,,7,9,,,7,,,0,,,,7,9,,,7,,,0,,,,7,9,,,7,,,0,,,,7,9,,,7,,,,0,,,,,7,9,,,,7,,,,0,,,,,7,9,,,,7,,,,0,,,,,7,9,,,,7,,,,0,,,,,7,9,,,,7 Page

16 Size Table 7 Multipin Connectors 9--BMP0-?-? I-MP? 9-O-MP? Blank Rear Panels Multiple Matrices in One Mainframe 9-??x?? -SSX # Card Slot # Card Slot # Card Slot ea. x BMP0-- 9,,7 RP,,,,, x,7 ea. x BMP0-- 7,9,,,7 RP,,, x,7 ea. x BMP0--,7,9,,7 RP,,, x,7,, ea. x BMP0-0-,,7,9,,,7 RP,,,,, x,7,, ea. 0x BMP0-- 0,,,7,9,0,,7 RP,,,,, 0x,7,,, ea. x BMP0-- 7,9,,,,,7 RP,,, x,,,7 ea. x BMP0-0-,7,9,,,,7 RP, x,,,7,, ea. x BMP0--,,7,9,,,,,7 RP,,, x,,,7,, ea. 0x BMP0-- 0,,,7,9,0,,,,7 RP,,, 0x,,,7,,, ea. x BMP0--,7,9,,,,, RP,,, x,,,,,7,,,7 ea. x BMP0--,,7,9,,,,,, RP, x,,,,,7,,,7 ea. 0x BMP0-- 0,,,7,9,0,,,,, RP, 0x,,,,,7,,,,7 ea. x BMP0--,,7,9,,,,,,, RP, x,,,,,,,7,,,,7 ea. 0x BMP0-- 0,,,7,9,0,,,,,,,,,,,7 0x,,,,,,,7 Size Table Multipin Connectors 9--?BMP-?-? I-MP? 9-O-MP? Blank Rear Panels Multiple Matrices in One Mainframe 9-??x?? -SSX # Card Slot # Card Slot # Card Slot ea. x BMP--,,7 RP0,, x,7 ea. x BMP-- 0,, 9,,7 RP,, x 9,,7 ea. x BMP--,0,,,9,,7 RP,,, x,9,,7 ea. x BMP--,,,,7 RP0,, x,7 ea. x BMP-9-,0,,,, 9,,7 RP,,,, x 9,,7 ea. x BMP--,,,0,,,,,9,,7 RP,,,, x,9,,7 ea. x BMP--,,,,,,7 RP0 x,,,7 ea. x BMP--,0,,,, 7,9,,, RP, x 7,9,,,,7,7 ea. x BMP--,,,0,,,,,,7,9,,, RP x,,7,9,,,,7 SP-0 Rev E