CXAR/64 & 128 COAXIAL SWITCH MATRIX with IF-11 Control ...

CXAR/64 & 128

COAXIAL SWITCH MATRIX

with IF-11 Control Module

This information is proprietary to CYTEC Corp., and is not to be used,

caused to be used, reproduced, published or otherwise used/or disclosed

in any way that might be detrimental or compromising to CYTEC Corp.

CXAR/64 & 128 COAXIAL SWITCH MATRIX

SECT. # DESCRIPTION 1.0 ADDENDUM

2.0 GETTING STARTED 2.1 SHIPPED CONFIGURATION / TYPICAL CONTROL CONNECTIONS

3.0 GENERAL

3.1 CHASSIS DESCRIPTION

3.1.1 CXAR/64 and CXAR/128 MAINFRAME CHASSIS

3.1.2 CXAR/64 and CXAR/128 EXPANSION CHASSIS

3.2 SPECIFICATIONS

3.3 POWER SUPPLY

3.4 FRONT PANEL

3.4.1 LABELING AND PROGRAMMATIC REFERENCES

3.4.2 CP8 LATCHING DISPLAY MODULE

3.4.3 THUMBWHEEL MANUAL CONTROL OPTION

3.4.4 KEYPAD / LCD DISPLAY MANUAL CONTROL OPTION

4.0 CXR SWITCH MODULES

4.1 CXR/8x1-G-50, CXR/4x1-G-50, CXR/8x1-G-75 and CXR/4x1-G-75

4.2 CXR/8x1-GT-50, CXR/4x1-GT-50, CXR/8x1-GT-75 and CXR/4x1-GT-75

4.3 CXR/8x1-2A-N and CXR/8x1-2A-TBNC

4.4 CXR/2x1-FORM A-1 and CXR/2x1-FORM A-2

4.5 CXR/2x1-2C

4.6 CXR/8x1-1S, CXR/4x1-1S, CXR/8x1-1T and CXR/4x1-1T

4.7 CXR/8x1-1HT, CXR/4x1-1HT, CXR/8x1-1HS and CXR/4x1-1HS

4.8 CXR/2x1-G-50 and CXR/2x1-G-75 and CXR/2x1-G-75-F

4.9 CXR/2x1-GT-50 and CXR/2x1-GT-75

4.10 CXR/4x2-G

4.11 CXR/2(4x1)-1P-LL

4.12 CXAR REED RELAY SWITCH MODULE SPECIFICATIONS

4.13 COAXIAL BUS STRIPS

4.14 CXS/8x1-GT-75-BNC, CXS/8x1-GT-75-F, CXS/16x1-GT-75-F

5.0 IF-11 IEEE488/ RS232/LAN CONTROL MODULE

6.0 MAINTENANCE AND WARRANTY

DRAWINGS

DWG. # DESCRIPTION

2-073 THUMBWHEEL MANUAL CONTROL SCHEMATIC

2-101-1 CXR/2x1-FORM A-(1 and 2) SWITCH MODULE SCHEMATIC

2-190-5B POWER SUPPLY DIAGRAM

6-057 LCD KEYPAD MANUAL CONTROL SCHEMATIC

11-14-50 IF-11 CONTROL MODULE SCHEMATIC

12-00-50 CL8 MOTHERBOARD

12-01-50 CP64, 128 AND 256 MOTHERBOARD

12-02-50 CP MAINFRAME ADAPTER CARD

13-00-50 CL8 LATCHING DISPLAY MODULE SCHEMATIC

13-08-50 CP8-VHP DISPLAY MODULE SCHEMATIC

14-02-29 CXBS/2 (2x1 COAXIAL BUS BAR) ASSY





16-00-50 EXPANSION INTERFACE MODULE

16-00-53 EXP. IF-9 ADAPTOR SCHEMATIC

21-00-50 CXR/2x1-2C SWITCH MODULE SCHEMATIC

21-01-50 CXR/2x1-GT-50 SWITCH MODULE SCHEMATIC

21-02-50 CXR/8x1-2A-(N and TBNC) SWITCH MODULE SCHEMATIC

21-13-50 CXR/2(4x1)-1P-LL SWITCH MODULE SCHEMATIC

21-14-50 CXR/8x1-1T SWITCH MODULE SCHEMATIC

21-14-51 CXR/8x1-1S SWITCH MODULE SCHEMATIC

21-14-52 CXR/4x1-1T SWITCH MODULE SCHEMATIC

21-14-53 CXR/4x1-1S SWITCH MODULE SCHEMATIC

21-37-00 CXAR/128 MAINFRAME ASSY

21-18-00 CXAR/128 EXPANSION ASSY

21-24-50 CXR/8x1-1HT and CXR/8x1-1HS SWITCH MODULE SCHEMATIC

21-32-00 CXAR/128 CP MAINFRAME ASSY w/ IF-9 or IF-11

30-10-50-1 CXR/2x1-G-75 SWITCH MODULE SCHEMATIC

30-17-50 CXR/8x1-G-50 and CXR/4x1-G-50 SWITCH MODULE SCHEMATIC

30-18-50 CXR/8x1-G-75 and CXR/4x1-G-75 SWITCH MODULE SCHEMATIC

30-19-50 CXR/8x1-GT-75 and CXR/4x1-GT-75 SWITCH MODULE SCHEMATIC

30-21-50 CXR/4x2-G-50 SWITCH MODULE SCHEMATIC



30-29-50 CXR/8x1-GT-50-HP and CXR/4x1-GT-50-HP SWITCH MODULE SCHEMATIC

30-30-50 CXR/2x1-GT-75 SWITCH MODULE SCHEMATIC

30-31-50 CXR/2x1-G-75-F SWITCH MODULE SCHEMATIC

64-00-50 CXS/8x1-GT-75-BNC SCHEMATIC

64-01-50 CXS/8x1-GT-75-F SCHEMATIC

64-02-50 CXS/16x1-GT-75-F SCHEMATIC (use w/ CLE/16 Display Module Only)

1.0 ADDENDUM

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2.0 GETTING STARTED

Unpack the unit and make sure it has arrived undamaged. Inspect for dents, bent handles, major scratches

and missing or loose parts. Note that many of the items listed individually on the packing list are already

installed within the chassis, rather than being packed separately.

Compare the Shipped Configuration List@, on the next page, with the included packing slip to verify that all

components and ordered parts have been received. If any purchased items are missing please contact your

Sales Representative at 1-800-346-3117, 585-381-4740 or [email protected]. Utilize the Shipped

Configuration List to identify which drawings and diagrams refer to the specific unit ordered.

Next, set up the chassis on either a bench or rack. The front handles allow the unit to be bolted to a standard

19 inch rack. No special setup tools are needed.

For AC powered units, a Power Cord should be included in the box. Plug one end into the chassis and the

other into a three prong commercial AC outlet. The unit will operate from one of two AC voltage ranges:

100/140 or 200/260. There is a voltage selector fuse block built into the AC input module just below the

plug. The power supply on AC units may or may not be auto-ranging. It is important to set the correct Input

Voltage on the AC input module so that the system is fused correctly. See Section 3.3 below for more

information on setting the voltage.

For DC powered units connect the supplied power cable to the DC Power Distribution Chassis. The

appropriate voltages required will be supplied from this chassis, which has auto-ranging redundant power

supplies.

Install the appropriate remote control cable to the controlling computer: IEEE488, RS232 or UTP Ethernet.

Ethernet Control is optional and may not be included with your unit. This cable is typically not provided by

Cytec.

Turn the unit ON via the toggle switch located on the AC Input Module located at the chassis rear, or for DC

units turn the power on at the DC Power Chassis. The front panel Power LED should illuminate. If the

optional MC-2 Keypad Manual Control has been purchased, the LCD will display “CYTEC Corp. Ready”.

Study the sections of this manual which deal with your control interface (IEEE488, RS232, etc.), as well as

the controlling command syntax. A group of programming examples are included in appendices at the end

of the manual and provide a good structure to work from. Example driver programs may be included on a

disc if requested. Drivers can also be downloaded from Cytec’s web site at: http://www.cytec-

ate.com/support

You should now be able to begin writing useful code. Always write and debug code thoroughly before

hooking up live signals to the matrix! This equipment gives you full control over what is switched to

where and will not prevent you from making potentially harmful connections. That is, nothing in the system

prevents the switching of excessive power, which can damage or destroy the relay contacts or digital

switches.

2.1 SHIPPED CONFIGURATION

Chassis Type: Drwg.#__________

Serial Number:

Configuration:

Power Supply: Drwg.#__________

AC: 110V 220V Selectable Auto-Ranging

Fuse: 0.5 A 1.0 A 2.0 A 3.0 A Other: ___________

Manual Control: Keypad Pushbutton Thumbwheel None

Remote Control: Drwg.#__________

Switch Modules Qty: Drwg.#__________







Signal I/O Module Drwg.#__________

Miscellaneous Module Qty: Drwg.#__________

Miscellaneous Module Qty: Drwg.#__________

3.0 GENERAL

The CXAR Series are Computer Controlled Coaxial Switching Systems designed to be used for 50 or 75 ohm signals. These systems can switch signals ranging from DC to 1.6 GHz, depending on the type of switch modules installed in the chassis (See Section 4.0).

3.1 CHASSIS DESCRIPTION

The CXAR/64 and CXAR/128 include both Mainframe and Expansion chassis. A Mainframe is a single stand alone chassis which may be controlled either remotely via computer or locally via the optional Thumbwheel Manual Control (See Section 3.4.3) or LCD Keypad Manual Control (See Section 3.4.2). One or more Expansion Chassis can be controlled only from a dedicated MESA control chassis.

Refer to the “Shipped Configuration” sheet to determine which of the chassis assembly drawings pertains to the system purchased. This assembly drawing will include the placement and locations of the various modules.

3.1.1 CXAR/64 and CXAR/128 MAINFRAME CHASSIS

A typical CXAR/64 Mainframe can be seen in Drwg. #21-19-00, and a CXAR/128 Mainframe can be seen in Drwg. #21-17-00. The Mainframe is a 19" rack mounting chassis, 15" deep. Chassis height is determined by switch module selection and configuration but is typically either 5.25" or 7.0".

The CXAR Mainframe chassis contains:

(1) CL/128 Motherboard (Section 3.4.2)

(up to 16) CL8 display/driver modules (Section 3.4.2)

(up to) 16 Coaxial Switch Modules (Section 4.0)

(1) Control Module (Section 5.0)

(1) 12 Volt Power Supply (Section 3.3)

(1) 5 Volt Power Supply (Section 3.3)

3.1.2 CXAR/64 and CXAR/128 EXPANSION CHASSIS

An Expansion Chassis differs from the Mainframe in that it can not operate as a stand alone device and must be controlled remotely from a MESA. An example CXAR/64 Expansion chassis can be seen in Drwg. #21-20-00, and a CXAR/128 Expansion can be seen in Drwg. #21-18-00. Similar to the mainframe, the Expansion Chassis is also a 19" rack mounting chassis, 15" deep. Chassis height is determined by switch module selection and configuration but is typically 5.25" or 7.0".

The CXAR Expansion Chassis contains the same components as the CXAR Mainframe with the following exceptions:

The control module is replaced by the Expansion Interface Adaptor Module Drwg. #16-00-50.

There are no dedicated +5V and +12V power supplies. Instead power is supplied by the MESA.

For Expansion Chassis, control signals originate in the MESA Control Mainframe. These signals are routed from the MESA via the supplied Ribbon Expansion Cable to the Interface Connector located on the chassis’ rear panel. The Interface Connector in turn wires to Expansion Interface Adaptor Module located inside the chassis. The Expansion Interface Adaptor Module plugs into the motherboard, serving the same function as a Control Module (See Section 5.0).

3.2 SPECIFICATIONS

Dimensions: 19" Rack Mounting x 5.25", 7", or 8.75" High x 15" Deep

Weight: Maximum weight with full complement of modules less than 25 lbs.

Power: Less than 100 W @ 100-130 Vac or@ 200-260 Vac

Environment:

Operating: 0C to 50C @ 95% Relative Humidity

Storage: -25C to 65C @ 95% Relative Humidity

Capacity: Standard up to 16 Switch Modules

Expansion Capacity: Up to 16 Expansion Units with one MESA Unit

Display: One Power LED and up to 128 Drive Status LED’s

Control Mode: IEEE488 and RS232 standard; Ethernet TCP/IP as an option

3.3 POWER SUPPLY

The CXAR/64 and CXAR/128 Mainframe Chassis utilize two power supplies, one with a regulated +12 volt output for driving the relays and one with a regulated +5 volt output for the logic as shown in Drwg.#2-190-5B.

The CXAR/64 and CXAR/128 Expansion Chassis do not contain any power supplies. For Expansion Chassis, the +5 volts for the logic and the +12 volts for activating the relays are normally supplied from the MESA Controller via the Expansion Interface Module as shown in Drwg. #16-00-50.

The supplies are wired to the Selectable AC Input Module on the rear panel, which also holds the chassis’s ON/OFF Switch. The user can select one of two AC voltage ranges: 110/120 Volts or 220/240 volts AC. The power supplies will operate from 100-140 volts or 200-260 volts at 47-63 Hz. To change the selected voltage, remove the fuse cartridge using a small blade screw driver or a similar tool. Select the desired voltage by matching the arrow on the fuse cartridge to the arrow located on the Input Module’s lower right corner. Replace the fuse cartridge making sure the voltage selection arrow aligns with the arrow located on the Input Module.

Two fuses are held in the fuse cartridge, with 220/240 VAC fused separately from 110/120 VAC. See the “Shipped Configuration” section for fuse sizes.

3.4 FRONT PANEL

The front panels of the CXAR/64 and CXAR/128 have a power LED, up to 128 display LED’s (8 LED’s per CL8) and an optional thumbwheel or LCD manual control.

3.4.1 LABELING AND PROGRAMMATIC REFERENCES

The Front Panel of the CXAR/64 or CXAR/128 chassis is typically labeled to match the chassis’ built-in

switching configuration. Each switch point is assigned a single front panel status LED. Each column of

LED’s represents a logical switch module, and each LED in that column represents a single specific switch

within that module. The LED’s are visible through the panel.

Programmatically, any command references one switch point and its corresponding LED directly.

Commands are of the form: Command, Module, Switch, where:

Command - One letter mnemonic indicating function to be performed (L for Latch, U for

Unlatch, etc.)

Module - An integer specifying the logical module being address. Matches front panel configuration. (

0 - 15 for a 16x8 Matrix, 0 - 31 for a 32x4 matrix, etc.)

Switch - An integer that specifies logical switch being addressed. Also matches front panel labeling

and chassis configuration. (0 - 7 for 16x8 matrix, 0 - 3 for 32x4 matrix, etc.)

Examples:

16(8x1) Independent Multiplexers - “L 0 7"- Latches Module 0, Switch 7

“U 15 0" - Unlatches Module 15, Switch 0

See Section 5.0 for complete programming information.

Note that the Latch command causes the assigned front panel LED to illuminate, indicating that the switch

has been closed. Similarly, the Unlatch command will extinguish a LED if it is already illuminated

(indicating a closed switch has been opened).

3.4.2 CP8 LATCHING/DISPLAY MODULE

The CP8 Module (Drwg. #13-08-50) interfaces between the control bus on the CL/64, 128 & 256

Motherboard and the switch modules. The CP8 includes the logic to select and latch up to eight relays in

either Matrix or Multiplex modes. The output driver has diode suppression and energizes the relay coil via

an LED in parallel with the coil to give a positive indication that the relay is energized.

Additional logic checks whether the relay is energized and returns its Status to the computer.

Matrix/Multiplex Modes

There are two basic modes of operating the modules, either as a Matrix where any number of switches can

be latched, or as a Multiplexer where one and only one switch is latched.

Status Mode

A switch point is addressed for Status return the same way as it is addressed for any other operation (for

example, a Latch). If the switch is energized, a Status of "1" is returned. If de-energized, a "0" is returned.

CL/64, 128 & 256 MOTHERBOARD

This motherboard has 16 slots for the CP8 Latching/Display Modules and one slot for the Control Module,

as shown in Drwg. #12-01-50.

Power, consisting of regulated +12 volts for the relays, +5 volts regulated for the logic and ground, is bussed

to all the module slots. Also bussed to all the CP8 Module slots are the mode controls, which include

Latch/Unlatch, Matrix/Multiplex, Switch Strobe, Status Strobe and Status return.


The Optional Thumbwheel Manual Controls are used in older 11" deep chassis. They are located on the

front panel and are wired as shown on Drwg. #2-073. The controls wire out via a 16 pin DIP connector

which mates with the socket located on the control module.

Local/Remote

There are two front panel LEDs: a green LED marked Remote and a red LED marked Local. When the

>Local= LED is lit, the unit can be operated from the manual controls. When the >Remote= LED is lit, the unit

can only be operated via computer control.

Switch Select

This consists of two thumbwheel switches. The left thumbwheel selects the module and the right hand

thumbwheel selects the switch on that module. For example, a setting of 23 selects switch #3 on module #2,

however, the switch is not energized until after the selection has been Strobed. On the CXM/8x8, the two

thumbwheels select input and output.

Latch/Unlatch

With this control in the Latch position, the switch selected is latched (closed). In the Unlatch position, the

switch selected is unlatched (opened). Switching this control from Latch to Unlatch does not disturb the

status of the matrix, until the strobe button is pushed.

Mtx/Mux

With this switch in the MTX position, any number of switch points can be latched at the same time. In the

MUX position, only one switch point can be latched at any time. Switching between these two positions

does not change the status of the matrix. For example, if the matrix was in the MTX mode and eight

switches were closed, then after switching from MTX to MUX, the eight switches will remain closed until

the Strobe pushbutton is pushed. This will then clear all switches except the one selected by the

thumbwheels.

Strobe

This is a pushbutton which sends the necessary strobe pulse to the matrix to complete the switch and mode

selection indicated by the manual controls.

Clear

There is no single front panel button for clearing the matrix by opening all the switches. Clearing is

achieved by putting the MTX/MUX switch in the MUX position, the Latch/Unlatch switch in the Unlatch

position and then pressing the Strobe pushbutton. This sequence of required operations prevents the unit

from being cleared accidentally.

3.4.4 LCD DISPLAY/KEYPAD MANUAL CONTROL OPTION

The keypad/display option (Drwg.#6-057) supplies manual control from the chassis front panel. Keypad

operation is always enabled at power On but may be disabled by the remote command, >F= (See Section 5.4).

Display

The display shows two lines with sixteen characters per line. The top line displays matrix commands and

numeric entry. The bottom line displays the status of the entry or operation. The display will also show the

last command entered from the remote computer interface when the front panel is enabled.

Keypad

The keypad consists of ten numeric keys, four function keys, a space key and an enter key.

Key Function

0-9 Numeric entries.

space Delimits between numeric entries.

L Latch operation.

U Unlatch operation.

X Multiplex operation.

C Clear operation.

ENTR Execute displayed operation.

Operation

A matrix command key, L, U, X or C, MUST be pressed before numeric keys. Pressing any key except a

matrix command key causes the message Enter Cmd First to be displayed. After pressing a matrix

command key the command and a cursor are displayed. The switchpoint to be operated on may now be

entered with the numeric and space keys. The entry format is the same as described in the MATRIX

OPERATION section and described briefly by the following table:

Command Key Display Line 1 Line 2

L Lat _ Enter Point

U Unl _ Enter Point

X Mux _ Enter Point

C Clr _ Enter Matrix

The numeric keypad now allows selection of the Matrix, Module and Relay to be operated on. Each entry

may be multiple digits and a space must be pressed between selections.

Key Line 1 Line 2

L Lat _ Enter Point

1 Lat 1_

space Lat 1 _

2 Lat 1 2_

3 Lat 1 23_

space Lat 1 23 _

4 Lat 1 23 4_

Number of Entries Leftmost Entry 2nd Entry Rightmost Entry

1 Relay - -

2 Module Relay -

3 Matrix Module Relay

The ENTR key may now be pressed to execute the displayed operation. If the displayed entry is incorrect

or the operation is not desired, pressing any matrix command key will clear the display and restart the entry.

Status Display

After the ENTR key is pressed, the displayed operation is attempted to be executed by the control module.

If the execution is successful, a Point Closed or Point Open message will be displayed on line 2. If the

operation cannot be executed, an error message will be displayed.

Line 2 Message Status

Ready Displayed after power on.

Enter Point The ENTR key has not been pressed, command and selection mode.

Point Closed The selected point was closed.

Point Open The selected point was opened.

Points Open All points opened, Clear operation.

***Err: limits The selected point is outside the programmed size of the matrix.

***Err: entry An incorrect entry was selected.

Front Panel Disable

The remote >F= command allows enabling or disabling front panel operation. If the front panel is disabled,

no operation can be performed from the keypad.

Remote Command Line 1 Line 2

F 0 73 Panel Disabled

F 1 73 Panel Enabled

Contrast and LED Backlight Adjustment

Controls are provided to adjust the LCD contrast and LED backlight level. These controls should need

adjustment only in extremely bright or dim environments or for acute viewing angles. Both LCD and LED

circuits have temperature sensing elements that will automatically adjust the output level for changes in the

ambient temperature.


The Optional Thumbwheel Manual Controls are located on the front panel and are wired as shown on Drwg.

#2-073. The controls wire out via a 16 pin DIP connector which mates with the socket located on the

control module.

Local/Remote

There are two front panel LEDs: a green LED marked Remote and a red LED marked Local. When the

Local= LED is lit, the unit can be operated from the manual controls. When the Remote= LED is lit, the unit

can only be operated via computer control.

Switch Select

This consists of two thumbwheel switches. The left thumbwheel selects the module and the right hand

thumbwheel selects the switch on that module. For example, a setting of 23 selects switch #3 on module #2,

however, the switch is not energized until after the selection has been Strobed. (On the CXM/8x8, the two

thumb wheels select input and output.)

Latch/Unlatch

With this control in the Latch position, the switch selected is latched (closed). In the Unlatch position, the

switch selected is unlatched (opened). Switching this control from Latch to Unlatch does not disturb the

status of the matrix, until the strobe button is pushed.

Mtx/Mux

With this switch in the MTX position, any number of switch points can be latched at the same time. In the

MUX position, only one switch point can be latched at any time. Switching between these two positions

does not change the status of the matrix. For example, if the matrix was in the MTX mode and eight

switches were closed, then after switching from MTX to MUX, the eight switches will remain closed until

the Strobe pushbutton is pushed. This will then clear all switches except the one selected by the thumb

wheels.

Strobe

This is a pushbutton which sends the necessary strobe pulse to the matrix to complete the switch and mode

selection indicated by the manual controls.

Clear

There is no single front panel button for clearing the matrix by opening all the switches. Clearing is

achieved by putting the MTX/MUX switch in the MUX position, the Latch/Unlatch switch in the Unlatch

position and then pressing the Strobe pushbutton. This sequence of required operations prevents the unit

from being cleared accidentally.

4.0 CXR SWITCH MODULES

4.1 CXR/8x1-G-50, CXR/4x1-G-50, CXR/8x1-G-75 and CXR/4x1-G-75

Each CXR/8x1-G-50 module (Drwg.#30-17-50) and CXR/8x1-G-75 module (Drwg.#30-18-50) has seven single pole Form C relays arranged as an 8x1 tree switch multiplexer. The characteristic impedance is either 50 or 75 ohms. These modules are used in high frequency applications, up to approximately 1 GHz. and can be built with BNC, SMA or SMB connectors. The following table illustrates common specifications for the switch module:

CXR/8x1-G-50 and CXR/4x1-G-50 (50 Ohm Modules)

Bandpass (with SMA connectors): 1.6 GHz (-3 dB)

Isolation (with BNC or SMA connectors): -50 dB @ 1 GHz

Bandpass (with BNC connectors): 1.0 GHz (-3 dB)

CXR/8x1-G-75 and CXR/4x1-G-75 (75 Ohm Modules)

Bandpass (with SMB or BNC connectors): 1.2 GHz (-3 dB)

Isolation (with SMB or BNC connectors): -60 dB @ 1 GHz

Channel #0 is Normally Closed and is connected to the Common when the module is unenergized or when Drive #0 is latched. Channels #1 through #7 individually connect to Common when latched. Two (or more) channels can never be connected simultaneously. The relay control tables on the drawings indicate which relays are energized when a specific channel is latched (closed). Diodes on the modules or drive adaptor board ensure that the proper relays are selected for each channel. This module is available with SMA or BNC connectors, and it may be cut for 4x1 operation.

The format for the CXR/8x1-G Switch Module part number is:

CXR/8x1-G-Impedance-Connector

Impedance- Indicates 50 ohms (-50) or 75 ohms (-75) Characteristic Impedance

Connector- Indicates BNC (-N), SMA (-SMA) or SMB (-SMB) Signal Connectors

Example: The CXR/8x1-G-50-N has a characteristic impedance of 50 ohms and is built with BNC connectors.

4.2 CXR/8x1-GT-50, CXR/4x1-GT-50, CXR/8x1-GT-75 and CXR/4x1-GT-75

Both the CXR/8x1-GT-50 (Drwg. #30-29-50) and the CXR/8x1-GT-75 (Drwg. #30-19-50) are built with

nine single pole and three double pole, high frequency Form C relays arranged as an 8x1 tree switch

multiplexer. The characteristic impedance is either 50 or 75 ohms. These modules have a Form C relay at

each input that connects unlatched channels to terminating resistors. There is no normally closed path. The

following switch module specifications are typical:

CXR/8x1-GT-50 and CXR/4x1-GT-50 (50 Ohm Modules)

Bandpass (with SMA connectors): 1.5 GHz (-3 dB)

Isolation (with BNC or SMA connectors): -60 dB @ 1 GHz

Bandpass (with BNC connectors): 1.0 GHz (-3 dB)

CXR/8x1-GT-75 and CXR/4x1-GT-75 (75 Ohm Modules)

Bandpass (with SMB or BNC connectors): 1.0 GHz (-3 dB)

Isolation (with SMB or BNC connectors): -60 dB @ 1 GHz

Channels #0 through #7 individually connect to the common when energized. Two (or more) channels can

never be connected simultaneously. The relay control tables on the drawings show which relays are

energized when a specific channel is latched (closed). Diode logic on the modules ensures that the proper

relays are selected for each channel. This module is available with SMA, SMB or BNC connectors, and it

may be cut for 4x1 operations.

The part number format for CXR/8x1-GT Switch Modules is:

CXR/8x1-GT-Impedance-Connector

Impedance- Indicates 50 ohms (-50) or 75 ohms (-75) Characteristic Impedance

Connector- Indicates BNC (-N), SMA (-SMA) or SMB (-SMB) Signal Connectors

Example: The CXR/8x1-GT-50-N has a characteristic impedance of 50 ohms and is built with BNC

connectors.

4.3 CXR/8x1-2A-N and CXR/8x1-2A-TBNC

The CXR/8x1-2A switch modules have nine I/O connectors, eight inputs and one common, and are built

with either BNCs or Twin BNCS. The modules use double pole relays that switch both conductors of the

coaxial connectors as shown in Drwg #21-02-50.

When using Twin BNCs, the two inner conductors are switched and the connector shields are bussed to

ground. When BNC connectors are used, both the inner conductor and the shield are switched.

Two additional isolation relays switch the conductors of the COM connector. The isolation relays, K8 and

K9, are open until one of the two pole relays is energized. These modules are typically used to switch

balanced line 100 ohm differential pairs, and may be cut for 4x1 configurations.

4.4 CXR/2x1-FORM A-1 and CXR/2x1-FORM A-2

The CXR/2x1-FORM A module (Drwg.#2-101-1) consists of two Form A single or double pole relays which switch the common connector between either A, B, or OFF. The A Channel is jumper selectable to be driven as channel 0, 2, 4 or 6 while the B channel may be driven from channels 1, 3, 5 or 7. The following table illustrates common switch module specifications:

CXR/2x1-FORM A-1 and CXR/2x1-FORM A-2

Bandpass: 400 MHz (-3dB)

Crosstalk: -60dB @ 5 MHz

The CXR/2x1 is available in single or double pole configurations with standard dry or mercury wetted reeds. The part number format for the CXR/2x1-FORM A Switch Module is:

CXR/2x1-FORM A-#PolesRelayType-Connector Type

These switch modules are built with one of three different relay types, where:

#Poles- Is either 1 or 2.

RelayType- Indicates Standard Dry (-S) or Mercury (-M).

ConnectorType- Indicates BNC (-N), 3 Pin Headers (-H), Twin BNC (-TBNC) or

SMA (-SMA).

Example: A CXR/2x1-FORM A-2S-N is built with double pole Standard Dry Reed Relays and BNC connectors.

Modules built with single pole relays may have either BNC with grounded shields, SMA, or

3 Pin Headers.

Modules built with double pole relays may have either BNC with isolated shields, Twin BNC, or 3 Pin Headers.

4.5 CXR/2x1-C2

The CXR/2x1-C2 module, Drwg#21-00-50, has one Form C relay. The connector labeled NC is connected to the common when the module is in the un-energized state. When the module is latched, the connector labeled NO is connected to the common. The CXR/2x1-C2 is jumper selectable to be driven from one of eight channels allowing up to eight separate CXR/2x1-C2 modules to be driven from a single eight channel driver module. The CXR/2x1-C2 module is 50 Ohm and available with BNC or Twin-BNC or 3-pin header connectors.

4.6 CXR/8x1-1S, CXR/4x1-1S, CXR/8x1-1T and CXR/4x1-1T

The CXR/8x1-1S (Drwg.#21-14-51) and CXR/4x1-1S (Drwg.#21-14-53) Switch Modules function as

single pole 8x1 and 4x1 multiplexers. These modules have Single Pole Form A Dry Reed Relays located at

each input. Form A Relays typically have superior isolation when compared to their Form C counterparts.

Connector options are limited to either 50 or 75 ohm BNC connectors.

The CXR/8-1T (Drwg.#21-14-50) and CXR/4-1T (Drwg.#21-14-52) function the same as the two switch

modules mentioned above, however these switch modules have Form C relays on each input so that unused

inputs are terminated through resistors. Connector options are limited to either 50 or 75 ohm BNC

connectors. Both styles have isolation relays at the Common connector to improve bandpass. These switch

modules may be built with either 50, 75 or 1K ohm terminating resistors. The part number format for the

CXR/8x1-1T Switch Modules is:

CXR/8x1-1T-Termination Impedance

Termination Impedance- Indicates 50 ohms (-50), 75 ohms (-75) or 1000 ohms (-1K)

Example: The CXR/8x1-1T-50 is a CXR/8x1-1T built with 50 ohm terminating resistors.

The part number format of the CXR/4x1-1T Switch Modules is the same as the CXR/8x1-1T Switch Modules.

4.7 CXR/8x1-1HT, CXR/4x1-1HT, CXR/8x1-1HS and CXR/4x1-1HS

The CXR/8x1-1HT and CXR/4x1-1HT Switch Modules are built with eight (or four) single pole Form C

relays on the inputs. In the unenergized state, the inputs are connected to terminating impedances of 50, 75

or 1K ohms. A second set of eight (or four) Form C relays make up the Isolation Relays, and in the

unenergized state these relays connect the input Form C relay Normally Open contact to ground. This shorts

any leakage from the input Form C relay to ground and gives complete isolation to the output. When the

relays are energized, the terminating impedance is disconnected and the input is switched through to the

isolation relay which is connected to the output. Drwg. #21-24-50 (was #2-444-2) shows the Switch

Module in the un-energized state. Connector options are limited to either 50 or 75 ohm BNC connectors.

These switch modules may be built with either 50, 75 or 1K ohm terminating resistors. The part number

format for the CXR/8x1-1T Switch Modules is:

CXR/8x1-1HT-Termination Impedance

Termination Impedance- Indicates 50 ohms (-50), 75 ohms (-75) or 1 kOhm (-1K)

Example: The CXR/8x1-1HT-50 is a CXR/8x1-1HT built with 50 ohm terminating resistors.

The part number format for the CXR/4x1-1HT Switch Modules is the same as the CXR/8x1-1HT Switch

Modules.

The CXR/8x1-1HS and CXR/4x1-1HS Switch Modules are similar to the CXR/8x1-1HS and CXR/4x1-

1HS counterparts. However, eight (or four) single pole Form A relays are placed on the inputs instead of

Form C relays, In the unenergized state, the inputs are connected to ground and not a terminating resistor.

Form A Relays typically have superior isolation compared to their Form C counterparts.

4.8 CXR/2x1 SWITCH MODULES

The CXR/2x1 Series Switch Modules (Drwg.#30-25-50, 30-10-50 & 30-31-50) are built with passive reed

relays. Both single and two pole switch modules are available and they can be built with Type S Standard

Dry. The modules are bidirectional, and input and output connectors can be swapped as needed. The

CXR/2x1 jumper selectable to be driven from one of eight channels. Connectors are BNC, SMA or SMB,

and F for the 30-31-10.

#30-25-10 is a 50 Ohm Module.

#30-10-10 is a 75 Ohm Module.

#30-31-10 is a 75 Ohm Module with F connectors.

Common specifications when used as individual switch modules are:

CXR/2x1

Bandpass: 400 MHz (-3dB)

Isolation: -60dB @ 5 MHz

The CXR/2x1-G Switch Module part number format is:

CXR/2x1-#PolesRelayType-BNC

#Poles Specifies One (-1) or Two (-2) Poles Switched

Connector Type- Indicates BNC (-N), 3 Pin Headers (-H), Twin BNC (-TBNC) or

SMA (-SMA).

Example: The CXR/2x1-BNC is a two pole switch built with BNC connectors.

4.9 CXR/2x1-GT-50 and CXR/2x1-GT-75

The CXR/2x1-GT-50, Drwg#21-01-50, and the CXR/2x1-GT-75, Drwg#30-30-50, terminated switch

modules have two Form C coaxial relays. The following table illustrates common switch module

specifications:

CXR/2x1-GT-50 (50 Ohm Modules)

Bandpass (with SMA, SMB or BNC connectors): 2 GHz (-3dB)

Isolation (with SMA, SMB or BNC connectors): -50dB @ 1GHz

CXR/2x1-GT-75 (75 Ohm Modules)

Bandpass (with SMB or BNC connectors): 1.5 GHz (-3dB)

Isolation (with SMB or BNC connectors): -50dB @ 1.6GHz

The connectors labeled A and B are terminated into 50 ohms or 75 ohms when the module is in the

unenergized state. The CXR/2x1-G is jumper selectable to be driven from two of eight drive channels. The

CXR/2x1-GT is jumper selectable to be driven from two of eight channels. Depending on the jumper

settings, connector A is connected to COM when an even numbered drive is energized, and or connector B

is connected to COM when an odd numbered drive is energized. Refer to Drwg#21-01-50 for exact jumper

configuration. This module is available with SMA or BNC connectors.

The CXR/2x1-GT Switch Modules part number format is:

CXR/2x1-GT-Relay Impedance-Connector Type

Impedance- (-50) indicates 50 ohms or (-75) indicates 75 ohms

Connector Type- Indicates BNC (-N), SMA (-SMA) or SMB (-SMB).

Example: A CXR/2x1-GT-75-N has a characteristic impedance of 75 ohms and is built with BNC

connectors.

4.10 CXR/4x2-G

The CXG/4x2-1G module is built with ten single pole, high frequency Form C relays arranged as a 4x2 tree

switch as shown in Drwg.#30-21-50 (50 Ohm Module) and Drwg#30-22-50 (75 Ohm Module). The

following table illustrates common specifications:

CXR/4x2-G-50 (50 Ohm Module)

Bandpass (with SMA connectors): 2.1 GHz (-3dB)

Isolation (with SMA connectors): -60dB @ 2 GHz

CXR/4x2-G-75 (75 Ohm Module)

Bandpass (with SMB or BNC connectors): 1 GHz (-3dB)

Isolation (with SMB or BNC connectors): -60dB @ 1 GHz

Any of four inputs can individually be connected to either of two outputs. Input #0 is connected to Output

#0 when no channel is latched or when Channel 0,5, 6, or 7 is latched. Latching any other channel will

break the Input #0 to Output #0 connection. The table below shows which input/output pair is selected

when a specific drive is energized.

Channel Input Output

0 0 0

1 1 0

2 2 0

3 3 0

4 0 1

5 1 1

6 2 1

7 3 1

No input can be simultaneously latched to both outputs; however, it is possible to close two separate parallel

switch paths. This module is available with 50 or 75 ohm relays and SMA, SMB or BNC connectors.

The CXR/4x2-G Switch Modules part number format is:

CXR/4x2-G-Relay Impedance-Connector Type

Relay Impedance- (-50) indicates 50 ohms or (-75) indicates 75 ohms

Connector Type- Indicates BNC (-N), SMA (-SMA) or SMB (-SMB).

Example: A CXR/4x2-G-50-SMA has a characteristic impedance of 50 ohms and is built with SMA

connectors.

4.11 CXR/2(4x1)-1P-LL

The CXR/2(4x1)-1P-LL Switch Module, Drwg. #21-13-50, is intended for high insulation resistance

measurements or the switching of low currents, down to Femtoamps. The module is built with shielded, low

leakage relays, and all signal lines have Faraday Shields. The dual output Commons utilizes isolation relays

to further minimize leakage. The two Commons also allow multiple switch modules to be interconnected to

supply larger Nx1 multiplexers. Connector options are BNC (CXR/2(4x1)-1P-LL-BNC) or Triax

(CXR/2(4x1)-1P-LL-TRIAX). Jumper positions provide for Grounded Guard, Isolated Guard or Driven

Guard, as specified by the end user.

APPLICATIONS:

High Speed Driven Guard Testing – In this application, the outer conductor of the BNC or inner

concentric conductor of the Triax connector are driven to the test voltage to reduce the charge time on the

capacitance of the coaxial cable and thereby reduce leakage from signal to shield. For these applications, the

relay EMI shield is jumpered to ground, the Faraday shield is connected to the outer BNC or inner

concentric Triax conductor, and the outer conductor of the Triax is taken to chassis ground.

If using BNC connectors in a driven guard application, it is critical to remember that there will be

exposed voltages on the back of the chassis that could cause severe injury.

Low Noise – Recommended connector is Triax. The inner conductor is used to switch signals. The inner

concentric conductor of the Triax connector is isolated from both signal and CYTEC chassis ground. This

isolated conductor should only be tied to ground at a single point (usually common to the signal source) and

provides a shield from ground loop currents. The inner concentric is tied common across all of the switch

module connectors. The outer concentric conductor of the triax is tied to chassis ground everywhere

possible. This should be as low a noise and as high quality, a ground as possible. The switch module

Faraday shield and relay EMI shield should all be jumpered to chassis ground.

JUMPERING OPTIONS:

Relay EMI shield – A foil shield protects the relay contacts from noise generated in the relay drive coil. In

almost all applications this shield should be jumpered to chassis ground. Jumper holes are provided which

would allow this shield to be jumpered to the Faraday shield should test data prove this to be a better option

in rare cases.

Relay commons – Two relay commons are provided on each switch module. When left isolated, the

module operates as two separate 4x1 multiplexers. When jumpered together, the module is a single 8x1

multiplexer with dual commons which allows, multiple module to be cabled together to form larger

multiplexers.

Faraday Shield – A Faraday shield is provided on the switch module, mainly for driven guard applications,

but it may be used for other situations where an isolated shield is beneficial. If the isolated guard from the

BNC outer conductor or Triax inner concentric is left unconnected from the Faraday shield, the Faraday

shield should be taken to chassis (earth) ground. There are two holes on the top of the Faraday module

cover near the connectors. 3/4" long #4 screws may be screwed into these holes to connect the faraday

shield to earth ground. A set of screws should have been provided with the chassis. The module will need

to be removed from the chassis to install these screws.

4.12 CXAR SWITCH MODULE SPECIFICATIONS

4.13 COAXIAL BUS STRIPS

The Coaxial Bus Strips are used to interconnect the Common connectors of CXAR Coaxial Switch Modules, thereby creating larger multiplexers. The Coaxial Bus Strips are designed for maximum bandpass and minimum stub length.

The bus strips are available in the following five sizes :

CXBS/2 (2x1 Bus Bar) Drwg. #14-02-29





CXBS/8 Bus Bar shown in Drawing Below

NOTE- The Coaxial Bus Strips can not be used with Type G Switch Modules.

4.14 CXR/2x1-C-GT-75

The CXR/2x1-C-GT-75 terminated switch module, Drwg#30-30-50, have three Form C coaxial relays. The

following table illustrates common switch module specifications:

CXR/2x1-C-GT-75 (75 Ohm Modules) Bandpass (with SMB or BNC connectors): 1.4 GHz (-3dB)

Isolation (with SMB or BNC connectors): -60dB @ 1GHz

The connectors labeled NO and NC are terminated into 75 ohms. The CXR/2x1-C-GT is jumper selectable

to be driven from one of eight channels. Refer to Drwg#30-30-50 for exact jumper configuration. This

module is available with SMB or BNC connectors.

The CXR/2x1-C-GT Switch Modules part number format is:

CXR/2x1-C-GT-Relay Impedance-Connector Type Connector Type- Indicates BNC (-N), or SMB (-SMB).

Example: A CXR/2x1-C-GT-75-N has a characteristic impedance of 75 ohms and is built with BNC

connectors.

5.0 IF-11 GPIB / RS232 / LAN CONTROL MODULE

Contents 5.0 Introduction

5.1 RS232 INTERFACE

5.1.1 RS232 INTERFACE I/O CONFIGURATION

5.2 IEEE488 INTERFACE

5.2.1 IEEE488 INTERFACE TALK/LISTEN ADDRESS

5.2.2 IEEE488.2 SPECIFIC MATRIX COMMANDS

5.3 LAN INTERFACE

5.4 COMMAND FORMAT

5.4.1 End of Line Character ( EOL )

5.5 SWITCH COMMANDS

5.5.1 DELAYS TO PREVENT ERRORS

5.5.2 ANSWERBACK CHARACTER

5.5.3 SWITCH CONTROL COMMANDS

5.5.4 STATUS COMMANDS

5.5.4.1 Systems with 8 to 32 relays drives possible.

5.5.4.2 Systems with 64 to 512 relay drives possible.

5.5.4.3 RJV systems which are unique.

5.5.4.4 Large Matrix systems with over 512 switch points or solid state matrix systems.

5.5.5 INTERROGATE COMMAND

5.6 INPUT / OUTPUT vs MODULE / SWITCH NOMENCLATURE

5.7 MATRIX COMMAND SUMMARY

5.8 IF-9 / IF-11 (RS232/LAN/GPIB) DEFAULT CONFIGURATION SETTINGS

5.9 LCD DISPLAY/KEYPAD MANUAL CONTROL OPTION

APPENDIX B - QBASIC Program Example for RS232

APPENDIX C - Turbo C Program Example for IEEE488

APPENDIX E – C Program Example for LAN

APPENDIX F – Support Links

Cautions: 1) Cytec allows the user complete control over the switches and there is nothing built into the firmware

that prevents you from connecting things that shouldn’t be connected. You should always become

familiar with the switch and test your code without any live signals connected! Systems that switch

high voltage, high current, power supplies or high frequency signals are especially dangerous

since connecting the wrong things can result in damage to the switch, damage to other pieces of

expensive equipment, or personal injury to you or others!

2) Microwave relay systems present a particular problem since they will often allow you to turn on

more than one channel on a specific multi-port relay. In normal use, this would create a problem

since the relay would no longer maintain characteristic impedance, and the user would most likely

notice. But when testing the system or running code without signals connected this will not be

obvious and no warning will be issued. Many microwave relays will overheat and be damaged if

multiple ports on a single relay are turned on at once. Under certain circumstances this can

happen as quickly as 60 seconds. Please gain an understanding of your system before simply turning

switch points on and off!

Introduction

CYTEC's IF-11 RS232/LAN Control Module, Drwg. #11-14-50, is designed to control single chassis

mainframes. Three forms of control are available on the module: IEEE488 ( GPIB ), RS232 and Ethernet

LAN as well as an optional manual control. All four interfaces may be active and used simultaneously.

Interface options: GPIB, RS232 and LAN are standard but the Manual Control must be specified when

purchasing the system. On some systems where panel space is limited, only two of the three interface

connectors may be included.

Non-volatile RAM

The control module contains non-volatile memory allowing the system to be configured for various matrix

addressing combinations. Interface controls for Baud Rate, Answerback, Echo, Verbose, TCP/IP, Netmask

and Port numbers are also saved in this memory allowing these functions to be set-up once and then be

restored every time the power is turned on.

Memory Sanitation Procedure

This control module includes a RCM6700 core module which contains volatile and non-volatile RAM. No user

information other than switch configurations and interface settings are stored. If the system is ever removed

from service or needs to be sanitized for disposal all Volatile and Non-Volatile RAM can be erased using one of

the following methods. Refer to Drwg # 11-14-10.

1) Easiest with least damage. Remove cover. Locate IF-11, install Jumper JP1 across the pins. Cycle the

power. All memory will be erased and the system will be set to factory default values. Remove Jumper JP1 and

offset. System can be reset to user values when needed.

2) Permanent. Remove cove. Locate IF-11. Remove the RMC6700 core board by disconnecting the LAN

cable and prying the module off the IF-11 board. Destroy the RMC6700 board. Unit is non functional until

IF-11 has been replaced.

Basic Command Syntax

All commands are composed of alpha characters followed by a series of integer values separated by a white

space character. The alpha characters are not case sensitive and will accept whitespace or no whitespace

between the alpha characters and the first integer value.

There are two types of commands:

1) Set-up and Parameter commands which are used to establish control options and configuration set-

ups. Typically, the set-up and parameter commands are only used when you first get the system and

then the switch control commands are used to operate the switch. Some examples include P

commands for system parameters, snet commands for LAN set-up and E command for turning

RS232 Echo on and off. The integer value 73 is often used as an access control value on set-up

commands to prevent inadvertent or unintentional commands from being processed.

Examples:

P6 0 73 Turn off hardware handshaking for RS232 control.

Snettcpport 0 8088 set-up port number for TCP/IP socket 0.

2) Switch Control commands cause actions to occur at the connected switching system. These are the

commands that are used to control what gets connected to what through the switch. These

commands include L for latch, C for clear, etc..

Examples:

L0 2 17 Latch Matrix #0, Module #2, Switch #17

C 0 Clear all connections in Matrix # 0.

Numeric entries must always be separated from each other by spaces!

Some Cytec programming examples may refer to Mod #, Rly # ( Relay #).

The terms Switch (Sw) and Relay (Rly) mean the same thing.

Multiple commands may be sent as a single string but each command must be separated by a semi colon.

Up to 50 characters are allowed on one line so the number of commands will be dependent on the characters

required. Only the first 15 characters sent will actually show up on the front panel LCD display (if that

option has been included). Cytec does not encourage using this programming technique as it makes status

feedback almost unusable but we do recognize that there are specific instances where this can greatly speed

up operation of the system.

Commands are covered in detail throughout the rest of the Control sections 5.1 through 5.8.

5.1 RS232 INTERFACE

Signal Connections

The control module is pre-configured at the factory to operate as Data Communications Equipment (DCE)

per the EIA RS232D Standard. In this configuration, the module transmits on the RxD Pin and receives on

the TxD Pin. RTS is required to be high for the control module to transmit and CTS is output high by the

control module to indicate a ready for data state and low when busy. Jumpers on the module allow for

reversing the functions of these pins (TxD/RxD, RTS/CTS) and operating as Data Terminal Equipment

(DTE) although there is virtually no practical reason to do this anymore. The RS232 rear panel connector is

a D9P (male) and can be run directly from a D9 computer com port with a straight through (one to one) D9S

to D9S cable. A null modem cable will not work with the factory default settings! Adaptors are available at

any computer store to convert from D25 to D9. Do not use any adaptor that also acts as a null modem

converter. If you are building your own cables, consult CYTEC Corp., for D25 to D9 pin out conversion.

D9P (male) PIN OUTS

Pin Signal Function

1 DCD Control Module provides +V.

2 RxD Data out of Control Module.

3 TxD Data in to Control Module.

4 DTR Data Terminal Ready (not used)

5 Common Signal Ground.

6 DSR Control Module provides +V.

7 RTS Control Module requires + V to transmit.

8 CTS Control Module provides +V when ready

9 RI Ring Indicator (not used)

COM Port Default Values

As delivered from Cytec, the system uses the default Windows Com Port settings shown below:

Bits per second (Baud) 9600

Data bits 8

Parity None

Stop bits 1

Flow control Hardware

Only Baud rate (Bits per second) and Flow Control (Hardware handshaking) can be modified. See Section

5.1.1 for command syntax.

5.1.1 RS232 INTERFACE I/O CONFIGURATION

I/O Configuration

Module #11-14-50

Default values:

Baud Rate 9600

Hardware Handshaking On

Answerback On

Echo Off

Verbose Off

The RS232 interface can be accessed using any standard terminal emulation program such as Hyperterm

(Windows). Connect a one to one D9 female to D9 female cable between the computer and the Cytec

switch.

The first thing you should do is turn on Echo. This will enable you to see what you are typing. Make sure

you turn echo back off when you are done with the terminal session. Echo being left on will normally

interfere with programs written specifically to control the switch.

Echo

Echos the characters back to your screen while you type them so you can see what you type.

Command: “E 0 73” Turns Echo Off

“E 1 73” Turns Echo On

Answerback

Answerback allows the Control Module to return information to the com port. Answerback should almost

always be left on. If Answerback is enabled, the Answerback byte must be read back by the requesting

device. Failure to do so could have unpredictable results.

Command: “A 0 73” Turns Answerback Off

“A 1 73” Turns Answerback On

Verbose

Verbose causes the system to return more specific information when you request status or read answerback

characters. It is sometimes helpful when troubleshooting but it slows the interface down a lot. While there

may occasionally be a good reason to turn on Verbose during a Hyperterm session, it is almost never used in

a programmatic interface. All of the same information could be generated in code based on the non-verbose

responses without slowing down the RS232 interface.

Command: “V 0 73” Turns Verbose Off

“V 1 73” Turns Verbose On

Baud Rate

Baud rate is set at the factory at 9600 Baud. Change is under software control and the control module must

be connected to a serial interface to effect the change.

Baud Baud# n

2400 4

4800 5

9600 6

19200 7

38400 8

57600 9

115200 10

230400 11 (untested, you should consider LAN)

460800 12 (untested, you should consider LAN)

Command: "P19 n 73"

"P19 7 73" sets baud rate to 19200.

If the Baud rate is inadvertently set to an unknown rate, the default value may be restored. See the section

on Setting Defaults for procedure.

Obviously as soon as you reset the Cytec baud rate you will no longer be able to communicate with the

switch until you reset the baud rate on your computer or communication device.

CTS/RTS Handshake

The Clear to Send (CTS) and Request To Send (RTS) hardware handshaking functions may be

modified by the 'P6' command.

Command: "P6 handshake 73"

handshake = 0 Handshaking off

handshake = 1 Handshaking on (default)

Example

"P6 0 73" Turn handshaking off.

5.2 IEEE488 INTERFACE

Signal Connections

Per IEEE Std. 488.1-1987 specification.

Device Subsets

The following list summarizes the device subsets implemented by the control module:

SH1 Source Handshake: Complete capability.

AH1 Acceptor Handshake: Complete capability.

T6 Talk Functions: Talk capability, Serial Poll, no talk only mode, untalk if MLA.

TE0 No Talker extended address capability.

L4 Listen Functions: Listen capability, no listen only mode, unlisten if MTA.

LE0 No Listener extended address capability.

SR1 Service Request: complete capability.

RL1 Remote Local: complete capability.

PP0 Parallel Poll: no capability.

DC1 Device Clear: complete capability.

DT0 Device Trigger: no capability.

C0 Controller: no capability.

SRQ Response

The service request function (SRQ) may be used to signal when the control module has completed an

operation. The Program command (P) allows for enabling or disabling the SRQ response. When enabled

the SRQ line will be set true when the control module has completed the last command received. The line

will be set regardless of completion status.

P 1 0 73 SRQ off, no SRQ function. Default.

P 1 1 73 SRQ active and set true upon completion of each command.

Completion status may be read by a serial poll (SPE, MTA) or by enabling the talk address alone (MTA).

After reading the status the SRQ line will be sent false.

Serial Poll, Talk Mode

Upon being addressed to talk the control module will return a single byte with EOI true indicating the

switch-point and command completion status of the last matrix operation. If the previous command was for

multi-character output (status, interrogate, revision ...) all data must be read before reading the command

completion character. If the SRQ line was asserted it will be set passive false.

Char

Hex

Completion Status

>0'

30

Successful Operation, switch open.

>1'

31

Successful Operation, switch closed.

>2'

32

Unknown Command, the first character of the command string was

unrecognizable. >3’

33

Incorrect entries, the number or type of entries was incorrect.

>4’

34

Entries out of limits, a switch-point was requested that was outside the

limits of the specified matrix. >5’

35

Invalid access code, the code number 73 was not included or incorrect in a

command requiring the access code or in the wrong entry position.

As above with SRQ true. >p=

70

Success, Switch Open.

>q=

71

Success, Switch Closed.

>r=

72

Unknown Command.

>s’

73

Incorrect entries.

>t’

74

Limits Error.

>u’

75

Access Error.

Remote/Local Operation

The interface responds to the Go To Local (GTL) and Local Lockout (LLO) commands by enabling or

disabling front panel controls. Response to LLO, GTL, and REN signals may be disabled by the Program

command 'P 4 0 73' and enabled by 'P 4 1 73'. Enabling or disabling is stored in non-volatile memory and

will not be affected by turning power off then on. Factory default is disabled.

Device Clear, Selected Device Clear

The interface will respond to both device clear (DCL) and selected device clear (SDC) by clearing any

pending operations, aborting pending output and optionally clearing the control module.

The matrix clear feature may be disabled by the Program command 'P 3 0 73' and enabled by the command

'P 3 1 73'. Enabling or disabling is stored in non-volatile memory and will not be affected by turning power

off then on.

5.2.1 IEEE488 INTERFACE TALK/LISTEN ADDRESS

Talk/Listen Address

Set for P14 Command. See Section 5.6.1 Additional Matrix Programming/Setup, P Command, P14.

5.2.2 IEEE488.2 SPECIFIC MATRIX COMMANDS

These commands are ignored by the RS232 interface.

*IDN? - Revision Number (Same as Cytec “N” - Revision Command)

Syntax: A*IDN?@

The 'IDN?' command will cause the matrix to return its current revision number followed by an end

of line.

Send: "*idn?" Request revision number.

Receive: "Cytec VDX/32x32 11-01-13 1.0" eol Text string indicating revision.

*RST - Reset (same as C - Clear command)

The '*RST' command will clear (open all switches) in the matrix.

Send: "*rst" Reset.

Receive: "0" eol Returns >0'.

5.3 LAN INTERFACE

The Cytec LAN interface is a 10BaseT / 100BaseT auto-ranging Ethernet interface with an RJ45 connector.

A Category 5e or better cable is recommended.

Default settings:

IP Address: 10.0.0.144

Netmask: 255.0.0.0

Gateway 0.0.0.0

Telnet Port: 23

TCP/IP Port 0: 8080

TCP/IP Port 1: 8081

Telnet Lockout: 0 (disabled) Telnet Sessions allowed by default.

Telnet Echo: 0 (disabled) Telnet Sessions do not echo.

TCP Idle 60

The Default LAN settings may be modified by any control port (RS232 or LAN). The most common

methods are:

Telnet to default telnet port 23. Any Telnet program will work. Depending on the program you may have to

turn on Echo to see the commands that you type. Some Telnet programs automatically echo even with ours

turned off. If you turn on Echo, be sure to turn it back off when you are done. Telnet Echo is different from

RS232 Echo.

Telnet via Raw TCP/IP to ports 8080 or 8081. This works the same as above except it will probably never

automatically Echo.

Use Hyperterm, puTTy, Tera Term or any other terminal emulation program to communicate to the RS232

port from a com port on your computer. See section 5.1 for RS232 details.

Use Hyperterm, puTTy, Tera Term or any other terminal emulation program to Telnet to port 23 or speak

Raw TCP/IP to ports 8080 or 8081.

TCP/IP commands

D Display current settings

Typing the letter “d” and hitting enter will return a list of current settings:

A1, E1, V0 % Answerback = ON, Echo = ON, Verbose = OFF%

Baudnumber = 6, RS Handshaking = 1

IP Address = 10.0.0.26

Netmask = 255.255.255.0

Gateway = 0.0.0.0

Port0 = 8080, Port1 = 8081

TCP idle = 600

Telnetlock = 0, Telnet Echo = 0

Battery Ram = 0, Default List = 0

IFCONFIG Set IP Address and Netmask

ifconfig aaa.aaa.aaa.aaa nnn.nnn.nnn.nnn

a = ip address in dotted decimal format

n = subnet mask in dotted decimal format

Example: ifconfig 10.0.0.100 255.0.0.0

Typing ifconfig and hitting the enter key will return the current settings.

Since you may be connected via Telnet to do this, the IP address will not actually change until you

reboot the Cytec switch. This helps prevent anyone from mistakenly setting the IP to an unknown address

by accident. It is a good idea to double check the settings with the D command before you reboot.

SNET TCP PORT Set Port number for TCP/IP sockets

SNET TCP PORT n m where = equals one of two sockets and m is the port number

Example:

snet tcp port 0 8088 socket 0 is port #8088

snet tcp port 1 8089 socket 1 is port #8089

Port numbers must be between 1024 and 65535.

The Telnet port (23) may also be available. See TELNETLOCK command

TELNET LOCK Disable Telnet socket.

TELNETLOCK n where n = 0,1

Example:

telnet lock 0 Connections to Port 23 are allowed

telnet lock 1 Connections to Port 23 are not allowed

TELNET ECHO Echo characters sent to Telnet socket.

TELNET ECHO n where n = 0,1

Example:

telnet echo 0 Character are not echoed back to telnet application

telnet lock 1 Character are echoed back to telnet application

(May cause double characters).

GATEWAY

Hosts xxx.xxx.xxx.xxx // to set gateway

Hosts //display gateway

Gateway = 0.0.0.0

SOCKET LIFE

The LAN Interface uses a program called TCP Tick to tell whether or not the network connection is intact

between the computer that established the socket and the LAN interface. The socket will remain until the

requesting IP address terminates the socket or there is a break in the network connection. Sockets will

automatically terminate after a pre-determined period of inactivity. That period is set by the SNET TCP Idle

commands. Each open socket needs activity to stay alive.

SNET TCP Idle n (n=seconds) (1 to 3600 sec)

Default = 60 sec

SNET TCP Idle (display)

TCP Idle = 60

SNET TCP Idle 0 Socket never dies until the computer that established the socket kills it.

Caution!

Setting the TCP Idle to 0 will force the socket to stay alive until the program that established the socket kills

it. WARNING: This can lead to issues if there is a network disconnect or the computer that established the

socket locks up. If the computer that establishes the socket cannot kill the socket, no one will be able to

connect to the switch until the Cytec unit is rebooted.

TCPAnswerback - Answerback

Syntax: TCPANSWERBACK n n = 0, 1 or 2

Answerback will enable or disable the transmission of a single character followed by an end of line

upon the completion of all commands. The Answerback character will be a 1 or 0 depending on

what command is sent. It is used to verify that the command was accepted and can verify completion

of relay control commands. See Section

Eg. "TCPANSWERBACK 0 " Turn answerback off.

"TCPANSWERBACK 1 " Turn answerback on

"TCPANSWERBACK 2 " Turn answerback plus terminator on

Note: TCPANSWERBACK 2:

This setting appends a set of square brackets to the answerback byte.

Eg. Send: "L0 0" Latch Module 0 Switch 0.

Receive: "1[]" End of line follows the terminator

5.4 COMMAND FORMAT/COMPLETION

COMMAND FORMAT

All commands consist of at least one ASCII character indicating the command followed by optional values.

After the command string is sent, an End of Line Character must be sent to affect the command.

If values are included with the command, the first value does not need to be separated from the command;

all subsequent values MUST be separated by spaces or commas, eg. L1 2.

Multiple commands may also be sent on one line. Commands must be separated by a semi-colon character.

Command line length is limited to 19 characters.

Examples: "L2 7;C" Connects Input 2 to Output 7 then clear

"U4 7;L 1 2" Unlatch Mod 4, Sw 7 then Latch Mod 1, Sw 2

COMMAND COMPLETION

A code representing the last requested switch point status (open or closed) and command completion will be

stored by the matrix.

If the LAN or RS232 answerback function is enabled, a single character followed by end of line will be sent

upon completion of all commands. Answerback may also include a termination character. With IEEE488

interfaces enabling the talk address (MTA) will cause the single code byte to be transmitted along with the

END line true. This code is also available by a serial poll. DIO1 will indicate status from the last operation

affecting switch-point status and DIO2 through DIO4 will be the command completion code.

Note: Command Completion is NOT updated until the matrix finishes the requested operation.

Command Completion Codes

Char Hex Completion Status

‘0’ 30 Successful operation, switch open

‘1’ 31 Successful operation, switch closed

‘2’ 32 Unknown command, the first character of the command string was unrecognizable

‘3’ 33 Incorrect entries, the number or type of entries was incorrect

‘4’ 34 Entries out of limits, a switch point was requested that was outside the limits of the specified

matrix

‘5’ 35 Invalid access code, the code number 73 was not included or entered incorrectly

‘6’ 36 Setup error. Incorrect setup parameter

5.4.1 End of Line Character ( EOL )

A received end of line character will cause the control module to execute the ASCII command string. The

end of line character may be sent as a carriage return (CR) or New Line / Line Feed ( NL/LF ) for RS232

interfaces and a New Line / Line Feed ( NL/LF ) for IEEE488 interfaces or LAN interfaces. The IEEE488

also allows for the END control line being true with the last data character to initiate the command.

Valid end of Lines:

CR RS232 only

LF or NL LAN, RS232 or IEEE488

CR and END IEEE488

LF/NL and END IEEE488

DAB and END IEEE488

Note that the terms New Line and Line Feed are often used to mean the same thing.

Both are expressed as \n in most programming languages and are shown on the ASCII table as “LF”.

LF = Line Feed / New Line represented as \n, on ASCII table it is Decimal 10, or Hex A (0xA).

CR = Carriage Return represented as \r, on ASCII table it is = Decimal 13 or Hex D ( 0xD).

When any data is returned from the switch, the data will also be followed by an End Of Line

character (EOL).

RS232:

1. The end of line will be a carriage return with Echo disabled or a carriage return and

line feed if Echo is enabled.

2. If Answerback is enabled, the answerback character and end of line will follow the

status output and then the EOL.

3. If Answerback with terminator is enabled, the answerback and terminator character

will follow the status or interrogate output and then the EOL.

LAN:

1. The end of line character will be a new line ( /n ).

2. If Answerback is enabled, the answerback character and end of line will follow the

status output and then the EOL.

3. If Answerback with terminator is enabled, the answerback and terminator character

will follow the status or interrogate output and then the EOL.

IEEE488:

1. The end of line character will be a line feed.

2. A DCL or SDC command will abort output.

Notes - All Interfaces: Upon requesting status output characters MUST be received by the requesting

device. Failure to do this will prevent further use of the matrix.

Access Code

Some commands require an access code number to be included with the command. This code prevents

inadvertent operation of system modifying commands. The access code is 73.

5.5 SWITCH COMMANDS

General Notes

For LAN and RS232, after sending any command the Cytec control will return an integer Answerback

character if Answerback is ON. Answerback is turned on by default and is Cytec’s preferred operation since

it allows you to verify commands are accepted before continuing.

If the command was a switch operation command such as Latch ( L ) or Unlatch ( U ), the character will be a

meaningful status response where 1 = switch latched and 0 = switch unlatched. This may be used to verify

that the command was received correctly.

Any other commands sent will also generate an answerback character which may be either a 1 or 0 and

either character will indicate the command was received but the value is meaningless so either is acceptable.

Answerback may be turned off when using LAN or RS232 although it is not recommended.

Answerback can also include a termination character for the LAN or RS232 interface.

Error Characters

If a command is sent incorrectly, an error character will be generated and added to the answerback character.

Since the answerback character may be a 1 or 0, there may be two values for error characters as described

below.

Answerback returned:

Dec Hex

0 30 Latch completed without errors.

1 31 Unlatch completed without errors.

2 or 3 32 or 33 Unknown command, first character unrecognizable.

4 or 5 34 or 35 Incorrect entries, number or type of entries incorrect.

6 or 7 36 or 37 Entries out of limits, switch point out of usable range.

8 or 9 38 or 39 Invalid access code, number 73 not included when required.

COMMAND FORMAT

All commands consist of at least one ASCII character indicating the command followed by optional values.

The optional values are normally the Module# and Switch# address integers or a set-up command parameter.

After the command string is sent, a Carriage Return (CR ) or Line Feed (LF) character must be sent to affect

the command.

If values are included with the command, the first value does not need to be separated from the command; all

subsequent integer values MUST be separated by spaces or commas. While the system will accept a space

character between the command and the first value, it is unnecessary and simply adds characters.

The command character is not case sensitive and may be sent as UPPER or lower case. Our examples

always use upper case for clarity since “l” and “1” look entirely too similar in most fonts.

Examples:

L1 2 Latch Module #1, Switch #2 ( Turn it on )

U3 14 Unlatch Module #3, Switch #14 ( Turn it off )

L14 12 Latch Module #14, Switch #12 ( Turn it on )

C Clear command needs no values. ( Turn all relays off )

Also acceptable:

L 1 2 Space between L and 1. Latch Module #1, Switch #2 ( Turn it on )

u3,14 Comma between 3 and 14. Unlatch Module #3, Switch #14 ( Turn it off )

L 14,12 Space between command, comma separator.

c Lowercase works fine. Clear command needs no values.

Not acceptable:

L12 No separators. Will accept but completely misinterpret command or give

error.

U,3 14 Will give unknown command error.

L14, 12 Too many separators between values. Results unpredictable.

Multiple commands may also be sent on one line. Commands must be separated by a semi-colon character.

Command line length is limited to 19 characters.

Examples: “L2 7;L3 5” Latch Module 2, Switch 7 and Module 3, Switch 5.

“U3 5;L0 2;L1 3” Unlatch Mod 3, Sw 5, Latch Mod 0 Sw 2 and Mod 1, Sw 3.

5.5.1 DELAYS TO PREVENT ERRORS

It is important to recognize that with modern computers and control interfaces, it is possible to stream

commands to the switch matrix faster than the relays can physically operate. Many electro-mechanical

relays may take between 2 to 20 ms to close or open. This can result in unpredictable results if certain

operations are streamed together without considering this delay.

A good example of this type of problem occurs if a Latch command is sent and is immediately followed by a

status request. Many of Cytec’s products actually base status on current flow through the relay drives so it is

possible to send a command and request status before the relay has physically operated, resulting in incorrect

status feedback.

Typically, a 5 to 20 ms delay between commands requiring feedback can ensure that this is never an issue.

5.5.2 ANSWERBACK CHARACTER

Both the LAN and RS232 controls allow an Answerback Character to be returned whenever a command is

sent.

Answerback is turned on by default so this character must be read back before any other commands can be

issued or there is a good chance that the control will hang. The answerback character is simply a “1” or “0”

followed by end of line.

Answerback may be turned off using the “A0 73” command. See sections 5.11 ( RS232 ) and 5.3 ( LAN )

for complete command syntax.

What does the Answerback Character Mean?

The answerback character simply confirms that the command was accepted and completed. It is useful for

verifying that the command you sent was processed.

For most commands, the character being a “1” or “0” does not matter. Either character simply means that

the command was processed and the value can be thought of as a “Don’t care” Boolean.

For the L ( Latch ) and U ( Unlatch ) commands, the value tells you the status of the switch point.

So when you send an L command, the answerback character should always be a “1”.

When you send a U command, the answerback should always be a “0”.

5.5.3 SWITCH CONTROL COMMANDS

L,U,X - Latch, Unlatch, Multiplex Commands

Syntax: Cmd Switch

Cmd Module, Switch

The specified switchpoint is operated on.

(Cmd = 'L', 'U' or 'X')

L = Latch = Turn switch ON Closes the specified point, all others unaffected.

U = Unlatch = Turn switch OFF Opens the specified point, all others are unaffected.

X = Multiplex = Clear + Latch Opens all points, then Latches the specified point.

Eg. "U2 3" Module 2, Switch 3 is opened. (OFF)

"L0 1" Module 0, Switch 1 is closed. (ON)

“L13 7” Module 13, Switch 7 is closed. (ON)

“X3 0” Clear all switch points ( turn them all OFF ) then Latch Module 3, Switch 0.

Note that the X command cannot be used if you need more than one switch on at a time. There is not a X

command that only works on a single module.

If a single integer value is sent, the control module assumes it is a switch value and defaults to the last

module value sent.

Eg. “L2 3” Module 2, Switch 3 is closed (ON). Then,

“L4” Assumes Module 2. Module 2, Switch 4 is closed (ON)

Note: For systems with less than or equal to 32 relay drives possible you may simply address them as 0 to

31 without using the Module #. These systems will accept either syntax.

Eg. “L3 5” Module 3, Switch 5 is closed (ON).

“L29” Module 3, Switch 5 is closed (ON). Same as above. Do the math.

Some Cytec programming examples may refer to Mod #, Rly # ( Relay #).

The terms Switch (Sw) and Relay (Rly) mean the same thing.

For Unidirectional matrix switches, specifically DX, DXM, VDX, VDM and TX, the Module # may be

thought of as Input #, and the Switch or Relay # may be thought of as the Output #. See section 5.6.

C - Clear Command

Syntax: C

All points in the chassis are opened.

Eg. "C" All switches in the chassis are opened.

There is not a Clear Module # function. Clear simply turns off every switch in the chassis.

If you need a Clear module function it can be written in code fairly easily.

For IEEE488.2, The C command is the same as the *RST (reset) function.

5.5.4 STATUS AND INTEROGATE COMMANDS

The Status and Interrogate commands return information to the user so they can tell what state each

switch point is in before proceeding. They can be used to simply check the switch configuration, to

verify connections, or to prevent unwanted connections.

The information returned by these commands can be different depending on what type of system you

have. Please find the Status or Interrogate section for your specific system before writing code that is

dependent on what is returned.

S - Status Command

Syntax: S

S Module, Switch

Status may be requested of a single switch point or for the entire chassis. After receipt of the Status

command the Matrix will return a character or string of characters representing the status, open or

closed, of a switch point or switch points. A one, '1', signifies a closed switch point (ON) and a zero,

'0', an open switch point (OFF).

In the case of a single switch point a single character is returned followed by an end of line.

For multiple switch points, a stream of 1’s and 0’s will be returned. How they are returned and what

they mean is dependent on the type of system.

Status return is broken down into four different groups:

Section 5.5.4.1 Systems with 8 to 32 relays drives possible.

Section 5.5.4.2 Systems with 64 to 512 relay drives possible.

Section 5.5.4.3 RJV systems which are unique.

Section 5.5.4.4 Large Matrix systems with over 512 switch points or solid state matrix systems.

Please see the sections on the following pages for the information for your particular system

5.5.4.1 Status Returned Values up to 32 drives

For systems with 8 to 32 relay drives ( any model designated as xxx/16 or xxx/32 )

These Models Include:

CXAR/16 and /32

CXM/16 and /32

HXV/16 and HXV/32

RS/8 or /16

GX/4 or /8 or /16 or /32

FO/16 or /32

Model #’s are shown on the rear panel label. If the model # is simply a # such as “6754” you should

see the addendum for the system or contact Cytec with questions if you do not know what it is

returning.

The S command sent by itself will return a continuous string of 16 or 32 1’s and 0’s followed

by the answerback character ( if on ) and the end of line character. The string is ordered from

lowest value switch to highest value switch.

Eg. 1 CXAR/32 chassis

Send: “S”

Receive: "000100010000000000001100000000010" eol 32 switch points + Answerback +

EOL

This is interpreted as Switches 3, 7, 20, 21 and 30 are ON, the rest are OFF.

In Module#, Switch # syntax this is:

Mod 0, Switches 3 and 7 are ON.

Mod 1, no switches are ON.

Mod 2, Switches 3 and 4 are ON.

Mod 3, Switch 7 is ON.

All other switches are OFF.

If the Answerback function is on, the last 1 or 0 before the EOL will be the Answerback character

and the value is a “don’t care”. If Answerback + termination character is ON, there will also be the

termination character [].

5.5.4.2 Status Returned Values 64 to 512 drives

For systems with 64 to 512 relay drives

( any model designated as xxx/64, xxx/128, xxx/256, xxx/512 )


LXA or LXB ( all )

CXAR/64, /128 or /256

CXB systems ( all )

CXG, CXF, CXS systems ( all )

CXM/64, /128 or /256

HXV/96 or /128, or /256

RSM ( all )

RJM ( all )

JX ( all )

VX ( all )

PX ( all )

GX/64 or /128

FO/64 or /128

Model #’s are shown on the rear panel label. If the model # is simply a # such as “6754” you should

see the addendum for the system or contact Cytec with questions if you do not know what it is

returning.

The S command sent by itself will return a row / column pattern of 1’s and 0’s that mimic the

LED display on the front panel (if equipt ), where the columns are the Module # and the Rows

are the Switch #.

Eg. 2 A 16 Module, 8 Switch Matrix ( your configuration may be different):

Send: "S" Status of chassis

Receive: "0001000100000000" eol Switch 0, Module 3 and 7 closed

"0000000000000000" eol Switch 1, none closed

"1111111111111111" eol Switch 2, all closed

"1000000000000001" eol Switch 3, Module 0 and 15 closed

"1010101010101010" eol Switch 4, odd Modules closed

"0101010101010101" eol Switch 5, even Modules closed



“0”eol Answerback character

If the Answerback function is on, the last 1 or 0 before the EOL will be the Answerback character

and the value is a “don’t care”. If Answerback + termination character is ON, there will also be the

termination character [].

5.5.4.3 Status Returned Values RJV Systems

RJV systems are unique and the returned status is specific to those systems.

Skip this section if you do not have an RJV/48 or RJV/144 system.

S - Status Command

Syntax: S

S Module, Switch

Status may be requested of a single switch point or for the entire chassis. After receipt of the Status

command the Matrix will return a character or string of characters representing the status, open or

closed, of a switch point or switch points. A one, '1', signifies a closed switch point and a zero, '0',

an open switch point.

In the case of a single switch point a single character is returned followed by an end of line.

For multiple switch points a line of ones and zeros will be returned for each switch module in the

system. For the RJV/48 there will be four rows of 24 1's or 0's. For the RJV/144 there will be 12

rows of 24 1's or 0's. Each line returned will be followed by an end of line (EOL). For LAN and

RS232 interfaces there may also be an Answerback character before the EOL if Answerback is

enabled.

At the end of all output rows an end of line will be sent for both interfaces. See the command

completion and answerback sections for details.

Eg. 1

Send: "S 3,4" Test Module 3, Switch 4

Receive: "0" eol Switchpoint open, end of line.

Eg. 2 An RJV/48 with four 6x4 Modules:

Send: "S" Status of chassis

Receive:

"000100010000000000000000" eol Module 0, Switchs 3 and 7 closed

"000000000000000000000000" eol Module 1, none closed

"100000010000000100000001" eol Module 2, Switchs0, 7, 15 and 23 closed.

"000000100000000000100000" eol Module 3, Switchs 6 and 18 closed.

An RJV/144 will return 12 rows with 24 1's or 0's in each row.

RJV Module Status table:

Use this table to relate switch #’s to Input and Output Ports.

RJV/12x1-X-XX (any 12x1 module)

These modules only use the first 12 characters of the returned string of 24 1's or 0's.

The second set of 12 characters are “don’t cares” and may be returned as 1’s or 0’s.

They should be ignored.

Ports 0 to 11 NA

001000000000 000000000000

Indicates port 2 is on.

RJV/6x4-X-XX (all 6x4 modules)

These modules use all 24 characters and each common port has six associated 1's or 0's:

0 to 23 = Switch #’s Port Labels

0

1

2

3

4

5

C0

0

4

8

12

16

20

C1

1

5

9

13

17

21

C2

2

6

10

14

18

22

C3

3

7

11

15

19

23

So the 24 characters line up as:

C0/0 C1/0 C2/0 C3/0 C0/1 C1/1 C2/1 C3/1 C0/2 C1/2 C2/2 C3/2 C0/3 C1/3 C2/3 C3/3 etc...

RJV/6x2 Switch Modules

These modules only use every other 2 characters in the returned string of 24 1's or 0's.

0 to 23 = Switch #’s Port Labels

0

1

2

3

4

5

C0

0

4

8

12

16

20

C1

1

5

9

13

17

21

NA ignore!

2

6

10

14

18

22

NA ignore!

3

7

11

15

19

23

So the 24 characters line up as:

C0/0 C1/0 NA NA C0/1 C1/1 NA NA C0/2 C1/2 NA NA C0/3 C1/3 NA NA C0/4 C1/4 etc...

NA digits are floating and may return as 1's or 0's but must be ignored!

RJV/4(2x1)-X Switch Modules


2x1 # 0 to 3 NA

0000 00000000000000000000 (0 = Normally Closed Position, 1 = Normally Open)

RJV/4(2x1)-X-Latching Switch Modules


2x1 #’s

C0/0 C1/1 C2/2 C3/3 C0/4 C1/5 C2/6 C3/7 NA

0 0 0 0 0 0 0 0 0000000000000000

5.5.4.4 Status Returned Values Large Systems

For systems with more than relay drives, large matrices, or solid state switches


VDX/16x16 or /32x32 ( all )

VDM/32x32 (all)

DX/64x64 or /256x256 ( all )

DXM/64x64 or /128x128

FX ( all )

TX ( all )

These systems do not make use of the S command but instead use the I command to return

information.

Some of these systems would return up to 65,536 characters if they accepted the S command which

becomes very difficult to deal with. Instead, they use the I command which only returns the address

of switch points which are on. This limits the amount of returned data to a maximum of 256

addresses which is much easier and quicker to deal with.

These systems will interpret any “S” command sent as an “I” command and respond accordingly.

See the Interrogate Command Section for details.

Any other modules not listed please see addendum or call factory.

5.5.5 I – Interrogate Command

Syntax: I

The Interrogate function will return a list of all closed ( ON ) switch points. Each switch point will

be followed by an “end of line” ( EOL ). The switch point is listed as the Module# and then

Switch#. For matrix applications such as a 16x16 this often translates into “Input # then Output #”

or “Output # then Input #”. Since many systems are bi-directional Input vs Output may be dependent

on how you are using it. For uni-directional systems, such as VDM, or DXM, the input vs output

relationship will be carved in stone and you should be familiar with it.

Send: <I> Request interrogation.

Receive: <Module#><comma><space><Switch#><EOL>

Eg. Send “I”

Receive “0, 0” eol Module 0, Switch 0 Closed. End of line.

“1, 6” eol Module 1, Switch 6 Closed. End of line.

“3, 2” eol Module 3, Switch 2 Closed. End of line.

“0” eol Answerback character (if enabled). End of line.

For system such as a DX/256x256 the “I” command may return up to 256 addresses. Be sure your buffer

size can handle the amount of returned data.

For Unidirectional matrix switches, specifically DX, DXM, VDX, VDM and TX, the Module # may be

thought of as Input #, and the Switch or Relay # may be thought of as the Output #. See section 5.6.

.

5.5.6 OTHER COMMANDS

F - Front Panel

Syntax: F n 73 n = 0 or 1

Front panel lock-out will be initiated by the receipt of a 0 character and enabled by the receipt of a 1

character followed by the access code. The access code prevents inadvertent lock-out from

occurring. Lock-out will prevent any operation of the system from the front panel until it is

terminated from the remote (F 1) or power is turned off then on. Preset to panel enabled at power

on.

Eg. "F 0,73" Lock-out local operation.

"F 1 73" Enable local operation.

P - Program

Syntax: P n1,n2,73

The program command allows the operator to setup matrix dependent variables. These include

matrix switch configuration and certain interface functions. Use of the P commands is complicated

and varies greatly between systems. Your system should have been provided with the correct P

command set-up.

If you need to change the matrix configuration, number of allowed modules, or other obscure set-up

configurations on your system we recommend you contact Cytec and we can walk you through the P

commands needed for your specific system. Please provide the serial # of your system when you

contact us.

N - Revision Number (Same as IEEE488 *IDN? )

Syntax: N

The 'N' command will cause the matrix to return its current revision number followed by an integer

identifier, followed by an end of line.

Eg. Send: "N" Request revision Number

Receive: "Cytec 11-14-10-1, 1.23 0" eol Text string indicating revision.

Where: ACytec@ = manufacturer.

A11-14-10-1" = control module board number.

A1.23" = Firmware Revision # (example).

A0" = Integer identifier.

Note: When requesting the Revision number, all characters must be received before the system can

be resumed.

*NOTE - The text string received from the >N= Command will vary depending on the type of system.

Integer identifier

The N command now includes a single byte which can be used as an identifier for Cytec systems. The

identifier is a single byte integer so it may 0 to 255. WE do not assign this and it has no meaningful

relationship to any product. It is simply a number which may be assigned to a chassis so that the end user

can acknowledge that a specific Cytec chassis is communicating. It is up to the customer to assign the

number and keep track of it. It allows them to poll multiple chassis and know that the one they are talking to

is, for example, the JX/256 that they assigned the identifier A13" to.

Command to enter or change the number:

P90 n 73 where n is the number from 0 to 255

5.6 INPUT / OUTPUT vs MODULE / SWITCH NOMENCLATURE

Most of the switching systems sold by Cytec are completely bi-directional and can be used in a variety of

ways by the customer so it is impossible for us to use the terms Input and Output, even though it is what

probably makes the most sense to the end user when connecting signals to the switch.

We label and control the switches using Module# and Switch# to avoid this confusion since for most

systems either can be considered an Input or an Output.

However some Cytec systems are uni-directional and do have assigned Inputs and Outputs:

Uni-directional Systems with defined Input and Output ports:

DX and DXM high speed digital switch matrix systems

VDX and VDM analog or digital switch matrix systems

TX analog systems

FX fiber optic systems

For all of these systems:

Module # = Input

Switch # = Output

Note that these systems will all allow multiple Outputs to be connected to a single Input, but will never

allow multiple Inputs to be connected to one Output. There are internal controls to prevent this and

attempting to do it will simply disconnect a previously set path.

5.7 MATRIX COMMAND SUMMARY

COMMAND FUNCTION

L sw Latch switch point.

L mod, sw

U sw Unlatch switch point.

U mod, sw

X sw Multiplex switch point.

X mod, sw

C Clear entire system.

S Return status.

S mod, sw

I Interrogate Closed Points.

F 0/1 73 Disable/Enable Front Panel.

P parameter value 73 Program parameter.

N Revision Number

RS232 Specific Commands

R baud, RTS/CTS 73 Baud Rate, RTS/CTS operation.

A 0/1 73 Disable/Enable Answerback.

E 0/1 73 Disable/Enable Echo.

V 0/1 73 Disable/Enable Verbose.

TCP/IP Specific Commands

TCPANSWERBACK 0/1/2 Disable/Enable Answerback/Termination

IFCONFIG aaa.aaa.aaa.aaa nnn.nnn.nnn.nnn a = ip address in dotted decimal format

n = subnet mask in dotted decimal format

SNET TCP PORT n m Where n = equals one of two sockets and m is the port number

5.8 IF-9 / IF-11 (RS232/LAN/GPIB) DEFAULT CONFIGURATION SETTINGS

Should the system=s non-volatile memory fail, default setup parameters will be placed in memory on power

up. The unit may then be properly set-up by P commands.

Forcing Defaults

Default values may be forced by setting the Jumper on the control module and toggling power.

See section 5.0, Memory Sanitation Procedure.

Default Values

P 0 1 One Matrix

P 7 0 NV RAM disabled

P 8 0 Load List #0 if NV RAM disabled

P 10 X X = 4 Logical Modules for RJV/48 or 12 for RJV/144

P 20 12 12 Logical Switches

P 24 0 0 to 31 addressing

P 19 6 Baud rate 9600

P 90 0 ID# = 0

E 0 Echo off

V 0 Verbose off

A 1 Answerback on

IP 10.0.0.144

Netmask 255.0.0.0

Gateway 0.0.0.0

Port 0 8080

Port 1 8081

Socket Timeout 60 seconds

GPIB Address 7

5.9 LCD DISPLAY/KEYPAD MANUAL CONTROL OPTION

The Keypad/Display option (Drwg.#6-057) allows manual control of the matrix from the front panel.

Keypad operation is always enabled at power on but may be disabled by the remote command, >F=.

Display

The display contains two lines with sixteen characters per line. The top line displays matrix commands and

numeric entry. The bottom line displays the status of the entry or operation. The display will also show the

last command entered from the remote computer interface when the front panel is enabled.

Keypad

The keypad consists of ten numeric keys, four function keys, a space key and an enter key. Key Function

0-9 Numeric entries.

space Delimits between numeric entries.

L Latch operation.

U Unlatch operation.

X Multiplex operation.

C Clear operation.

ENTR Execute displayed operation.

Operation

A matrix command key, L, U, X or C, MUST be pressed before numeric entry keys. Pressing any key

except a matrix command key causes the message Enter Cmd First to be displayed. After pressing a

matrix command key the command and a cursor are displayed. The switch point to be operated on may now

be entered with the numeric and space keys. The entry format is the same as described in the MATRIX

OPERATION section and described briefly by the following table:

Command Key Display Line 1 Line 2

L Lat _ Enter Point

U Unl _ Enter Point

X Mux _ Enter Point

C Clr _ Enter Matrix

The numeric keypad now allows selection of the Module and Relay ( Input and Output ) to be operated on.

Each entry may be multiple digits and a space must be pressed between selections.

Key Line 1 Line 2

L Lat _ Enter Point

1 Lat 1_

space Lat 1 _

2 Lat 1 2_

3 Lat 1 23_

Enter Key Lat 1 23_ 1

Number of Entries Leftmost Entry 2nd Entry

1 Relay -

2 Module Relay

The ENTR key may now be pressed to execute the displayed operation. If the displayed entry is incorrect or

the operation is not desired, pressing any matrix command key will clear the display and restart the entry.

Status Display

After the ENTR key is pressed, the displayed operation is attempted to be executed by the control module.

If the execution is successful, a Point Closed or Point Open message will be displayed on line 2. If the

operation cannot be executed, an error message will be displayed.

Line 2 Message Status

Ready Displayed after power on.

Enter Point The ENTR key has not been pressed, command and selection mode.

Point Closed The selected point was closed.

Point Open The selected point was opened.

Points Open All points opened, Clear operation.

***Err: limits The selected point is outside the programmed size of the matrix.

***Err: entry An incorrect entry was selected.

Front Panel Disable

The >F= command allows enabling or disabling front panel operation. If the front panel is disabled, no

operation can be performed from the keypad.

Remote Command Line 1 Line 2

F 0 73 Panel Disabled

F 1 73 Panel Enabled

Contrast and LED Backlight Adjustment

Controls are provided to adjust the LCD contrast and LED backlight level. These controls should only need

adjustment in extremely bright or dim environments or for acute viewing angles. Both LCD and LED

circuits have temperature sensing elements that will automatically adjust the output level for changes in the

ambient temperature.

APPENDIX B -QBASIC RS232 EXAMPLE PROGRAM

'Cytec Matrix Test Program for IBM-PC Compatibles using QBASIC and COM1 port.

' 16x16 (Change parameters X and Y for other configurations.)

'

' Matrix should be set up for:

' E 0 73 Echo off

' V 0 73 Verbose off

' A 1 73 Answerback on

' Set-up may be done by any Terminal emulation program or

' by adding these lines to the program, be sure to clear

' input buffer after set-up.

'The Answerback character is read after every write operation and can be

' tested for successful operation if desired.

'

CLS

OPEN "COM1:9600" FOR RANDOM AS #1

COM(1) ON

PRINT "Setting up and Clearing Matrix"

PRINT #1, "E0 73;V0 73;A1 73;C"

'Some delay gather Answers from the previous command

INPUT "Press ENTER to continue", a$

WHILE NOT EOF(1)

INPUT #1, a$

WEND

'----------------------------------------------------------

PRINT ""

PRINT "Cycling through 256 channels using Latch/Unlatch Commands"

FOR Y% = 0 TO 15 'Loop For Selecting Input

FOR X% = 0 TO 15 'Loop For Selecting Output

'Write Instruction To Matrix (Command,Input,Output)

PRINT #1, "L" + STR$(Y%) + STR$(X%): INPUT #1, a$

'Check Status (S module, relay)

PRINT #1, "S" + STR$(Y%) + STR$(X%): INPUT #1, a$

INPUT #1, Stat$

IF Stat$ = "0" THEN PRINT "Error latching"; Y%; X%

PRINT #1, "U" + STR$(Y%) + STR$(X%): INPUT #1, a$

PRINT #1, "S" + STR$(Y%) + STR$(X%): INPUT #1, a$

INPUT #1, Stat$

IF Stat$ = "1" THEN PRINT "Error unlatching"; Y%; X%

NEXT X%

NEXT Y%

'----------------------------------------------------------

CLOSE #1

END

APPENDIX C - TURBO C/IEEE488 TEST PROGRAM

/* CYTEC Matrix / National Instruments IEEE488 Test Program */

/* This program was compiled under TURBO C ver. 2.0 and linked */

/* with National Instruments file: TCIBS.OBJ. Though not */

/* tested with other compilers it has been written following */

/* ANSI C rules and should be compatible with other compilers. */

/* National Instruments configuration program IBCONF was used */

/* to assign dev7 listen and talk addresses of the matrix (7). */

#include <stdio.h>

#include "decl.h"

static int brd0, matrix; /* device ID variables */

static char cmd_line[10];

/* ------------- initialize I/O ---------------------------- */

int init_GPIB()

{

if ((brd0 = ibfind("gpib0")) < 0) /* 'Find' devices */

return(1); /* that were setup by */

ibsic(brd0); /* IBCONF program */

if ((matrix = ibfind("dev7")) < 0) /* dev7 setup for Matrix */

return(2);

matrix_clear();

return(0);

}

/* ------------- clear matrix ------------------------------ */

int matrix_clear()

{

ibwrt(matrix,"C",1); /* "C", alternate methods of */

/* ibcmd(brd0,"\x14",1); DCL, clearing the matrix */

/* ibclr(matrix); */

}

/* ------------- switchpoint operation --------------------- */

int switchpoint_operation(cmd, inp, outp)

int cmd, inp, outp;

{

int sp_status;

sprintf(cmd_line,"%c%d %d", cmd, inp, outp); /* build */

ibwrt(matrix,cmd_line,strlen(cmd_line)); /* and send */

ibrsp(matrix,&sp_status);

return(sp_status & 0x3f); /* ret status less SRQ bit */

}

/* ------------- switchpoint status ------------------------ */

int switchpoint_status(inp, outp)

int inp, outp;

{

lkjhljhsdfkljdfgsdfgsg sprintf(cmd_line,"S%d %d", inp, outp); /* Request status */

ibwrt(matrix,cmd_line,strlen(cmd_line));

ibrd(matrix,cmd_line,10); /* and read */

return(cmd_line[0] & 0x3f);

}

/* ************************************************************* */

#define N_INPUTS 16

#define N_OUTPUTS 8

#define RCV_BUFFER_SIZE N_INPUTS * N_OUTPUTS + N_INPUTS + 1

int main()

{

int i,inp,outp;

char rcv_buffer[RCV_BUFFER_SIZE];

printf("Cytec Matrix Test Program.\n\n");

/* initialize and trap errors */

if (init_GPIB()) {

printf("Initialize error.\n");

return(1);

}

/* Latch & Unlatch Switches */

for (inp=0; inp<N_INPUTS; inp++)

for (outp=0; outp<N_OUTPUTS; outp++) {

if (switchpoint_operation('L',inp,outp) != '1')

printf("Error: point %d %d not closed.\n",

inp,outp);

if (switchpoint_operation('U',inp,outp) != '0')

printf("Error: point %d %d not open.\n",

inp, outp);

}

/* Latch 'Random' switches */

for (outp=0; outp<N_OUTPUTS; outp++) {

switchpoint_operation('L',outp,outp);

/* direct status read */

if (switchpoint_status(outp,outp) != '1')

printf("Error: point %d %d not closed.\n",outp,outp);

}

/* request status of entire matrix */

ibwrt(matrix,"S",1);

ibrd(matrix,rcv_buffer,RCV_BUFFER_SIZE);

/* display status */

printf("Bytes read = %d.\n",ibcnt);

for (i=0; i<ibcnt; i++) {

if (rcv_buffer[i] == ';')

printf("\n");

else

printf("%c",rcv_buffer[i]);

}

ibloc(matrix); /* Leave local controls enabled when done */

}

/* Cytec Matrix Test Program for LAN */ /* This program uses Microsoft's WS2_32 Library */ /* and winsock2.h. These are available in the */ /* Microsoft SDKs and can be downloaded from */ /* Microsoft's Developer Network */ /* https://msdn.microsoft.com/en-us/default.aspx */ #include <stdio.h> #include <winsock2.h> #include <stdlib.h> /* for exit() */ int init_LAN(int sock); int point_ops(int sock,int cmd, int mod, int rly); int matrix_clear(int sock); void DieWithError(char *errorMessage); #define MAX_MOD 4 #define MAX_RLY 12 int main(int argc, char *argv[]) { int sock; char *servIP = "10.0.0.144"; /*Default IP Address*? struct sockaddr_in servAddr; /* IP address */ unsigned short servPort = 8080; /* Port */ int mod, rly,status; if (argc == 3) { servIP = argv[1]; servPort = atoi(argv[2]); } WSADATA wsaData; /* Structure for WinSock setup communication */ WSAStartup(0x202, &wsaData); /* Load Winsock 2.2 DLL */ /* Create a reliable, stream socket using TCP */ if ((sock = socket(PF_INET, SOCK_STREAM, IPPROTO_TCP))<0) DieWithError("socket() failed"); /* Construct the server address structure */ memset(&servAddr, 0, sizeof(servAddr)); /* Zero out structure */ servAddr.sin_family = AF_INET; /* Internet address family */ servAddr.sin_addr.s_addr = inet_addr(servIP); /* Server IP address */ servAddr.sin_port = htons(servPort); /* Server port */ /* Establish the connection to the server */ if (connect(sock, (struct sockaddr *) &servAddr, sizeof(servAddr))<0) DieWithError("connect() failed"); /* Initialize Device using init_LAN Function */

init_LAN(sock); /* Send Clear Command to Device with matrix_clear Function*/ if ((status = matrix_clear(sock)) != 48) printf("Error clearing device/n"); /* Simple looping through switchpoints */ for (mod=0; mod<MAX_MOD; mod++) { for (rly=0; rly<MAX_RLY; rly++) { if (((status = point_ops(sock,'L',mod,rly))) !=49) printf("Error point %d %d %d not closed\n",mod,rly); else printf("Latched point %d %d\n",mod, rly); if (((status = point_ops(sock,'U',mod,rly))) !=48) printf("Error point %d %d %d not open\n",mod,rly); else printf("Unlatched point %d %d\n",mod, rly); } } } closesocket(sock); WSACleanup(); /* Cleanup Winsock */ return 0; } /*--------------Initialize---------------------------*/ int init_LAN(int sock) { char rcvString[40]; /* Buffer for device response */ int rcvStringLen; /* Length of device response */ void DieWithError(char *errorMessage); /* Initialize Device */ if ((send(sock, "E0 73;V0 73;TCPANSWERBACK 1\n", 28, 0)) != 28) { DieWithError("send() failed"); } Sleep(1000); /* Wait for Response from Device */ if ((rcvStringLen = recv(sock, rcvString, 9, 0)) < 9) { DieWithError("recv() failed or connection closed prematurely"); } rcvString[rcvStringLen] = '\0'; return 0; }

/*-----------------Clear Matrix----------------------*/ int matrix_clear(int sock) { char rcvString[8]; /* Buffer for device response */ int rcvStringLen; /* Length of device response */ if ((send(sock,"C\n",2,0)) != 2) DieWithError("send() failed"); Sleep(200); /* Wait for Response /* Receive Response from Device */ if ((rcvStringLen = recv(sock, rcvString, 10, 0)) <= 0) DieWithError("recv() failed or connection closed prematurely"); rcvString[rcvStringLen] = '\0'; int status = rcvString[0] & 0x3f; return status; } /*-----------Switchpoint Operation------------------ */ int point_ops(int sock,int cmd, int mod, int rly) { char cmd_str[40]; /* Formatted command string */ char rcvString[8]; /* Buffer for device response */ int rcvStringLen; /* Length of device response */ /* Format String */ sprintf(cmd_str,"%c%d %d\n",cmd,mod,rly); /* Send Command to Device */ if ((send(sock,cmd_str,strlen(cmd_str),0)) != strlen(cmd_str)) DieWithError("send() failed"); Sleep(200); /* Wait for Response /* Receive Response from Device */ if ((rcvStringLen = recv(sock, rcvString, 10, 0)) <= 0) DieWithError("recv() failed or connection closed prematurely"); rcvString[rcvStringLen] = '\0'; int status = rcvString[0] & 0x3f; return status; } /*------------Error Handling Function---------------------*/ void DieWithError(char *errorMessage) { fprintf(stderr,"%s: %d\n", errorMessage, WSAGetLastError()); getchar(); exit(1); }

APPENDIX F – Programming Examples

Cytec can provide programming examples for almost any Language. With the numerous

programming languages available for the LAN interface, RS232 interface and GPIB interface it is

increasingly difficult to provide them in a text file.

Please go to the Cytec support page at

http://cytec-ate.com/support.htm

or e-mail us at:

[email protected]

for complete programming examples in the language needed.

For tech support:

Call 1-800-346-3117

Or 585-381-4740

6.0 MAINTENANCE AND WARRANTY

GENERAL

This switching system utilizes solid state control circuitry. Electro-mechanical reed, armature relays or solid

state switches are used for switching. The system has been burned in for over 72 hours to eliminate any

marginal solid state components. Electro-mechanical switches have been cycled and then individually

checked for resistance to ensure their rated life expectancy. When used within the published specifications,

no maintenance should be required for at least one year of operation.

The single largest cause of failure in electro-mechanical relay switching systems is excess current or power

being switched. This type of problem is indicated by relay contacts sticking closed, and it does not show up

with software diagnostics. Typically, contact welding is not a problem in communication systems where all

signals are low current and low voltage in nature. In the unlikely event that relay welding does ever does

occur, it should be reported to CYTEC, and we will help review your system for the most likely cause.

The following test procedure covers a complete check of the system both mechanically and electrically.

Some parts of the procedure may not apply to solid state switches. In addition, some aspects of the test

(such as cycling and resistance checking) may be extremely time-consuming without the proper fixtures or

test equipment. You may choose to ignore them. Sometimes the old adage, “if it ain’t broke, don’t fix it!”,

is the best rule to follow. If your system has been operating flawlessly for years, you are not switching high

signal levels and you have a quantity of spare parts on hand to prevent long downtime, it may be in your best

interest to avoid the complicated aspects of this test procedure. Please use your best judgment before

proceeding with any steps with which you are not completely comfortable.

If the switching application absolutely requires that full tests be run on a periodic basis, you may consider

sending the entire system back to Cytec for a complete once over. This normally takes two to three working

days (excluding shipping time) and costs $100.00 to $500.00 depending on the size of the system. Please

contact Cytec at 1-800-346-3117 or [email protected], if you prefer this type of arrangement.

MAINTENANCE TEST PROCEDURE

Should you decide to perform a periodic system check, or if the system has been in operation for over three

years without any maintenance, please refer to the following procedure to ensure proper operation:

1) Locate all physical layout drawings within the system manuals. This will help identify the components

you will need to check.

2) Remove the top panel from the Mainframe or MESA Control Chassis and check all components for

proper mechanical arrangement and connections. Check that all modular components are seated in

connectors and that all wiring is in good physical condition. Visually inspect both the power supply(ies) and

solid state components for any indication of burning or overheating. Check mechanical connectors (screws,

nuts, etc.) for tightness. In industrial environments, check for accumulation of dirt, dust, or other

contaminants on any electrical components. Clean these components if necessary. Repeat this procedure for

any included Expansion Chassis if necessary.

3) Check Voltage levels on all supplies. Adjustable supplies should be reset to their proper level if more

than 5% out of range. Check your manual or call Cytec to determine proper level. If the 5 Volt level is

provided through a 5 Volt regulator attached to a 12 Volt supply, the regulator will need to be replaced if out

of specification.

4) Replace any top covers which have been removed.

5) Set up the system and check for proper communication with the controller. If the system is operating

normally, cycle through all available switch-points either programmatically or via manual control if

provided. For systems with LED displays, step through the switch points one at a time while observing the

LED display. Check LEDs for proper operation.

6) Set up system programmatically via software to continuously cycle through all switch points one at a time

with a minimum of a 20ms delay between each switch closure. This test should only be done with all

external signals disconnected from the system. Allow the system to cycle a minimum of 1000 cycles but

not more than 10,000 cycles. This may take 24 hours on larger systems, so be prepared to have the system

down for the needed time. Cycling without signals connected serves two purposes: first, in electro-

mechanical systems, it wipes the relay contacts and may clean up any contacts which have become pitted or

dirty due to arcing of live signals while in normal operation, and second, it will cause any borderline

switches to fail mechanically during a scheduled maintenance period when it will be much more convenient

to perform repairs.

7) In relay based systems, once the switch points have been cycled they should be tested for path resistance.

On smaller systems this can simply be done with a handheld ohm meter. On larger systems testing can be a

lengthy procedure without test fixtures and automated resistance measurement equipment. Close each

switchpoint and measure the path resistance between the associated connectors. Typical on resistance for

reed relay systems from input to output should be in the range of 0.2 to 0.6 ohms. Any relays which exceed

this specification should be replaced since this is an indication that the relays are beginning to wear out.

8) Once the system has passed these tests it can be returned to normal operation with full confidence that it

should operate within specified parameters for another three years.

Turn the system on and check for proper operation.

TROUBLESHOOTING

If provided with the system, the front panel LED Indicators are an invaluable aid in debugging computer

programs and troubleshooting problems. These LEDs are in parallel with the switch coils, and are a very

positive indication of whether the coil is energized.

The Status mode also gives a simple method of checking switch operation, and a program can be written so

that the computer can operate each switch and check that the coil has been energized. This program latches

each switch in turn, checks for status, unlatches each switch in turn, checks for status, then multiplexes each

switch in turn, and checks for status again. Any error will be flagged by the computer, but the system can

also be monitored visually by observing the LEDs on the front panel.

No Switches Operating

The power should be checked by the Power LED on the front panel, and by measurements directly on the

motherboard. Check the fuse.

If power is available at the motherboard, then the control module or control inputs are most likely to be at

fault. These should be checked. If the IEEE488 interface is being used, then make sure the Listen Address

is set correctly. Similarly, with RS232, the baud rate must be correct.

Individual Switches Not Operating

The diagnostic program will isolate the failure to the particular relay driver and this can be confirmed by the

LED not being lit (if display LEDs are included). Replacing the LED Display Module should repair this

fault, if not and the LED is still not lit, the failure must be in the relay coil and the relay module should be

changed. If the LEDs and Diagnostic mode show that the logic is operating up to the relays and the contacts

are not closing, then the problem is in the relay and the Module should be changed.

REPAIRS

If the faulty switch module is under warranty, it should be returned to CYTEC for repair or replacement.

Modules out of warranty can also be returned to CYTEC for repair at a reasonable price, which will include

another 5 year warranty.

Repairs can also be made by any competent technician. If encapsulated relays are used, a solder sucker can

be utilized to remove all solder from the pins.

In older systems with open frame reed relays, the reed contacts can easily be replaced without damage to the

circuit board, however, the following method must be followed.

The reed is soldered at each end to terminal posts. Unsolder one end with a heat sink clipped to the terminal

post below the reed switch to prevent heat transfer to the circuit board. Remove all solder so that the reed

wire is free, then repeat with the other end and withdraw the reed.

Replace the reed by reversing the soldering process. Then cut the reed wires to length after soldering.

If mercury wetted reeds are used, ensure that the reeds are replaced with the mercury in the correct position,

i.e. the mercury must be low, and the contacts high, when the module is inserted in the motherboard.

*** WARRANTY ***

CYTEC Corp. warrants that all products are free from defects in material and workmanship and

perform to published specifications for five years from date of shipment. This warranty is in lieu of

any other warranty expressed or implied.

The liability of CYTEC Corp. shall be limited to replacement or repair of any defective units which

are returned F.O.B. to its factory. Units which have been subjected to abuse, misuse, accident,

alteration, neglect, or unauthorized repair are not covered by this warranty.

No liability is assumed for expendable items such as lamps or fuses.

CONTACT 1-800-346-3117

OR WWW.CYTEC-ATE.COM

FOR TECHNICAL ASSISTANCE

1

1

2

2

3

3

4

4

D D

C C

B B

A A

Title:Size:

Number:

Date:

Comments:

Sheet: ofRevision:

Drawn By:

CXR/2X1 SWITCH MODULEA

2-101-1

5/24/20051 1 RHHApproved:

FERRITEL1

CT/2 MODULE

+12

13579111315

2468

10121416

2X8,25SQRJP1

1234567891011121314151617181920

IDH-20-SR1

J1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

43

65

K0B

7

4 3

6 5

K1B

7

A

COM

B

A

COM

B

-1, SINGLE POLE

-2, TWO POLE

4 3K1B

43K0B

12

K0A

12

K1A

0.1uC1

0.1uC3

0.1uC2

K0 - DRIVES 0, 2, 4 OR 6K1 - DRIVES 1, 3, 5, OR 7

GND

A B C

D E F

Power Entry Mod

5EFLA2S

B

C

D

E

1

2

3

4

(NC) 5

Pin 1

GND

GND

BLK

BLUE

YEL

WHT

LINEAR SUPPLYTRANSFORMER

Power Entry Mod

SWITCHING SUPPLY(ie. MAP Supply)

OPTIONAL

Grounding Lug on Chassis

B

C

D

E

1

2

3

4

(NC) 5

GND

GND

BLK

BLUE

YEL

WHT

LINEAR SUPPLYTRANSFORMER

Power Entry Mod

SWITCHING SUPPLY(ie. MAP Supply)

OPTIONAL

Grounding Lug on Chassis

12

11

25

24

BLK

BLUE

BLK

BLUE

WH

T

BLK

WH

T

BLK

OPTIONALROCKER SWITCH

SWX1019

Remove any factoryinstalled jumpers

FOR THE AC SIDE ONLYREAR VIEW

AC SELECTABLE MOD

AC POWER SUPPLY WIRING

STANDARD WIRING

STANDARD WIRING w/ OPTIONAL ROCKER SWITCH

AC IN WIRING FOR 2-463-2 POWER SUPPLY

1

2

3

4

5

6

BLK

WHT

WHT

BLK

B

C

D

EP1

6 PinMolex

CON1108

20 Awg (typical)

GREEN 18 AWGWIR1040

GREEN 18 AWGWIR1040

N LG

Pin 1N LG

BLK

BLUE

YELWHT

GRN

GND

31 4 2

Power Entry Mod

FN393-605-11

REAR VIEW

AC SELECTABLE MOD

BLKYEL

BLUE

WHT

GRN1

4

3

2

1

4

3

2

Schaffner

AMP

New Old

New Old

New

Old

DATE: DRAWN BY:

DRAWING NUMBER:

SIZE: TITLE:

COMMENTS:

B

A

B

C

D

E

1 2 3 4 5 6 7 8

A

B

C

D

E

1 2 3 4 5 6 7 8

CAD FILE:

TOL. +/- .010" U.O.S.

Standard Power Supply WiringAC In Wiring

DR8/10/05 2-190-5B.dcd

2-190-5B 1/3

RELAY POWER

LOGIC POWER+5V

+12V or +15V or +24V or +28V

1

3

5

GRN

RED

CO

N1131

to CL8 M

.B or C

ON

TRO

L MO

D.

12V Yellow

15V Purple

24V Grey

28V Blue

GND

RELAY POWER

LOGIC POWER+5V

+12V1

3

5

GRN

RED

CO

N1131

to CL8 M

.B or C

ON

TRO

L MO

D.

12V Yellow

GND

4-40 x 5/16w/ Kemp NutMount to Power Supply Frame

7805/780-05CKCREG1000

DC POWER SUPPLY WIRING

V1 V1 G G G V2 V3 V4

MAP130 (single output)

V1 V1 G G V2 V3 V4

MAP80 (single output)

Pin

1

V1 G V2 V3 V428V @ V1 (Place 220 Ohm RES1270 across V1 to G)

MAP40 & 55 (single output)

5V @ V112V @ V1 (Place 50 Ohm RES1096 across V1 to G)

5

2

3

4

1GND

+5V

+12V or +15V or +24V or +28V

GRN

RED

12V Yellow

15V Purple

24V Grey

28V Blue

CON1131to CP M.B or CONTROL MOD.

DUAL SUPPLIES

ONE 12V SUPPLY & 5V REG

20 Awg (typical)

20 Awg (typical)

GND

+5V

GRN

RED

OPTIONAL

OPTIONAL

+

-

+

-

+

-

123

Pin

1

Pin

1

28V @ V1 (Place 220 Ohm RES1270 across V1 to G)


28V @ V1 (Place 220 Ohm RES1270 across V1 to G)


V+

V+

V+

RELAY POWER+12V or 28V

1

5

GRN

CO

N1131

to CL8 M

.B or C

ON

TRO

L MO

D.

12V Yellow

GND

SUPPLY (E-PS)20 Awg (typical)

+

-

28V Blue

ONE 12V or 28V

5V Power comes from the MESAthrough the Expansion Cable

Existing DC jumpersMUST be present



(sense)

(sense)

(sense)

1

2

3 +12V or +15V or +24V or +28V

+5VRED

GNDGRN

CON1102to CP M.B with

Thumbwheel Option

DATE: DRAWN BY:

DRAWING NUMBER:

SIZE: TITLE:

COMMENTS:

B

A

B

C

D

E

1 2 3 4 5 6 7 8

A

B

C

D

E

1 2 3 4 5 6 7 8

CAD FILE:

TOL. +/- .010" U.O.S.

Standard Power Supply WiringDC Wiring

DR8/10/05 2-190-5B.dcd

2-190-5B 2/3

GND

+5V

MISCELLANEOUS POWER SUPPLY WIRING

LAN DC POWER (INTERNAL)

RED

RCA Plug CP-3501

24 AWG

(SHORT, USE SHRINK CENTER)

+5V ONLY !! (Not 12V or 28V)

POWER INDICATORR

LEDLED0283GREEN

GND

+VSee Table

LED Resistor Table

Volts Ohms Part #

5V 390 Ohm RES1027

12V 680 Ohm RES1029

15V 2k Ohm RES1049

28V 5.1k Ohm RES1172

FRONT PANEL

2V 10.7 Ohm RES1066

2.5V 100 Ohm RES1085

3.3V 200 Ohm RES1141

Long Lead

24-28 AWG

DATE: DRAWN BY:

DRAWING NUMBER:

SIZE: TITLE:

COMMENTS:

B

A

B

C

D

E

1 2 3 4 5 6 7 8

A

B

C

D

E

1 2 3 4 5 6 7 8

CAD FILE:

TOL. +/- .010" U.O.S.

Standard Power Supply WiringMiscellaneous DC Wiring

DR8/10/05 2-190-5B.dcd

2-190-5B 3/3

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A

DRAWN BY:APPROVED BY

SHEET

REVISION:

DRAWING NUMBER

DATE: 3-Nov-2014

IF-11 Mainframe Ctrl Module

11-14-50/02

11-14-50-02.sch OF

SIZE: TITLE:B2 4

KJA

+5V

+5V

PA0PA1PA2PA3PA4PA5PA6PA7

PB2PB3PB4PB5PB6

+5V+5V

C240.1UF

SHEET 3SHEET 1

GN

D4

GN

D8

GN

D13

GN

D25

GN

D27

GN

D35

GN

D37

GN

D41

GN

D45

GN

D48

GN

D54

GN

D56

GN

D57

GN

D59

GN

D61

GN

D65

GN

D68

GN

D72

GN

D75

GN

D78

GN

D83

GN

D86

GN

D90

GN

D93

GN

D97

VD

D12

VD

D24

VD

D36

VD

D40

VD

D58

VD

D60

VD

D69

VD

D87

VD

D94

MODE53

DACKN33

DIO8N 71DIO7N 74DIO6N 77DIO5N 80DIO4N 88DIO3N 89DIO2N 91DIO1N 92

EOIN 85

RENN 70

DAVN 84

NRFDN 82NDACN 81

IFCN 79

SRQN 76ATNN 73

DATA039

DATA142

DATA243

DATA344

DATA446

DATA547

DATA649

DATA750

DATA811

DATA910

DATA109

DATA117

DATA126

DATA135DATA143

DATA152

ADDR015

ADDR116

ADDR217

ADDR318

ADDR419

ABUSN14

PAGED26

SWAPN29

BURST_RDN31

CSN55

BBUSN62

RDN63

WRN64

RESETN67

XTAL095

XTAL196

KEYDQ99

BBUS_OEN 1

ABUS_OEN 20

TADCS 21

CPUACC 22

TRIG 23

REM 28

FIFO_RDY 30

RDY 38

DRQ 32

INTR 34

DCAS 51

NC 52

KEYRSTN 100

LADCS 66

KEYCLKN 98

U16

TNT4882E/D1

GND2 OUTPUT 3

+5VDC 4Y1 40MHz

IEEE488 CONTROL

IOWRIORDSH 1

RES

PE1 SH 1

PE7

C190.1uF

C200.1uF

C210.1uF

C220.1uF

C230.1uF

R1110K

VCC

R1010K

1P2A

26 Pin Header

2P2B

3P2C

4P2D

5P2E

6P2F

7P2G

8P2H

9P2I

10P2J

11P2K

12P2L

13P2M

14P2N

15P2O

16P2P

17P2Q

18P2R

19P2S

20P2T

21P2U

22P2V

23P2W

24P2X

25P2Y26P2Z

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 3-Nov-2014


11-14-50/03

11-14-50-03.sch OF

SIZE: TITLE:B3 4

KJA

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 16

4D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U4 74HCT574

G1 1

G2 19

A7 9

Y711

A6 8

Y612

A5 7

Y513

A4 6

Y414

A3 5

Y315

A2 4

Y216

A1 3

Y117

A0 2

Y018

VCC20

GND10

U9 74LCX541

LCD CTRL



+5V

VCC

PNL_I/O0PNL_I/O1PNL_I/O2PNL_I/O3PNL_I/O4PNL_I/O5PNL_I/O6PNL_I/O7

PNL_CTL0PNL_CTL1PNL_CTL2PNL_CTL3PNL_CTL4PNL_CTL5PNL_CTL6PNL_CTL7

SH 1 WR6

1

23456789

RP4 10K

+5V

RD6 SH 1

C7

0.1uF

C120.1uF

SHEET 2

16

468

1012

1415

13

2

579

1113

P1+5V

FRONT PANELINTERFACEHEADER

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 16

4D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U3 74LCX574


SH 1 WR7

VCC

PD3SH 1

CS0

CS1CS2CS3CS4CS5CS6

CS7

1

23456789

RP3 10K

VCCCHIP SELECTION

C6

0.1uF

SH 4

SHEET 4

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 3-Nov-2014


11-14-50/03

11-14-50-04.sch OF

SIZE: TITLE:B4 4

KJA

CONTROL

SHEET 3

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 16

4D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U5 74LCX/HCT574

G1 1

G2 19

A7 9

Y711

A6 8

Y612

A5 7

Y513

A4 6

Y414

A3 5

Y315

A2 4

Y216

A1 3

Y117

A0 2

Y018

VCC20

GND10

U10 74LCX541



VCC

SH 1 WR0

1

23456789

RP510K

+V

SH 1

C8

0.1uF

C130.1uF

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 164D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U6 74LCX/HCT574

G1 1

G2 19

A7 9

Y711

A6 8

Y612

A5 7

Y513

A4 6

Y414

A3 5

Y315

A2 4

Y216

A1 3

Y117

A0 2

Y018

VCC20

GND10

U11 74LCX541



VCC

SH 1 WR1

1

23456789

RP610K

+V

SH 1

C9

0.1uF

C140.1uF

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 16

4D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U7 74LCX/HCT574

G1 1

G2 19

A7 9

Y711

A6 8

Y612

A5 7

Y513

A4 6

Y414

A3 5

Y315

A2 4

Y216

A1 3

Y117

A0 2

Y018

VCC20

GND10

U12 74LCX541



VCC

SH 1 WR2

1

23456789

RP710K

+V

SH 1

C10

0.1uF

C150.1uF

OE1

CLK11

0D2 0Q 19

1D3 1Q 18

2D4 2Q 17

3D5 3Q 164D6 4Q 15

5D7 5Q 14

6D8 6Q 13

7D9 7Q 12

VCC 20

GND 10

U8 74LCX/HCT574

G1 1

G2 19

A7 9

Y711

A6 8

Y612

A5 7

Y513

A4 6

Y414

A3 5

Y315

A2 4

Y216

A1 3

Y117

A0 2

Y018

VCC20

GND10

U13 74LCX541



VCC

SH 1 WR3

123456789

RP810K +V

SH 1

C11

0.1uF

C160.1uF

+V

+V +V

+V

RD0

RD1 RD3

RD2

RD0

CS7 SH 3

1P6A

CON-16PIN2 P6B

3P6C

4 P6D

5P6E

6 P6F

7P6G

8 P6H

9P6I

10 P6J

11P6K

12 P6L

13P6M

14 P6N

15P6O

16 P6P

1P7A

CON-16PIN2 P7B

3P7C

4 P7D

5P7E

6 P7F

7P7G

8 P7H

9P7I

10 P7J

11P7K

12 P7L

13P7M

14 P7N

15P7O

16 P7P

1P8A

CON-16PIN2 P8B

3P8C

4 P8D

5P8E

6 P8F

7P8G

8 P8H

9P8I

10 P8J

11P8K

12 P8L

13P8M

14 P8N

15P8O

16 P8P

1P9A

CON-16PIN2 P9B

3P9C

4 P9D

5P9E

6 P9F

7P9G

8 P9H

9P9I

10 P9J

11P9K

12 P9L

13P9M

14 P9N

15P9O

16 P9P

1

23456789

RP2 10K

VCC


JP3Voltage Select

VCC

+V

+5V

LCX HCT

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A

+5V

JP2

JP1

123456789

101112131415

MOD15

123456789

101112131415

MOD14

123456789

101112131415

MOD13

123456789

101112131415

MOD12

123456789

101112131415

MOD11

123456789

101112131415

MOD10

123456789

101112131415

MOD9

123456789

101112131415

MOD8

123456789

101112131415

MOD7

123456789

101112131415

MOD6

123456789

101112131415

MOD5

123456789

101112131415

MOD4

123456789

101112131415

MOD3

123456789

101112131415

MOD2

123456789

101112131415

MOD1

123456789

101112131415

MOD0

A1BCDEFHJKLMNPRS

23456789

101112131415

CONTROL

0.156" X 5

MODULE SLOTS 8-15 NOT USED

CL/64

RLY-8 - OPEN ------------- JP1 OPEN

+12 TO PIN 14 ------------- JP2, JP3 TO 14

+12 TO PIN 14 ------------- JP2, JP3 TO 14

RLY-8 - OPEN ------------- JP1 OPEN

CL/128

+12 TO PIN 15 ------------- JP2, JP3 TO 15

RLY-8 - INSTALLED ---- JP1 INSTALLED

CL/256

VRLY

RLY-8

*RLY-8

ST-STBSW-STB

MUX/*MTX

STATUSGND

RLY-4RLY-2RLY-1LAT/*UNL+5V

*MOD-8MOD-8

MOD-0MOD-1MOD-2MOD-3MOD-4MOD-5MOD-6MOD-7

PIN 14

PIN 15

POWER

JUMPER CONNECTIONS


SHEET

REVISION:

DRAWING NUMBER

DATE: 10/7/2004

CL64, 128 AND 256 MOTHERBOARD

12-00-50

12-00-50.SchDoc OF

SIZE: TITLE:B

REVISED FROM:

1 1

6-012-2

1.2KR1

OPT.

RHB

JP3

1

2

3

4

5

P1

+5V

FERRITE

L1

R1 (1.2K) INSTALLED FOR PX/512 CHASSIS.P2

1 2 3 4 5 6 7 8

A

B

C

D

87654321

D

C

B

A DRAWN BY:APPROVED BY

SHEET

REVISION:

DRAWING NUMBER

DATE: 2-Dec-2013

CP64, 128 AND 256 MOTHERBOARD

12-01-50/01

OF

SIZE: TITLE:

1 3

APPROVED BY

DATE: 2-Dec-2013

SIZE: TITLE:A3

REVISED FROM:

KJA

12-01-50-01.SCH

12345

J1

12345

J2

L1

L3

+5V

+12V

+ C147uF

+ C247uF

L2

L4+3.3V

+28V

+ C347uF

+ C447uF

+5V+12V

MOD!8MOD8

Lat/Un*SW-STB*ST-STB*MUX

Rly1Rly2Rly4Rly8Rly16Rly32Rly64Rly128

*MBEN

STAT0

A1CTRLAPCI_EXPRESS_98

A2CTRLBA3CTRLC

A8CTRLH

A9CTRLI

A10CTRLJ

A11CTRLK

A12CTRLL

A14CTRLNA16CTRLPA18CTRLRA20CTRLTA22CTRLVA24CTRLXA26CTRLZA28CTRL\

A30CTRL^A32CTRL`A34CTRLbA36CTRLdA38CTRLfA40CTRLhA42CTRLjA44CTRLl

A45CTRLmA46CTRLnA47CTRLoA48CTRLpA49CTRLq

B1CTRLrB2CTRLsB3CTRLt

B8CTRLy

B9CTRLz

B10CTRL{

B11CTRL|

B12CTRL}

B13CTRL~

B14 CTRL

B15CTRL€

B16 CTRL

B17CTRL‚

B18CTRLƒ

B19CTRL„

B20CTRL…

B21CTRL†

B22CTRL‡

B23CTRLˆ

B24CTRL‰

B25CTRLŠ

B26CTRL‹

B27CTRLŒ

B28 CTRL

B29CTRLŽ

B30 CTRL

B31 CTRL

B32CTRL‘

B33CTRL’

B34CTRL“

B35CTRL”

B36CTRL•

B37CTRL–B38CTRL—B39CTRL˜

B40CTRL™

B41CTRLš

B42CTRL›

B43CTRLœ

B44 CTRL

B45CTRLžB46CTRLŸB47CTRL B48CTRL¡B49CTRL¢

STAT1STAT2STAT3STAT4STAT5STAT6STAT7

CTRL

SP1SP2SP3SP4SP5SP6SP7SP8

SP9

SP10SP11

SP12

A4CTRLDB4CTRLuA5CTRLE

A6CTRLFB5CTRLv

B6CTRLw

+3.3V

B7CTRLxA7CTRLG

+28V

A13CTRLMA15CTRLOA17CTRLQA19CTRLSA21CTRLUA23CTRLWA25CTRLYA27CTRL[

A29CTRL]A31CTRL_A33CTRLaA35CTRLcA37CTRLeA39CTRLgA41CTRLiA43CTRLk

MOD0MOD1MOD2MOD3MOD4MOD5MOD6MOD7

NC

TO SHEETS 2 AND 3

1 2 3 4 5 6 7 8

A

B

C

D

87654321

D

C

B


SHEET

REVISION:

DRAWING NUMBER

DATE: 2-Dec-2013


12-01-50/02

OF

SIZE: TITLE:

2 3

APPROVED BY

DATE: 2-Dec-2013

SIZE: TITLE:A3

REVISED FROM:

KJA

12-01-50-02.SCH

+5V

+12V

MOD!8MOD7



*MBEN

STAT0

A1E7APCI_EXPRESS_98

A2E7BA3E7C

A8E7H

A9E7I

A10E7J

A11E7K

A12E7L

A13E7M

A14E7N

A15E7O

A16E7P

A17E7Q

A18E7R

A19E7S

A20E7T

A21E7U

A22E7V

A23E7W

A24E7X

A25E7Y

A26E7Z

A27E7[

A28E7\

A29E7]

A30E7^

A31E7_

A32E7`

A33E7a

A34E7b

A35E7c

A36E7d

A37E7e

A38E7f

A39E7g

A40E7h

A41E7i

A42E7j

A43E7k

A44E7l

A45E7mA46E7nA47E7oA48E7pA49E7q

B1E7rB2E7sB3E7t

B8E7y

B9E7z

B10E7{

B11E7|

B12E7}

B13E7~

B14 E7

B15E7€

B16 E7

B17E7‚

B18E7ƒ

B19E7„

B20E7…

B21E7†

B22E7‡

B23E7ˆ

B24E7‰

B25E7Š

B26E7‹

B27E7Œ

B28 E7

B29E7Ž

B30 E7

B31 E7

B32E7‘

B33E7’

B34E7“

B35E7”

B36E7•

B37E7–

B38E7—

B39E7˜

B40E7™

B41E7š

B42E7›

B43E7œ

B44 E7

B45E7žB46E7ŸB47E7 B48E7¡B49E7¢

BU

SSE

D S

PAR

ES

NC


+5V

+12V

A1E6APCI_EXPRESS_98

A2E6BA3E6C

A8E6H

A9E6I

A10E6J

A11E6K

A12E6L

A13E6M

A14E6N

A15E6O

A16E6P

A17E6Q

A18E6R

A19E6S

A20E6T

A21E6U

A22E6V

A23E6W

A24E6X

A25E6Y

A26E6Z

A27E6[

A28E6\

A29E6]

A30E6^

A31E6_

A32E6`

A33E6a

A34E6b

A35E6c

A36E6d

A37E6e

A38E6f

A39E6g

A40E6h

A41E6i

A42E6j

A43E6k

A44E6l


B1E6rB2E6sB3E6t

B8E6y

B9E6z

B10E6{

B11E6|

B12E6}

B13E6~

B14 E6

B15E6€

B16 E6

B17E6‚

B18E6ƒ

B19E6„

B20E6…

B21E6†

B22E6‡

B23E6ˆ

B24E6‰

B25E6Š

B26E6‹

B27E6Œ

B28 E6

B29E6Ž

B30 E6

B31 E6

B32E6‘

B33E6’

B34E6“

B35E6”

B36E6•

B37E6–

B38E6—

B39E6˜

B40E6™

B41E6š

B42E6›

B43E6œ

B44 E6


+5V

+12V

A1E5APCI_EXPRESS_98

A2E5BA3E5C

A8E5H

A9E5I

A10E5J

A11E5K

A12E5L

A13E5M

A14E5N

A15E5O

A16E5P

A17E5Q

A18E5R

A19E5S

A20E5T

A21E5U

A22E5V

A23E5W

A24E5X

A25E5Y

A26E5Z

A27E5[

A28E5\

A29E5]

A30E5^

A31E5_

A32E5`

A33E5a

A34E5b

A35E5c

A36E5d

A37E5e

A38E5f

A39E5g

A40E5h

A41E5i

A42E5j

A43E5k

A44E5l


B1E5rB2E5sB3E5t

B8E5y

B9E5z

B10E5{

B11E5|

B12E5}

B13E5~

B14 E5

B15E5€

B16 E5

B17E5‚

B18E5ƒ

B19E5„

B20E5…

B21E5†

B22E5‡

B23E5ˆ

B24E5‰

B25E5Š

B26E5‹

B27E5Œ

B28 E5

B29E5Ž

B30 E5

B31 E5

B32E5‘

B33E5’

B34E5“

B35E5”

B36E5•

B37E5–

B38E5—

B39E5˜

B40E5™

B41E5š

B42E5›

B43E5œ

B44 E5


+5V

+12V

A1E4APCI_EXPRESS_98

A2E4BA3E4C

A8E4H

A9E4I

A10E4J

A11E4K

A12E4L

A13E4M

A14E4N

A15E4O

A16E4P

A17E4Q

A18E4R

A19E4S

A20E4T

A21E4U

A22E4V

A23E4W

A24E4X

A25E4Y

A26E4Z

A27E4[

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DRAWING NUMBER

DATE: 2-Dec-2013


12-01-50/03

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DATE: 2-Dec-2013

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E8 E9 E10 E11 E12 E13 E14 E15


SP9

SP10SP11

SP12

A5E8E

A6E8FB5E8v

B6E8w

+3.3V

B7E8xA7E8G

A4E9DB4E9uA5E9E

A6E9FB5E9v

B6E9w

+3.3V

B7E9xA7E9G

A4E10DB4E10uA5E10E

A6E10FB5E10v

B6E10w

+3.3V

B7E10xA7E10G

A4E11DB4E11uA5E11E

A6E11FB5E11v

B6E11w

+3.3V

B7E11xA7E11G

A4E12DB4E12uA5E12E

A6E12FB5E12v

B6E12w

+3.3V

B7E12xA7E12G

A4E13DB4E13uA5E13E

A6E13FB5E13v

B6E13w

+3.3V

B7E13xA7E13G

A4E14DB4E14uA5E14E

A6E14FB5E14v

B6E14w

+3.3V

B7E14xA7E14G

A4E15DB4E15uA5E15E

A6E15FB5E15v

B6E15w

+3.3V

B7E15xA7E15G

+28V +28V +28V +28V +28V +28V +28V +28V

TO SHEET 1

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 2-Dec-2013

CP MAINFRAME ADAPTER CARD

12-02-50

12-02-50.SCH OF

SIZE: TITLE:B1 1

KJA

MOTHERBOARD EDGE CONNECTION

DS1

LED

+5V

+12V

MOD!8MOD8



*MBEN

STAT0

A1E1APCI_EXPRESS_98

A2E1BA3E1C

A8E1H

A9E1I

A10E1J

A11E1K

A12E1L

A14E1NA16E1PA18E1RA20E1TA22E1VA24E1XA26E1ZA28E1\

A30E1^A32E1`A34E1bA36E1dA38E1fA40E1hA42E1jA44E1l


B1E1rB2E1sB3E1t

B8E1y

B9E1z

B10E1{

B11E1|

B12E1}

B13E1~

B14 E1

B15E1€

B16 E1

B17E1‚

B18E1ƒ

B19E1„

B20E1…

B21E1†

B22E1‡

B23E1ˆ

B24E1‰

B25E1Š

B26E1‹

B27E1Œ

B28 E1

B29E1Ž

B30 E1

B31 E1

B32E1‘

B33E1’

B34E1“

B35E1”

B36E1•

B37E1–

B38E1—

B39E1˜

B40E1™

B41E1š

B42E1›

B43E1œ

B44 E1B45E1žB46E1ŸB47E1 B48E1¡B49E1¢



SP9

SP10SP11

SP12

A4E1DB4E1uA5E1E

A6E1FB5E1v

B6E1w

B7E1xA7E1G

+28V

A13E1MA15E1OA17E1QA19E1SA21E1UA23E1WA25E1YA27E1[

A29E1]A31E1_A33E1aA35E1cA37E1eA39E1gA41E1iA43E1k


NC

R1

390

R2

1KR3

3.3K

+12V

+28V

13579

111315

246810121416

P6

IDH16

13579

111315

246810121416

P7

IDH16

13579

111315

246810121416

P8

IDH16

13579111315

2468

10121416

P9

IDH16

*SW-STB*MBENLat/Un

*ST-STBMOD!8MOD8*MUX

1

2 3 4 5 6 7 8 9

RP13.3K

+5V

R42K



STAT0STAT1STAT2STAT3STAT4STAT5STAT6STAT7

1

2 3 4 5 6 7 8 9

RP23.3K

+5VR52K

R62K

3.3V

14-06-29

16x1 COVER PLATE

16x1 CHANNEL

.8 Grey Jumpers

1" long 20AWG Red WireCut Down This Center

#CON0064 (16)

2-56x1/2" HEX STAND OFF (2)

w/ 2-56 x 1/4" PFH (4)

#CON0089 (1)INSTALL FIRST

STAR LOCK WASHERS

MALE BNC

FEMALE BNC

BE SURE NO ANODIZE IS IN HOLES

OR THREADS

PUSH-ON

PLUG

JACK

LOCK NUT

NO LOCK NUT

14-06-29.dw2 DR12/22/03

CXBS/16 BUS BAR 16x1.5.75.25

1.00

4321

D

C

B

A

5 6 7 8

F

E

G

D

C

B

A

F

E

G

4321 5 6 7 8

DATE: DRAWN BY:

DRAWING NUMBER:

SIZE: TITLE:

COMMENTS:

C

CAD FILE:

TOL. +/- .010" U.O.S.

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 11-Oct-2013

EXP. IF ADAPTOR (For IF-9 Ctrl. Mod.)

16-00-53

16-00-53.SCH OF

SIZE: TITLE:B1 1

KJA

MUX(RST)

ST-STB

SW-STB

*MOD8MOD8

STAT

L/*U(DATA)

1234

67

26

MOD5MOD4

MOD3MOD2

MOD1

MOD0

RLY8

*RLY8

8

101112

1415

1718

RLY2

RLY1

MOD7

MOD6

RLY4

19

2122

2425

5

9

13

16

20

23

2728293031323334

GND

GND

GND

GND

GND

GND

GND

GND+5

+12

1 A 2 B 3 C 4 D 5 E 6 F 7 H 8 J 9 K 10 L 11 M 12 N 13 P 14 R 15 S

34 PIN HEADER

MOTHERBOARD EDGE CONNECTION

DS1

LED

R1VDD

1

2 3 4 5 6 7 8 9

RP1 10K 1

23456789

RP2 10K 1

23456789

RP3 10K

R2

390

VCC

VDD

SEE NOTE 1

NOTE 1. SEE CHART FOR VALUES FOR R1

CHART 1

STANDARD 12V 1K

HXV 5V 560

CXM 24V 3.3K

R1DES VOLTS

2P6B

CON-16PIN

6P6F10P6J

16P6P

2P7BCON-16PIN

4P7D

6P7F8P7H

10P7J12P7L14P7N16P7P

1P8A

CON-16PIN

2P8B4P8D

6P8F

8P8H10P8J12P8L14P8N

P6

P7

P8

R41.2K

R31.5K

VCC

1 2 3 4

A

B

C

D

4321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 27-Jan-2004

CXR/2X1-C2

21-00-50

M:\ENG\BDrawings\2100_99se\21-00-50.ddb - Documents\21-00-50.sch OF

SIZE: TITLE:A

REVISED FROM:

11

C10.1u

L1 FERRITE

C20.1u

+12

1

X1

PAD

1

X2

PAD

1

X3

PAD

1

X4

PAD

MOUNTING PADS

13579111315

2468

10121416

JP1 2X8,25SQR

1234567891011121314151617181920

J1

IDH-20-SR1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

BNC

DRV3 4

2K1B

8 79K1C

110

K1A

NC

COM

NONO

COM

NC

RHB

NC*

COM*

NO*

NC

BNC-TWIN

COM

BNC-TWIN

NO

BNC-TWIN

NONO*

COMCOM*

NCNC*

1

1

2

2

3

3

4

4

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 12/29/2004

CXR/2X1-GT-50 SW MODULE

21-01-50

M:\ENG\BDrawings\21-01-50.sch OF

SIZE: TITLE:A

REVISED FROM:

11

0.1uC1

L1

0.1uC3

+12

13579111315

2468

10121416

JP1

1234567891011121314151617181920

J1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

1615

+

K0A

0.1uC2

1615

+

K1A

K0 - DRIVES 0,2,4,OR 6

K1 - DRIVES 1,3,5,OR 7

A

4 17K0B

50

R1

4 17

K1B

11 148

K1C

50

R2

A

C

B

COM

B

1

PAD

X1

1

PAD

X2

1

PAD

X3

1

PAD

X4

MOUNTING PADS

2356

K0C

RELAY GROUNDS

2356

K1D

9101213

K1E

RHB

P0

P1

P2

2-101-1

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 12/29/2004

CXR/8X1-BL

21-02-50

M:\ENG\BDrawings\21-02-50.sch OF

SIZE: TITLE:B

REVISED FROM:

1 1

RELAY DRIVETWIN-BNC OPTION OPTION

BALANCED LINES

J1 - 20 PIN HEADER ISOLATED BNC OPTION

SIGNAL CONNECTIONS

RHB

3 4

78

K0B

3 4

78

K1B

3 4

78

K2B

3 4

78

K3B

3 4

78

K4B

3 4

78

K5B

3 4

78

K6B

3 4

78

K7B

3 42K8B

8 79K8C

3 42K9B

8 79K9C

OUT_H0

OUT_H1

OUT_H2

OUT_H3

OUT_H4

OUT_H5

OUT_H6

OUT_H7

OUT_H0

OUT_H1

OUT_H2

OUT_H3

OUT_H4

OUT_H5

OUT_H6

OUT_H7

OUT_H0

OUT_H1

OUT_H2

OUT_H3

OUT_H4

OUT_H5

OUT_H6

OUT_H7

OUT_L0

OUT_L1

OUT_L2

OUT_L3

OUT_L4

OUT_L5

OUT_L6

OUT_L7

OUT_L0

OUT_L1

OUT_L2

OUT_L3

OUT_L4

OUT_L5

OUT_L6

OUT_L7

OUT_L0

OUT_L1

OUT_L2

OUT_L3

OUT_L4

OUT_L5

OUT_L6

OUT_L7

IN_HIN_H IN_HIN_LIN_L

IN_L

P1

P2

P3

P4

P5

P6

P7

P8

P0

12345678 9

10111213141516

TND90x

CRP1

123

456789

1011121314151617181920

IDH20

J1

0

1

2

6

7

5

4

3

+12

0.1uC1

FERRITE

L1

3/7

2/61/50/4

JP112345678

110

K9A

110

K8A

110

K0A

110

K1A

110K2A

110

K3A

110

K4A

110K5A

110

K6A

110

K7A

JUMPERS --- JP1

MODULE SIZE RELAYS JUMPERS

1 X 4

1 X 4

1 X 8

0, 1, 2, 3

4, 5, 6, 7

0 - 7

1, 2, 3, 6

4, 5, 6, 7

1, 2, 3, 8

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


A

SHEET

REVISION:

DRAWING NUMBER

DATE: 19-Oct-2006

CXR/2(4X1)-LL

21-13-50-1

21-13-50-1.sch OF

SIZE: TITLE:B1 1

KJA

8 9CRP1H

L1 FERRITE

C10.1u

1 16CRP1A

2 15CRP1B

3 14CRP1C

4 13CRP1D

5 12CRP1E

6 11CRP1F

7 10CRP1G

+12

J1 - RELAY DRIVE CONNECTION

DRV3

DRV2

DRV1

DRV0

DRV4

DRV5

DRV6

DRV7

+12V123456789

1011121314151617181920

J1

13579

111315

246810121416

JP1 DRV0/4DRV1/5DRV2/6

DRV3/7

8X1, 4X1 DRIVE JUMPERS

DRVA

DRVB

PLN

23K0A

1

K0B

23K1A

23K2A

23K3A

23K4A

23K5A

23K6A

23K7A

23K8A

23K9A

P0

PL0S0G0

PLN 1

K1BP1

PL1S1G1

PLN 1

K2BP2

PL2S2G2

PLN 1

K3BP3

PL3S3G3

PLN 1

K8BACOM

PL8S8G8

PLN 1

K9BBCOM

PL9S9G9

PLN 1

K4BP4

PL4S4G4

PLN 1

K5BP5

PL5S5G5

PLN 1

K6BP6

PL6S6G6

PLN 1

K7BP7

PL7S7G7

C2

0.1uF

C3

0.1uF

C4

0.1uF

C5

0.1uF

C6

0.1uF

C7

0.1uF

C8

0.1uF

C9

0.1uF

C10

0.1uF

C11

0.1uF+12

+12

1

1

2

2

3

3

4

4

5

5

6

6

7

7

8

8

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 4/14/2005

CXR/8X1-1T SWITCH MODULE

21-14-50

O F

SIZE: TITLE:

1 1

APPROVED BY

DATE: 4/14/2005

SIZE: TITLE:

A3

REVISED FROM:2-442-2

RHB

21-14-50

8 9CRP1H

FERRITEL1

0.1UFC1

1 1 6CRP1A

2 1 5CRP1B

3 1 4CRP1C

4 1 3CRP1D

5 1 2CRP1E

6 1 1CRP1F

7 1 0CRP1G

+12J1 - RELAY DRIVE CONNECTION

DRV3

DRV2

DRV1

DRV0

DRV4

DRV5

DRV6

DRV7

+12V123456789

1011121314151617181920

J1

13579111315

2468

10121416

JP1

DRV0/4DRV1/5DRV2/6

DRV3/7


DRVA

DRVBCOM

P 0

R0

P 1

R1

P 2

R2

P 3

R3

P 4

R4

P 5

R5

P 6

R6

P 7

R7

1 2K0A

4 35

K0B

4 35K1B

4 35K2B

4 35K3B

4 35K4B

4 35

K5B

4 35K6B

4 35K7B

1 2K7A

1 2K6A

1 2K5A

1 2K4A

1 2K3A

1 2K2A

1 2K1A

CHART

RESISTOR VALUETYPE

T1KT50T75

R0-R7R0-R7R0-R7

1K49.975

NOTES:1. UNLESS OTHERWISE SPECIFIED ALL RESISTORS ARE IN OHMS.

21K8A

21K9A

34 K8B

34 K9B

1

1

2

2

3

3

4

4

5

5

6

6

7

7

8

8

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 4/14/2005

CXR/8X1-1S SWITCH MODULE

21-14-51

OF

SIZE: TITLE:

1 1

APPROVED BY

DATE: 4/14/2005

SIZE: TITLE:A3


RHB

21-14-51

8 9CRP1H

FERRITEL1

0.1UFC1

1 16CRP1A

2 15CRP1B

3 14CRP1C

4 13CRP1D

5 12CRP1E

6 11CRP1F

7 10CRP1G


DRV3

DRV2

DRV1

DRV0

DRV4

DRV5

DRV6

DRV7

+12V123456789

1011121314151617181920

J1

13579111315

2468

10121416

JP1

DRV0/4DRV1/5DRV2/6

DRV3/7


DRVA

DRVBCOM

P0

P1

P2

P3

P4

P5

P6

P7

1 2K0A

1 2K7A

1 2K6A

1 2K5A

1 2K4A

1 2K3A

1 2K2A

1 2K1A

4 3K0B

4 3K1B

4 3K2B

4 3K3B

4 3K4B

4 3K5B

4 3K6B

4 3K7B

21K8A

21 K9A

34 K8B

34

K9B

1

1

2

2

3

3

4

4

5

5

6

6

7

7

8

8

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 4/14/2005

CXR/4X1-1T SWITCH MODULE

21-14-52

OF

SIZE: TITLE:

1 1

APPROVED BY

DATE: 4/14/2005

SIZE: TITLE:A3


RHB

21-14-52

8 9CRP1H

FERRITEL1

0.1UFC1

1 16CRP1A

6 11CRP1F

7 10CRP1G


DRV3

DRV2

DRV1

DRV0

DRV4

DRV5

DRV6

DRV7

+12V123456789

1011121314151617181920

J1

13579111315

2468

10121416

JP1

DRV0/4DRV1/5DRV2/6

DRV3/7


DRVA

COM

P0

R0

P1

R1

P2

R2

P3

R3

1 2K0A

4 35K0B

4 35K1B

4 35K2B

4 35K3B 1 2

K3A

1 2K2A

1 2K1A

CHART

RESISTOR VALUETYPE

T1KT50T75

R0-R3R0-R3R0-R3

1K49.975

NOTES:1. UNLESS OTHERWISE SPECIFIED ALL RESISTORS ARE IN OHMS.

21K8A

34 K8B

1

1

2

2

3

3

4

4

5

5

6

6

7

7

8

8

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 4/14/2005

CXR/4X1-1S SWITCH MODULE

21-14-53

OF

SIZE: TITLE:

1 1

APPROVED BY

DATE: 4/14/2005

SIZE: TITLE:A3


RHB

21-14-53

8 9CRP1H

FERRITEL1

0.1UFC1

1 16CRP1A

6 11CRP1F

7 10CRP1G


DRV3

DRV2

DRV1

DRV0

DRV4

DRV5

DRV6

DRV7

+12V123456789

1011121314151617181920

J1

13579111315

2468

10121416

JP1

DRV0/4DRV1/5DRV2/6

DRV3/7


DRVA

COM

P0

P1

P2

P3

1 2K0A

1 2K3A

1 2K2A

1 2K1A

4 3K0B

4 3K1B

4 3K2B

4 3K3B

21K8A

34 K8B

1

2

3

4

5

6

10

9

11 12 15.6" DEEP x 19" WIDE x 7" HIGH1 14-10-20 CHASSIS ASSY

2 CL8 HOLDDOWN ASSY3 CL/128 MOTHERBOARD4 CL8 DISPLAY MOD.5 CX POWER SUPPLY SHELF

w/ 12V-1.7A & 5V-1.2A P.S.

6 99-00-30 CABLE ASSY7 RS-232 & LAN Cables8 IF-9 Control Interface Module9 AC SELECTABLE POWER ENTRY

10 SWITCH MOD PER ORDER11 OPTIONAL KEYPAD M.C.12 16x8 OVERLAY FRONT PANEL

POWER WIRING #2-190-5B

12V pin 55V pin 3

GND pin 1

GND pins 1, 25V pins 3, 4

8

7

16 pin1:1 Cable

21-37-00

5V-1.2A12V-1.7A

Mount Here

Mount Here

POW

ERM

.C.

J4P

1

DATE: DRAWN BY:

DRAWING NUMBER:.5

.75.25

1.00

SIZE: TITLE:

COMMENTS:

D

A

B

C

D

E

1 2 3 4 5 6 7 8

A

B

C

D

E

1 2 3 4 5 6 7 8

CAD FILE:

TOL. +/- .010" U.O.S.

CXAR/128-MAINFRAME w/ IF-915" DEEP VERSION

PV8/5/13 21-37-00.dw2

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 18-May-2012

CXR/8x1-1H SWITCH MODULE

21-24-50

21-24-50.SCH OF

SIZE: TITLE:B1 1

KJA

P0

COM

12345678 9

10111213141516

CRP1

TND90x

R1

P1R2

P2R3

P3R4

P4R5

P5R6

P6R7

P7R8

123456789

1011121314151617181920

J1

IDH20

0

1

2

6

7

5

4

3

+12

C10.1u

L1

FERRITE

3/7

2/61/50/4

JUMPER12345678

JUMPERS

MODULE SIZE RELAYS JUMPERS 1 X 4 0,1,2,3 1,2,3,8 1 X 4 4,5,6,7 4,5,6,7 1 X 8 0 - 7 1,2,3,8

1 2K0A

435 K0B

1 2K1A

435 K1B

1 2K2A

435 K2B

1 2K3A

435 K3B

1 2K4A

435 K4B

1 2K5A

435 K5B

1 2K6A

435 K6B

1 2K7A

435 K7B

12 K8A

435 K8B

12 K9A

435 K9B

12 K10A

435 K10B

12 K11A

435 K11B

12 K12A

435 K12B

12 K13A

435 K13B

12 K14A

435 K14B

12 K15A

435 K15B

12 K16A

4 35K16B

12 K17A

4 35

K17B

1

3

4

5

6

10

9

11 12 15.6" DEEP x 19" WIDE x 7" HIGH1 14-10-20 CHASSIS ASSY

2 CP HOLDDOWN ASSY3 CP/128 MOTHERBOARD4 CP8 DISPLAY MOD.5 CX POWER SUPPLY SHELF

w/ 12V-1.7A & 5V-1.2A P.S.

6 99-00-30 CABLE ASSY7 IEEE-488, RS-232 & LAN CABLES8 CONTROL INTERFACE MODULE9 AC SELECTABLE POWER ENTRY

10 SWITCH MOD PER ORDER11 OPTIONAL KEYPAD M.C.12 16x8 OVERLAY FRONT PANEL

2-190-5B Power Wiring

12V pin 55V pin 3

GND pin 1

GND pins 1, 25V pins 3, 4

8

1:1 Cable16 pin

721-32-30 Control Wiring

13 CP MAINFRAME ADAPTER MOD(12-02-10)

13

2

21-32-00

5V-1.2A12V-1.7A

Mount Here

Mount Here

PO

WE

RM

.C.

J4P

1

DATE: DRAWN BY:

DRAWING NUMBER:.5

.75.25

1.00

SIZE: TITLE:

COMMENTS:

D

A

B

C

D

E

1 2 3 4 5 6 7 8

A

B

C

D

E

1 2 3 4 5 6 7 8

CAD FILE:

TOL. +/- .010" U.O.S.

CXAR/128-CP-MF w/ IF-9 or IF-11CP Motherboard Version

PV9/8/14 21-32-00.dcd

1/14/15 DRA Added IF-11 & New Holddown

1 2 3 4

A

B

C

D

4321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 1-Oct-2013

CXR/2X1-75 SW MODULE

30-10-50-1

OF

SIZE: TITLE:A11

1

X1

PAD

1

X2

PAD

1

X3

PAD

1

X4

PAD

MOUNTING PADS

KJA

C10.1u

L1 FERRITE

C20.1u

+12

13579111315

2468

10121416

JP1 2X8,25SQR

1234567891011121314151617181920

J1

IDH-20-SR1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

NC

COM

NO

NC

COM

NO

71

+

K0A

BNC

DRV11 814

K0B

ARE13129101213

K0C

Place Single Jumper Across JP1 At Desired Drive Location To Actuate Relay

Drive Numbers Are Labeled On PCB

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 10/1/2013

CXG/8X1 (50 0HM) SWITCH MODULE

30-17-50

30-17-50.SchDoc OF

SIZE: TITLE:B

REVISED FROM:

1 1

71 +K1A

11814

K0B

1 16CRP1A

TND903-1 C30.1UF

L1 INDUCTOR

R1

68012

468

10121416

3579111315

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

2 15CRP1B

TND903-1

C1

0.1UF

3 14CRP1C

TND903-1

4 13CRP1D

TND903-1

5 12CRP1E

TND903-1

6 11CRP1F

TND903-1

7 10CRP1G

TND903-1

8 9CRP1H

TND903-1

71 +K2A

C40.1UF

71 +K3A

C50.1UF

71 +K0A

C20.1UF

C60.1UF

C70.1UF

C80.1UF

71 +K4A

71 +K5A

71 +K6A

+12V

0/41/52/6

3/7

P1

11814

K2BP2

P3

11814

K4BP4

P5

11814

K6BP6

P7

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K5B

11814

K1B

11814

K3B

P8

SIGNAL/DRIVER RELAYS

01234567

NONEK0K1K1,K2K3K3,K4K3,K5K3,K5.K6

CXG/4X1


RELAY DRIVE CONNECTOR

RELAY GROUNDS

JP1

IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

COMCOM

IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

RHB

IN8

IN9

IN10

IN11

IN12

IN13

JUMPERPINS DRIVE

1,23,45,615,16

0123

JUMPERPINS DRIVE

13,1411,127,89,10

4567

8x1 & 4x1 Using Drives 0-3 4x1 Using Drives 4-7

DRIVE JUMPER KEY

012

345

67

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 10/1/2013

CXG/8X1 (75 0HM) SWITCH MODULE

30-18-50

30-18-50.SchDoc OF

SIZE: TITLE:B

REVISED FROM:

1 1

71 +K1A

11814

K0B

1 16CRP1A

TND903-1 C30.1UF

L1INDUCTOR

R1

68012

468

10121416

3579111315

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

2 15CRP1B

TND903-1

C10.1UF

3 14CRP1C

TND903-1

4 13CRP1D

TND903-1

5 12CRP1E

TND903-1

6 11CRP1F

TND903-1

7 10CRP1G

TND903-1

8 9CRP1H

TND903-1

71 +K2A

C40.1UF

71 +K3A

C50.1UF

71 +K0A

C20.1UF

C60.1UF

C70.1UF

C80.1UF

71 +K4A

71 +K5A

71 +K6A

+12V

0/41/52/6

3/7

P1

11814

K2BP2

P3

11814

K4BP4

P5

11814

K6BP6

P7

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K5B

11814

K1B

11814

K3B

P8


01234567

NONEK0K1K1,K2K3K3,K4K3,K5K3,K5.K6

CXG/4X1



RELAY GROUNDS

JP1

IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

COMCOM

IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

RHB

IN8

IN9

IN10

IN11

IN12

IN13

JUMPERPINS DRIVE

1,23,45,615,16

0123

JUMPERPINS DRIVE

13,1411,127,89,10

4567


DRIVE JUMPER KEY

012

345

67

1

1

2

2

3

3

4

4

5

5

6

6

7

7

8

8

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 10/1/2013

CXR/8X1-GT-75

30-19-50

Cannot open file Logo2.bmp

OF

SIZE: TITLE:

1 1

APPROVED BY

DATE: 10/1/2013

SIZE: TITLE:A3

REVISED FROM:

RHB

30-19-50

11814

K8B

L1INDUCTOR

12468

10121416

3579111315

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

2 15CRP1B

TND903-1

C10.1UF

5 12CRP1E

TND903-1

6 11CRP1F

TND903-1

3 14CRP1C

TND903-1

1 16CRP1A

TND903-1

71 +K1A

C30.1UF

+12V

0/41/52/6

3/7 P1

11814

K9BP2

P3

11814

K10BP4

P5

11814

K11BP6

P7

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K13B

11814

K12B

11814

K14B

P8


01234567

K0K1,K8K2,K12K3,K9,K12

K5,K10,K14K4,K14

K6,K13,K14

CXR/4X1



RELAY GROUNDS

JP1

IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

COMCOM

IN0

IN2

IN3

IN4

IN5

IN6

IN7

IN8IN9

IN10IN11

IN12

IN13

K7,K11,K13,K14

71 +K0A

C20.1UF

9101213

K7C

9101213

K8C

9101213

K9C

9101213

K10C

9101213

K11C

9101213

K12C

9101213

K13C

11 814K0B

11 814K1B

R1

75

R0

75

IN1

11 814K2B

11 814K3B

R3

75

R2

75

11 814K4B

11 814K5B

R5

75

R4

75

11 814K6B

11 814K7B

R7

75

R6

75

9101213

K14C

71 +K3A

C50.1UF

71 +K2A

C40.1UF

71 +K5A

C70.1UF

71 +K4A

C60.1UF

71 +K7A

C90.1UF

71 +K6A

C80.1UF

71 +K9A

C110.1UF

71 +K8A

C100.1UF

71 +K11A

C130.1UF

71 +K10A

C120.1UF

71 +K13A

C150.1UF

71 +K12A

C140.1UF

71 +K14A

C160.1UF

7 10CRP1G

TND903-1

4 13CRP1D

TND903-1

8 9CRP1H

TND903-1

IN14

IN15IN16

IN17IN18

IN19

IN20

IN21

JUMPERPINS DRIVE

1,23,45,615,16

0123

JUMPERPINS DRIVE

13,1411,127,89,10

4567


DRIVE JUMPER KEY

012

345

67

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A

71 +K8A

11 814

K0B

0.1UFC9

INDUCTORL1

680

R1

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

0.1UFC11

71 +K5A

0.1UFC6

71 +K0A

0.1UFC1

71 +K4A

0.1UFC5

0.1UFC2

0.1UFC7

0.1UFC3

71 +K1A

71 +K6A

71 +K2A

+12V

11 814

K1BP1

11 814

K2BP2

11 814

K3BP3

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K5B

11814

K4B

11814

K8B

P4

SIGNAL/DRIVER IN

01234567

01230123


RELAY GROUNDS

IN0

IN1

IN2

IN3

OUT0OUT0

RHB

0.1UFC4

0.1UFC8

71 +K3A

71 +K7A

9101213

K7C

9101213

K8C118

14K7B

11814

K6B

11814

K9B

P5OUT10UT1

1N4148

CR1

1N4148

CR2

1N4148

CR4

1N4148

CR3

0.1UFC10

71 +K9A

9101213

K9C

IN0

IN1

IN2

IN3

OUT

00001111

RELAYS

NONEK4K8K5.K8K0K1,K6K2,K9K3,K7,K9


SHEET

REVISION:

DRAWING NUMBER

DATE: 8/7/2008

CXR/4X2-G-50 SWITCH MODULE

30-21-50

OF

SIZE: TITLE:B1 1

RHB

30-21-50.SchDoc

REVISED FROM: 2-473

1

1

2

2

3

3

4

4

5

5

6

6

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 1/21/2014

CXR/4X2-G-75 SWITCH MODULE

30-22-50

OF

SIZE: TITLE:B1 1

RHB

30-22-50.SchDoc

71 +K8A

11 814

K0B

C90.1UF

L1INDUCTOR

R1

680

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

C110.1UF

71 +K5A

C60.1UF

71 +K0A

C10.1UF

71 +K4A

C50.1UF

C20.1UF

C70.1UF

C30.1UF

71 +K1A

71 +K6A

71 +K2A

+12V

11 814

K1BP1

11 814

K2BP2

11 814

K3BP3

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K5B

11814

K4B

11814

K8B

P4

SIGNAL/DRIVER IN

01234567

01230123


RELAY GROUNDS

IN0

IN1

IN2

IN3

OUT0OUT0

RHB

C40.1UF

C80.1UF

71 +K3A

71 +K7A

9101213

K7C

9101213

K8C118

14K7B

11814

K6B

11814

K9B

P5OUT10UT1

CR1

1N4148

CR2

1N4148

CR4

1N4148

CR3

1N4148

C100.1UF

71 +K9A

9101213

K9C

IN0

IN1

IN2

IN3

OUT

00001111

RELAYS

NONEK4K8K5.K8K0K1,K6K2,K9K3,K7,K9

REVISED FROM: 2-473

N1N2

N3N4

N5N6

N7N8

N9N10

N11N12

1

1

2

2

3

3

4

4

D D

C C

B B

A A


SHEET

REVISION:

DRAWING NUMBER

DATE: 10/25/2005

CXR/2X1-G-50 SW MODULE

30-25-50

30-25-50.schdoc OF

SIZE: TITLE:A

REVISED FROM:

11

RHB

1

PAD

X1

1

PAD

X2

1

PAD

X3

1

PAD

X4

MOUNTING PADS

0.1UFC1

FERRITEL1

0.1UFC2

+12

13579

111315

246810121416

2X8,25SQR

JP11234567891011121314151617181920

IDH-20-SR1

J1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

NC

COM

NO

NC

COM

NO

BNC

DRV11 814

K0B

71

+

K0A

9101213

K0C

1 2 3 4 5 6 7 8

A

B

C

D

87654321

D

C

B


SHEET

REVISION:

DRAWING NUMBER

DATE: 27-Mar-2008

CXR/8X1-GT-50-HP

30-29-50

OF

SIZE: TITLE:

1 1

APPROVED BY

DATE: 27-Mar-2008

SIZE: TITLE:A3

REVISED FROM:

KJA

30-29-50.SCH

11814

K8B

L1INDUCTOR

12468

10121416

3579111315

123456789

1011121314151617181920

J1

P0

+

0

1

2

3

4

5

6

7

2 15CRP1B

TND903-1

C10.1UF

5 12CRP1E

TND903-1

6 11CRP1F

TND903-1

3 14CRP1C

TND903-1

1 16CRP1A

TND903-1

71 +K1A

C30.1UF

+12V

0/41/52/6

3/7

P1

11814

K9BP2

P3

11814

K10BP4

P5

11814

K11BP6

P7

9101213

K0C

9101213

K1C

9101213

K2C

9101213

K3C

9101213

K4C

9101213

K5C

9101213

K6C

11814

K13B

11814

K12B

11814

K14B

P8


01234567

K0K1,K8K2,K12K3,K9,K12

K5,K10,K14K4,K14

K6,K13,K14

CXR/4X1



RELAY GROUNDS

JP1 IN0

IN1

IN2

IN3

IN4

IN5

IN6

IN7

COMCOM

IN0

IN2

IN3

IN4

IN5

IN6

IN7

IN8IN9

IN10IN11

IN12

IN13

K7,K11,K13,K14

71 +K0A

C20.1UF

9101213

K7C

9101213

K8C

9101213

K9C

9101213

K10C

9101213

K11C

9101213

K12C

9101213

K13C

11 814K0B

11 814K1B

R1

50

R0

50

IN1

11 814K2B

11 814K3B

R3

50

R2

50

11 814K4B

11 814K5B

R5

50

R4

50

11 814K6B

11 814K7B

R7

50

R6

50

9101213

K14C

71 +K3A

C50.1UF

71 +K2A

C40.1UF

71 +K5A

C70.1UF

71 +K4A

C60.1UF

71 +K7A

C90.1UF

71 +K6A

C80.1UF

71 +K9A

C110.1UF

71 +K8A

C100.1UF

71 +K11A

C130.1UF

71 +K10A

C120.1UF

71 +K13A

C150.1UF

71 +K12A

C140.1UF

71 +K14A

C160.1UF

7 10CRP1G

TND903-1

4 13CRP1D

TND903-1

8 9CRP1H

TND903-1

IN14

IN15IN16

IN17IN18

IN19

IN20

IN21

1 2 3 4

A

B

C

D

4321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 2-May-2008

CXR/2X1-C-GT-75 SW MODULE

30-30-50

30-30-50.sch OF

SIZE: TITLE:A11

C10.1u

L1+12

13579111315

2468

10121416

JP1

1234567891011121314151617181920

J1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

C20.1u

K0-K2 - DRIVES 0-7

NCR1

75

R2

75

NC

COM

NO

COM

NO

RELAY GROUNDS

KJA

P0

P1

P2

71

+

K0A

11 814K0B

RLY-RK-1C

9101213

K0C

71

+

K1A

11 814K1B

RLY-RK-1C

9101213

K1C7

1

+

K2A

11 814

K2B

RLY-RK-1C

9101213

K2C

CR1

1N4936

1 2 3 4

A

B

C

D

4321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 17-Apr-2009

CXR/2X1-G-75-F SW MOD.

30-31-50

OF

SIZE: TITLE:A11

1

X1

PAD

1

X2

PAD

1

X3

PAD

1

X4

PAD

MOUNTING PADS

KJA

C10.1u

L1 FERRITE

C20.1u

+12

13579111315

2468

10121416

JP1 2X8,25SQR

1234567891011121314151617181920

J1

IDH-20-SR1

DRV0DRV1DRV2

DRV3DRV4DRV5

DRV6DRV7

NC

COM

NO

NC

COM

NO

71

+

K0A

F CONNECTORS

DRV11 814

K0B

ARE13129

101213

K0C

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


A

SHEET

REVISION:

DRAWING NUMBER

DATE: 17-Mar-2006

CXS/8x1-GT-75 Switch Module

64-00-50-01

64-00-50-01.sch OF

SIZE: TITLE:B1 2

KJA

1

2 3 4 5 6 7 8 9

RP12.2k

DRV2

DRV3

DRV0

DRV1

DRV4

DRV5

DRV6

DRV7

+C1

10uF

C30.1uF

L1 FERRITE

+12V

Vin3 Vout 2

Adj

.1

U3 LD1084V

R1243

R2357

+ C210uF

+3V

13579

111315

246810121416

1719

1820

J1 HDR20

12345678

16151413121110

9

RP3 68k

1

23456789

RP22.2k

1

2345678910

RP422k

21U2A 74AC04

43U2B 74AC04

+3V

116CRP1A

215CRP1B

314CRP1C

413CRP1D

512CRP1E

611CRP1F

710CRP1G

89CRP1H

116CRP2A

215CRP2B

314CRP2C

413CRP2D

512CRP2E

611CRP2F

710CRP2G

89CRP2H

116CRP3A

215CRP3B

314CRP3C

413CRP3D

512CRP3E

611CRP3F

710CRP3G

89CRP3H

CHAN0

CHAN1

CHAN2

CHAN3

CHAN4

CHAN5

CHAN6

CHAN7

C40.1uF

CHAN0

CHAN1

CHAN2

CHAN3

CHAN4

CHAN5

CHAN6

CHAN7

CHAN0

CHAN1

CHAN4

CHAN5

CHAN2

CHAN3

CHAN6

CHAN7

CHAN0

CHAN6

CHAN1

CHAN7

CHAN2

CHAN4

CHAN3

CHAN5

SHEET 2

21U1A 74AC04

43U1B 74AC04

1011U1E 74AC04

1213U1F 74AC04

1011U2E 74AC04

1213U2F 74AC04

C12

0.1uF

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


A

SHEET

REVISION:

DRAWING NUMBER

DATE: 17-Mar-2006

CXS/8x1-GT-75 Switch Module

64-00-50-02

64-00-50-02.sch OF

SIZE: TITLE:B2 2

KJA

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S0

PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S1

PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S2 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S3 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S4 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S5 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S6 PE42XX

P0

P1

P2

P3

P4

P5

P6

P7

COM

C5

0.1uF

C6

0.1uF

C7

0.1uF

C8

0.1uF

C9

0.1uF

C10

0.1uF

C11

0.1uF

DRV0DRV1

DRV2DRV3

DRV4DRV5

DRV6DRV7

+3V

+3V

+3V

+3V

+3V

+3V

+3V

DRV2DRV3

DRV4DRV5

DRV6DRV7

SHEET 1

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


A

SHEET

REVISION:

DRAWING NUMBER

DATE: 22-Nov-2006

CXS/8x1-GT-75-F Switch Module

64-01-50-01

64-01-50-01.sch OF

SIZE: TITLE:B1 2

KJA

1

2 3 4 5 6 7 8 9

RP12.2k

DRV2

DRV3

DRV0

DRV1

DRV4

DRV5

DRV6

DRV7

+C1

10uF

C30.1uF

L1 FERRITE

+12V

Vin3 Vout 2

Adj

.1

U3 LD1084V

R1243

R2357

+ C210uF

+3V

13579

111315

246810121416

1719

1820

J1 HDR20

12345678

16151413121110

9

RP3 68k

1

23456789

RP22.2k

1

2345678910

RP422k

21U2A 74AC04

43U2B 74AC04

+3V

116CRP1A

215CRP1B

314CRP1C

413CRP1D

512CRP1E

611CRP1F

710CRP1G

89CRP1H

116CRP2A

215CRP2B

314CRP2C

413CRP2D

512CRP2E

611CRP2F

710CRP2G

89CRP2H

116CRP3A

215CRP3B

314CRP3C

413CRP3D

512CRP3E

611CRP3F

710CRP3G

89CRP3H

CHAN0

CHAN1

CHAN2

CHAN3

CHAN4

CHAN5

CHAN6

CHAN7

C40.1uF

CHAN0

CHAN1

CHAN2

CHAN3

CHAN4

CHAN5

CHAN6

CHAN7

CHAN0

CHAN1

CHAN4

CHAN5

CHAN2

CHAN3

CHAN6

CHAN7

CHAN0

CHAN6

CHAN1

CHAN7

CHAN2

CHAN4

CHAN3

CHAN5

SHEET 2

21U1A 74AC04

43U1B 74AC04

1011U1E 74AC04

1213U1F 74AC04

1011U2E 74AC04

1213U2F 74AC04

C12

0.1uF

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


A

SHEET

REVISION:

DRAWING NUMBER

DATE: 22-Nov-2006


64-01-50-02

64-01-50-02.sch OF

SIZE: TITLE:B2 2

KJA

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S0

PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S1

PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S2 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S3 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S4 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S5 PE42XX

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S6 PE42XX

C5

0.1uF

C6

0.1uF

C7

0.1uF

C8

0.1uF

C9

0.1uF

C10

0.1uF

C11

0.1uF

DRV0DRV1

DRV2DRV3

DRV4DRV5

DRV6DRV7

+3V

+3V

+3V

+3V

+3V

+3V

+3V

DRV2DRV3

DRV4DRV5

DRV6DRV7

SHEET 1

P0

F Conn

P1F Conn

P2

F Conn

P3F Conn

P4

F Conn

P5F Conn

P6

F Conn

P7F Conn

COM

F Conn

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 23-Jan-2007


64-02-50-01

64-02-50-01.sch OF

SIZE: TITLE:B1 4

KJA

1

2 3 4 5 6 7 8 9

RP12.2k

+C1

10uF

C30.1uF

L1 FERRITE

+12V

Vin3 Vout 2

Adj

.1

U4 LD1084V

R1243

R2357

+ C210uF

+3V

12345678

16151413121110

9

RP3 68k

1

2345678910

RP522k

+3V

CHAN3

CHAN2

CHAN1

CHAN12

CHAN13

CHAN14

CHAN0

CHAN15

C40.1uF

SHEET 2

C21

0.1uF

C50.1uF

1J1A

IDH20

2J1B

4J1D6J1F8J1H10J1J12J1L14J1N16J1P18J1R

19J1S20J1T

INCHAN0INCHAN1INCHAN2INCHAN3


21

U1A

1011

U1E

1213

U1F

43

U3B

89

U3D

1011

U3E

1213

U3F

DRV LINES

116CRP3A 215CRP3B 314CRP3C 413CRP3D 512CRP3E 611CRP3F 710CRP3G 89CRP3H

116CRP4A 215CRP4B 314CRP4C 413CRP4D 512CRP4E 611CRP4F 710CRP4G 89CRP4H

CHAN0

CHAN1

CHAN2

CHAN3

CHAN4

CHAN5

CHAN6

CHAN7

CHAN8

CHAN9

CHAN10

CHAN11

CHAN12

CHAN13

CHAN15

CHAN14

116CRP2A 215CRP2B 314CRP2C 413CRP2D

512CRP2E 611CRP2F 710CRP2G 89CRP2H

CHAN0

CHAN1

CHAN12

CHAN13

CHAN2

CHAN3

CHAN15

CHAN14

CHAN4

CHAN5

CHAN8

CHAN9

CHAN6

CHAN7

CHAN11

CHAN10

SHEET 2CHAN LINES

DRV0

DRV1

DRV4

DRV5

DRV6

DRV7

R810k

R910k

R510k

R610k

R1110k

R1210k



VCC

89

U1D

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 23-Jan-2007


64-02-50-02

64-02-50-02.sch OF

SIZE: TITLE:B2 4

KJA

1

2 3 4 5 6 7 8 9

RP22.2k

12345678

16151413121110

9

RP4 68k

1

2345678910

RP622k





CHAN7

CHAN6

CHAN5

CHAN8

CHAN9

CHAN10

CHAN4

CHAN11

CHAN0

CHAN1

CHAN2

CHAN3

CHAN8

CHAN9

CHAN10

CHAN11

CHAN4

CHAN5

CHAN6

CHAN7

CHAN12

CHAN13

CHAN15

CHAN14

SHEET 3



3J1C5J1E7J1G9J1I11J1K13J1M15J1O17J1Q

IDH20

65

U1C

21

U2A

43

U2B

65

U2C

1011

U2E

1213

U2F

21

U3A

SHEET 1 DRV LINES



CHAN0

CHAN4

CHAN10

CHAN14

CHAN1

CHAN5

CHAN15

CHAN11

CHAN2

CHAN6

CHAN8

CHAN12

CHAN3

CHAN7

CHAN13

CHAN9

SHEET 1 CHAN LINESDRV2

DRV3

DRV8

DRV9

DRV10

DRV11

R710k

R1010k

R310k

R410k

R1310k

R1410k



VCC

43

U1B

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 23-Jan-2007


64-02-50-03

64-02-50-03.sch OF

SIZE: TITLE:B3 4

KJA

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S1

PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S3

PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S4 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S7 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S8 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S9 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S10 PE4256

C7

0.1uF

C9

0.1uF

C10

0.1uF

C13

0.1uF

C14

0.1uF

C15

0.1uF

C16

0.1uF

DRV3DRV2

DRV4DRV5

DRV8DRV9

DRV10DRV11

+3V

+3V

+3V

+3V

+3V

+3V

+3V

DRV6DRV7

DRV10DRV11

DRV8DRV9

SHEET 2

P0

F Conn

P1F Conn

P2

F Conn

P3F Conn

P4

F Conn

P5F Conn

P6

F Conn

P7F Conn

COMF Conn

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S0

PE4256

C6

0.1uFDRV0DRV1

+3V

S2_COM

SHEET 4S2 COM

DRV LINES SHEET 4

1 2 3 4 5 6

A

B

C

D

654321

D

C

B

A


SHEET

REVISION:

DRAWING NUMBER

DATE: 23-Jan-2007


64-02-50-04

64-02-50-04.sch OF

SIZE: TITLE:B4 4

KJA

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S2

PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S5

PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S6 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S11 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S12 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S13 PE4256

GND1

GND2

RF1 3

GND4

GND5

GND6

GND7

RFC8

GND9

GND10

GND 11

GND 12

RF2 13

GND 14

GND 15

CTRL2 16CTRL1 17

VSS/GND 18GND 19

VDD20

GNDPAD 21

S14 PE4256

C8

0.1uF

C11

0.1uF

C12

0.1uF

C17

0.1uF

C18

0.1uF

C19

0.1uF

C20

0.1uF

DRV3DRV2

DRV6DRV7

DRV10DRV11

DRV8DRV9

+3V

+3V

+3V

+3V

+3V

+3V

+3V

DRV4DRV5

DRV8DRV9

DRV10DRV11

SHEET 3

P8

F Conn

P9F Conn

P10

F Conn

P11F Conn

P12

F Conn

P13F Conn

P14

F Conn

P15F Conn

S2_COM

SHEET 3S2 COM

DRV LINES

CXAR/64 & 128 COAXIAL SWITCH MATRIX with IF-11 Control ...

Documents

Transcript of CXAR/64 & 128 COAXIAL SWITCH MATRIX with IF-11 Control ...