DVC -1412 Technical Manual
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DVC -1412 Technical Manual

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TECHNICAL MANUAL FOR
DVC-1412 CAMERAS
Manual Number: 86-1412-04
Release Date: January 1, 2003
DVC Company
10200 Highway 290 West
Austin, Texas 78736
Phone: (512) 301-9564
Fax: (512) 288-2961
E-Mail: sales@dvcco.com
WWW: http://www.dvcco.com

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  • Page 1 TECHNICAL MANUAL FOR DVC-1412 CAMERAS Manual Number: 86-1412-04 Release Date: January 1, 2003 DVC Company 10200 Highway 290 West Austin, Texas 78736 Phone: (512) 301-9564 Fax: (512) 288-2961 E-Mail: sales@dvcco.com WWW: http://www.dvcco.com...

  • Page 2: Table Of Contents

    TABLE OF CONTENTS INTRODUCTION ...............................1 INITIAL INSPECTION............................2 UNPACKING AND RECEIVING........................2 EQUIPMENT SUPPLIED (LVDS ) ....................3 SYSTEM EQUIPMENT SUPPLIED (F ) ...................4 IRE SYSTEM EQUIPMENT SUPPLIED (C ) ..................5 AMERA INK SYSTEM OPTIONAL ITEMS ............................6 CAMERA POWER SUPPLY ........................6 2.6.1 INTERNATIONAL APPLICATIONS .....................6 MAINTENANCE..............................7 LENS AND SENSOR FACEPLATE CLEANING..................7 CLEANING AND LUBRICATION ......................7...
  • Page 3 Color Pixel Processing ........................43 8.1.3 White Balance............................43 8.1.4 Gamma Correction ..........................45 8.1.5 Color Coding ............................45 8.1.6 Suggested Algorithm ..........................45 SERIAL COMMAND INTERFACE DEFINITION FOR DVC-1412 CAMERAS (LVDS AND CAMERALINK CAMERAS)...........................46 INTRODUCTION ............................46 PHYSICAL DESCRIPTION........................46 COMMUNICATION PROTOCOL......................46 CAMERA CONTROLS ..........................47 9.4.1 Gain ..............................47 9.4.2 Offset (or black level) ..........................47...
  • Page 4 11.3 APPENDIX C: DVC-1412 CAMERA CONNECTORS................67 11.3.1 Auxiliary Connector..........................68 12 WARRANTY AND AFTER-SALES SERVICE.....................70 13 COPYRIGHT INFORMATION ........................71...
  • Page 5 Figure 4.1-1: Monochrome camera spectral response ....................9 Figure 4.1-2: IR Filter Characteristics .........................10 Figure 4.3-1: Spectral curve for Intensicam ........................11 Figure 5.1-1: DVC-1412 camera block diagram (LVDS version shown) ..............13 Figure 5.2-1: Bayer pattern color filter array.......................13 Figure 7.1-1: Timing diagram--normal mode......................16 Figure 7.2-1: Timing diagram--shutter mode (HNL &...
  • Page 6 LIST OF TABLES Table 7.6-1: Binning commands..........................24 Table 7.7-1: Slow-scan mode commands ........................29 Table 9.4-1: Gain Table...............................47 Table 9.4-2: Offset Table.............................47 Table 11.3-1: Camera connector information......................68 Table 11.3-2: Power supply connector pinout ......................68 Table 11.3-3: Digital video connector pinout ......................69...

  • Page 7: Introduction

    The 2/3” interline Sony ICX285 CCD imager used in the DVC-1412 cameras has a 1392(H) X 1040(V) progressively-scanned image format and has a pixel size of 6.45µm X 6.45µm. The CCD sensor has a particularly high QE in the Blue-Green region of the spectrum resulting in higher sensitivity for most applications.

  • Page 8: Initial Inspection

    To return the product to the factory for service, please contact the DVC Customer Service Department at (512)- 301-9564 for a Return Material Authorization (RMA) Number.

  • Page 9: Equipment Supplied (Lvds System)

    2.2 EQUIPMENT SUPPLIED (LVDS system) Figure 2.2-1: DVC-1412 Camera and adjustment wrench Figure 2.2-2: Linear regulated power supply Figure 2.2-3: PixeLYNX board Figure 2.2-4:US version of line cord with IEC320 receptacle Figure 2.2-5: DVC distribution CD-ROM Figure 2.2-6: 10ft. interface cable, with 18” RS232 pigtail...

  • Page 10: Equipment Supplied (Firewire System)

    2.3 EQUIPMENT SUPPLIED (FireWire system) Figure 2.3-1: DVC-1412 Camera and adjustment wrench Figure 2.3-2: Linear regulated power supply Figure 2.3-4:US version of line cord with IEC320 receptacle Figure 2.3-3: FireWire cable (actual color may vary) Figure 2.33-2.3-5: DVC distribution CD-ROM...

  • Page 11: Equipment Supplied (Cameralink System)

    2.4 EQUIPMENT SUPPLIED (CameraLink system) Figure 2.4-1: DVC-1412 Camera and adjustment wrench Figure 2.4-2: Linear regulated power supply Figure 2.4-3: CameraLink cable (actual color may vary) Figure 2.4-4:US version of line cord with IEC320 receptacle Figure 2.4-6: CameraLink board Figure 2.4-5: DVC distribution CD-ROM...

  • Page 12: Optional Items

    2.5 OPTIONAL ITEMS The following items are optional items and may be ordered from authorized dealers of DVC. They are not typically supplied with each Camera. 1. Lenses and/or other optical elements 2. Third party Image Analysis software, e.g. ImagePro, Adobe Photoshop®, QED Imaging, Improvision, etc.

  • Page 13: Maintenance

    3.2.2 What causes the CCD imager to get dirty? Dust and dirt are the culprits. At DVC, professional cameras are manufactured under strict conditions and assembled in a dust-free room. Before shipping, each camera is tested and checked to assure that it meets stringent specifications for cleanliness and quality. Although we take extreme care to produce a dust-free camera, changing lenses, or static can cause debris to appear on the imager.
  • Page 14 3. Carefully draw the once across the surface of the CCD glass with light, consistent pressure. Rotate swab 180° draw across surface again. If pooling or streaks occur, you may have too much alcohol on the swab. 4. Examine the CCD surface in a strong light. Take an out-of-focus picture of a flat, illuminated surface to see if any dirt or dust remains.

  • Page 15: Camera Specifications

    4 CAMERA SPECIFICATIONS 4.1 OPTICAL Sensitivity @ 2850°K Color: 0.018fc for full-scale (min. gain); 0.001fc (measured with IR filter) for full-scale (max. gain); 0.0004fc for full-scale with 10-sec exposure Monochrome: 0.02fc for full-scale (min. gain); 0.001fc for full-scale (max. gain); 0.0003fc for full-scale with 10-sec exposure Pixel size and format 6.45µm(H)X 6.45µm(V);...

  • Page 16: Digital Video Output

    Wavelength (nm) Figure 4.1-2: IR Filter Characteristics 4.2 DIGITAL VIDEO OUTPUT 4.2.1 12 Bit RS-422/RS-644 (LVDS / FireWire) Readout Rate 18 MHz, 9 MHz, 4.5 MHz, 2.25 MHz (user selectable via software) Resolution/Frame Rate 1392 x 1040 at 10.2 f/s (1 x 1) 1392 x 520 at 20 f/s (1 x 2) (Binning: Monochrome model only) 696 x 520 at 20 f/s (2 x 2)

  • Page 17: Intensicam - 1412

    4.3 INTENSICAM - 1412 (The data shown below represents the “standard” photocathode response. Extended blue and special Gen IV versions are also available). > 35% Quantum Efficiency from 500 to 800 nm Sensitivity 1X10 fc Sensitivity (faceplate) @ 2854K, 10fps Photocathode GaAs photocathode, std spectral response 450 to 900 nm...

  • Page 18: Electrical

    4.5 ELECTRICAL Timing Progressive scanned, non-interlaced ± 15 V DC each @ 250 mA steady state Power Supply Voltages & Current requirements + 5 V DC @ 250 mA steady state. Clock Rate 18 Mhz derived from internal crystal oscillator 4.6 MECHANICAL FOR STANDARD LVDS/FIREWIRE/CAMERALINK CAMERAS Weight (without lens)

  • Page 19: Camera Functional Description

    IR component of the light. The IR blocking filter is attached to the c-mount adapter ring. For non IR multi-spectral imaging applications with the DVC-1412 AC Mount Adapter without an IR filter is available. The following functions take place within the CCD: 5.2.1.1...

  • Page 20: Video Processing

    5.2.1.2 Charge Transfer During the Vertical blanking interval, the charge that was integrated in each active charge site during the previous exposure (normally 1/10 sec, or one frame) is shifted to an adjacent opaque storage charge site. In the figure below, active charge sites are designated by the letter “I” for integration and the opaque storage charge sites are designated by the letter “S”...

  • Page 21: Voltage Regulation

    5.2.4 Voltage Regulation Input voltages (+15V, -15V and +5V) are converted into several positive and negative voltages required by the CCD and in the video processing circuits. 5.2.5 Timing This logic block on the CCD and Video board performs the following functions: •...

  • Page 22: Installation

    6 INSTALLATION Refer to Installation and Operation Manual 7 MODES OF OPERATION 7.1 NORMAL MODE In each mode description, the serial mode commands (CameraLink and LVDS versions only) are shown. Please refer to the serial mode commands details in Section 9.4. NRR: Normal mode with reset NOR: Normal without reset In the normal mode of operation, the following signals are used to synchronize a digital frame...

  • Page 23: High Speed Shutter

    Every horizontal line during the next frame, one line of the charge matrix in the opaque storage sites is shifted vertically into a horizontal shift register. The horizontal shift register is clocked out, one pixel at a time, on to a charge detection node that converts it to a voltage, which can be sampled and digitized.

  • Page 24: Reset & Shutter

    purpose, a STROBE output pulse is generated within the camera. The STROBE output pulse allows an external strobe light to be turned on during the exposure period. Since the duration of the exposure is a user-programmable setting, the start-time (relative to the vertical timing of the camera) and the duration of the STROBE output pulse also vary, depending upon the shutter setting.
  • Page 25 NOTE: Frame grabbers have the ability to control the differential input (CC1+, CC1-) or (INPUT1+, INPUT1-) of the camera. This is facilitated by connecting them via two wires within the camera-framegrabber interface cable to differential frame grabber outputs that are driven by a General Purpose register bit that is to be controlled by host software.

  • Page 26: Reset Modes

    7.2.4 Reset Modes In the HDO and HDL shutter modes, an asynchronous falling edge on the VRST_INT (TTL) or CC1/INPUT1 (differential) input of the camera is used to synchronize the exposure period of the camera to the outside world (the rising edge is not significant, however, the LOW duration should last at least 1µsec).

  • Page 27: Figure 7.2-4: Hdl Mode

    7.2.4.2 High speed shutter with discharge (HDL) If an asynchronous reset occurs while the camera is in this mode, the residual charge in the storage area from a previous exposure is flushed out (discharged) by a sequence of vertical channel transfer pulses.

  • Page 28: N Frame Integration

    When the low-speed shutter mode (or N Frame Integration mode) is selected, the duration of exposure is set as an integral number of frames. For the DVC-1412 camera, the duration of exposure can be set from 1-to-1024 frames, in 1-frame increments. NOTE: since one frame is 1/10sec or 100msec, the range of control is from 1/10sec to 102 sec.

  • Page 29: Pulse Driven Exposure

    invoked with an increment of 120 frames = 12 sec. The transition between NFR mode and ULT mode may be transparent to the user; the only real difference between the ULT and NFR mode from the user’s perspective is the “granuality” of control. 7.5 PULSE DRIVEN EXPOSURE PDX: Pulse driven exposure (external) PDI: Pulse driven exposure (internal, one-shot)

  • Page 30: Binning

    duration and the instant of exposure. For example, application software can be written to directly drive the camera between long and short exposures without any latency; some application developers choose to use the PDX mode as the sole camera mode, since this can control long and short exposure easily by controlling a single signal.

  • Page 31: Figure 7.6-1: Bin 2X2 Case

    Normal mode (1x1) Binning mode (2x2) CCD Array CCD Array Charge Charge Shift Register Detection Shift Register Detection Node Node CCD Array CCD Array Charge Charge Detection Shift Register Shift Register Detection Node H-shift clock Node Reset Gate CCD Array CCD Array Charge Charge...

  • Page 32: Binning And Shutter

    7.6.1 Binning and Shutter: The following table is provided as a guide for calculating the shutter mode exposure values that apply in the different binning modes. The shutter setting for binning modes needs to be shifted with an offset, in order to get the desired amount of exposure: mode no exposure...

  • Page 33: Sub-Array / Region Of Interest (Roi )

    In many applications, users wish to designate a particular Region of Interest (ROI) within the entire image. The ROI feature of the DVC-1412 allows the definition of a band of pixel-rows that are selected for readout. The CCD is then fast-scanned through the un-selected areas, allowing for a faster overall frame rate of only the selected area.

  • Page 34: Advantages

    trimmed in display with software unwanted - fast scan wanted wanted [normal scan] [normal scan] unwanted - fast scan 7.7.2 Advantages ROI allows faster frame rate without compromising spatial resolution. The benefit of ROI is that fewer lines are scanned instead of scanning all lines of the CCD. Thus, a higher number of frames per second are achieved.

  • Page 35: Slow Scan

    In the present implementation, ROI and BIN are mutually exclusive commands. This will be changed in later versions. 7.8 SLOW SCAN Slow scan: The read noise of a CCD is significantly affected by the scanning rate. Some users wish to improve the read noise by slow-scanning the CCD. This is provided in the camera by means of a clock multiplexer scheme;...

  • Page 36: Intensicam-1412

    7.9 INTENSICAM-1412 7.9.1 Introduction The Intensicam-1412 is a special version of a 1412 camera in which a gated Gen III image intensifier is fiber-optically bonded to the front surface of the CCD. Due to the high luminous gain of the Intensifier tube, every incident photon generates thousands of electrons within the tube. Even under very low-light conditions, this results in a live image on the phosphor of the Intensifier, which is viewable by the CCD.

  • Page 37: Spectral Response

    Fiber-optic module: This is used to couple the image that is generated on the phosphor of the image intensifier to the CCD. Since the optical format of the image intensifier is 1” and that of the CCD is 2/3”, a taper is used for the reduction. High voltage power supply: This is used to generate the voltages that are necessary for the performance of the image intensifier.

  • Page 38: Intensicam & Cview

     7.9.4 Intensicam & CView 1) In CView, there is an "Intensify" button on the control panel that is (by default) RED in color. As long as this button is RED, the Intensifier is gated OFF (to protect the camera). Although the camera is connected (and a frames/sec counter is visible in the LHS of the viewing window), the image will remain black.

  • Page 39: Multi-Spectral Option

    Figure 7.10-1: Cooled (left) and non-cooled (right) multi-spectral cameras. A module equipped with a four-position multi-spectral filter wheel is integrated within a modified monochrome DVC-1412 camera housing (both TE-cooled and non-cooled versions are available). The filter module, can be supplied with high-quality CLEAR/IR-CUT, RED, GREEN, BLUE optical filter elements or with special application set.

  • Page 40: Figure 7.10-2: Color Filter Wheel Module

    7.10.1.2 Auto White Balance In order to make the white areas in the field of view appear to be white (R=G=B) in the super- imposed image most software applications use a calibration scan, in which R, G and B images are obtained to determine the relative strength of each component.

  • Page 41: Spectral Response

    7.10.2 Spectral Response NOTE: the spectral response curves shown represent the R, G, B, clear configuration of the filter- set. Since the camera design allows the user to insert any filter-set of choice, this data may not be valid for user-configured cameras. Filters Blue Clear...
  • Page 42 Removing the Filter Wheel Module 1) Remove the two 4/40" X 3/8" Allen-head screws which retain the module. a. These screws are the only silver-colored screws on the camera. b. Use a 3/32" socket head drive to remove the screws. 2) Disengage the filter wheel module.
  • Page 43 Removing the Filter 1) Using the filter-spring removal tool, grasp the tool with one hand, while holding the filter with the opposite hand. 2) Align the tool on top of the filter spring.
  • Page 44 3) Push and turn the tool while compressing the spring, so that the tabs on the tool go underneath the protrusions holding the filter spring. This process will disengage the filter. Rotate the tool until both the spring tabs and the tool are clear of the protrusions. 4) Remove the tool.
  • Page 45 5) Place a clean surface lens paper where you want the filter to fall upon. Turn the module up side down. This will cause the filter to fall out. Installing Filters 1) Identify the filter surface with a lip. This surface should face the bottom of the wheel.
  • Page 46 2) Drop the filter into the slot. 3) Identify the spring surface with the dot protrusions. The dot should face the top. 4) Drop the spring into the slot above the filter.
  • Page 47 5) Using the filter-spring removal tool, compress the spring. Turn the tool until the dots line up. Remove the tool.
  • Page 48 Inserting the Filter Wheel Module in the Camera 1) Clean the filter wheel with dry air to remove any dust and contaminants. Engage the module with the slots in the camera. 2) Slide the filter wheel module back into the camera. Push the module all the way in. 3) Install the two 4/40"...

  • Page 49: Application Notes

    The following information is provided to assist software developers to create a high-resolution color image from the digitized data that is provided by the DVC-1412C Camera. 1) The electronics within the camera are the same for the monochrome as well as for the R-G-B version of the camera.
  • Page 50 R=110, G=300, B=200 R=200, G=300, B=110 (fluorescent lighting) (incandescent lighting) Figure 8.1-2: Examples of Bayer Pattern values for fluorescent and incandescent light Both cases require correction, because a white object should have R=G=B data values. The simplest correction would involve "equalizing" the data - if the Green pixel values are kept unchanged and the Red and Blue pixel values are multiplied by appropriate "gain"...

  • Page 51: Gamma Correction

    8.1.4 Gamma Correction In order to compensate for the non-linearity of monitors, a gamma correction curve needs to be applied to the color corrected digitized pixel values. A default value of 0.6 may be provided, although in some applications, this may need to be a user-supplied number. 8.1.5 Color Coding For each digitized pixel value (after color correction AND gamma correction) it is necessary to...

  • Page 52: Serial Command Interface Definition For Dvc-1412 Cameras (Lvds And Cameralink Cameras)

    (LVDS and CameraLink Cameras) 9.1 INTRODUCTION The following is a definition of the serial control interface for the DVC-1310A/1312A/1412 cameras. Serial control is standard within all DVC131X cameras; it can be controlled via a communication program (such as Windows HyperTerminal) or within a larger program, such as C- View.

  • Page 53: Camera Controls

    9.4 CAMERA CONTROLS The camera has the following parameters that can be controlled or queried via the serial port: 9.4.1 Gain The camera gain is controlled by means of an analog voltage (0-to-3VDC). This parameter is supplied by the host PC as a two digit hex data argument to the command GAI and converted to an analog voltage using an 8-bit Digital-to-Analog converter (DAC).

  • Page 54: Exposure

    9.4.3 Exposure The 11bit argument of the EXP command sets the camera exposure by controlling an internal “exposure bus” which is made up of 11 data bits DB[10:0]. The power-on default value of EXP is 001. An exposure command with the syntax "EXP 7FF" would set the exposure to the maximum value (all bits set "High").
  • Page 55 In the PDP internal version of this mode, the microprocessor that controls the serial control interface generates a periodic pulse with a user-defined "low" duration (TIL command) and a user-defined "high" duration (TIH command). In the PDI internal version of this mode, the microprocessor that controls the serial control interface generates a one-shot pulse on the user’s command with a user-defined "low"...

  • Page 56: Special Commands

    Version: The VER (followed by a carriage return) command queries the camera and returns the characters DVC and a two byte hex code representing a "major revision" and a "minor revision". A typical response to the command VER is DVC7.6.

  • Page 57: Intensifier Control

    The following commands apply only to intensified cameras: Description Range of argument Output Code signals controlled {default} 00 ≤ two digit hex value ≤ FF Intensifier Gain Int_Gain DAC {00} Intensifier Pulse “ON” Duration 000 ≤ three digit hex value ≤ FFF SPI Latch {00} 00 ≤...

  • Page 58: Notes On Intensifier Operation

    9.5.2 Notes on Intensifier Operation CAUTION: Do NOT point the intensifier at bright lights or permanent damage to the intensifier tube may result. • The INT_PULSE (which is a camera-internal signal) follows negative logic, i.e. the Intensifier is "off" when this pulse is HIGH; the Intensifier is "on" when this pulse is LOW. This pulse is used under s/ware control to protect the Intensifier against “photon overload”.

  • Page 59: Notes On Wheel Commands

    9.5.3 Notes on Wheel Commands The following commands apply only to DVC-1412 cameras that are equipped with a multi-spectral filter wheel; cameras that are not equipped with a wheel will respond to these commands with an error message.

  • Page 60: Command Summary

    CWT xx[cr] FILTER WHEEL STEP TIME (HEX 01 - 7F) xx = 0.1 to 12.7 millisecond step time CWS[cr] FILTER WHEEL STATUS (HEX 0 - 7) x = *bbb | | | | | +------- busy stepping | + -------- step error + - -------- index error 9.6 COMMAND SUMMARY Range of arguments (all other...

  • Page 61: Information And Support Resources

    10 INFORMATION AND SUPPORT RESOURCES You can obtain product information at http://www.dvcco.com For tech support, please contact DVC at (512)-301-9564 or e-mail eng@dvcco.com Our mailing address is the following: DVC Company 10200 Highway 290 West Austin, TX 78736 Our address in Europe is the following:...

  • Page 62: Appendix

    TH E I N F ORMATION CONTAINED IN THIS DRAWING IS THE SOLE P R O P ER TY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE W I TH O UT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED.

  • Page 63: Figure 11.1-2: 1412 With Cameralink Connector

    Figure 11.1-2: 1412 with CameraLink connector...

  • Page 64: Figure 11.1-3: 1412 Camera With 1394 Connector

    THE INFORMATION CONTAINED IN THIS DRAWING IS THE SOLE PROPERTY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE WITHOUT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED. 1.96 (nominal) (nominal) DB9 Male Power Connector 1/4 x 20 Thread Mount...

  • Page 65: Figure 11.1-4: 1412 Te Cooler Camera (Lvds Model Shown)

    THE INFORMATION CONTAINED IN THIS DRAWING IS THE SOLE PROPERTY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE WITHOUT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED. 2.80 (nominal) 1.42 (nominal) 1/4 x 20 Thread Mount (4 sides) DB9 Male...

  • Page 66: Figure 11.1-5: Intensicam-1412 Image Intensifier Camera (Lvds Shown)

    THE INFORMATION CONTAINED IN THIS DRAWING IS THE SOLE 1/4 x 20 Thread Mount PROPERTY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE WITHOUT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED. 3.46 DB44 Female LVDS Connector DB9 Male Power Connector 3.25...

  • Page 67: Figure 11.1-6: 1412-Multispectral Wheel Non-Cooled Camera (Lvds Shown)

    THE INFORMATION CONTAINED IN THIS DRAWING IS THE SOLE PROPERTY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE WITHOUT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED. 1.22 3.25 1.99 0.69 .062 To Focal Plane DB9 Male Power Connector 16.17...

  • Page 68: Figure 11.1-7: 1412-Multispectral Wheel Cooled Camera (Firewire Shown)

    THE INFORMATION CONTAINED IN THIS DRAWING IS THE SOLE PROPERTY OF DVC Co. ANY REPRODUCTION IN PART OR WHOLE WITHOUT THE WRITTEN PERMISSION OF DVC Co. IS PROHIBITED. 1/4 x 20 Thread Mount 2.85 1.46 1.21 3.25 0.69 0.062 To Focal Plane 3.90...

  • Page 69: Appendix B: Cable Drawings

    Use 3conductor + drain + shield cable for DB9F segment Serial Port DB-9F 5,SHLD,DRAIN,SHELL Do NOT use DRAIN wire as sole conductor for DB9F-pin5 18" cable from DVC Frame Grabber DVC-1412 DVC "pixeLYNX" Frame Grabber PIXCLK+ pair1: Black PCLK- PIXCLK-...

  • Page 70: Figure 11.2-2: Cameralink Cable

    Cable Assembly and Camera Link Pinouts* *Cable assembly compatible with both Camera Link configurations Medium and Full Configurations Base Configuration Two Channel Link Chips One Channel Link Chip + Camera Control + Serial Communication Camera Right Angle Channel Link Cable Name Camera Right Angle Channel Link...

  • Page 71: Figure 11.2-3: Dvc-1412-Mv1500 Cable

    SOLDER MSB5- MSB-5(-) MSB5+ MSB-5(+) VRST_INT 21 VINIT/FST&EXP MSB6- MSB-6(-) MSB6+ MSB-6(+) -15V MSB7- MSB-7(-) MSB7+ MSB-7(+) 1 GND MSB8- MSB-8(-) MSB8+ MSB-8(+) +15V MSB9- MSB-9(-) MSB9+ MSB-9(+) 43,SHLD 68,SHIELD GND MSB10- MSB10+ MSB11- MSB11+ DB44-plug Figure 11.2-3: DVC-1412-MV1500 cable...

  • Page 72: Figure 11.2-4: Dvc-1412-To-Matrox Meteor Ii Dig Cable (Lvds)

    MSB8+ MSB-8(+) +15V MSB9- MSB-9(-) MSB9+ MSB-9(+) 43,SHLD 50,SHIELD GND MSB10- MSB-10(-) MSB10+ MSB-10(+) MSB11- MSB-11(-) MSB11+ MSB-11(+) DB44-plug SCSI-100 HBP50-1AK3202 Acon Advanced (solder cup or crimp style) connector Connectors & shell Figure 11.2-4: DVC-1312-to-Matrox Meteor II DIG cable (LVDS)

  • Page 73: Appendix C: Dvc-1412 Camera Connectors

    11.3 APPENDIX C: DVC-1412 CAMERA CONNECTORS Figure 11.3-1: Camera rear view showing connector pin numbers (LVDS connections shown)

  • Page 74: Auxiliary Connector

    11.3.1 Auxiliary Connector pin# Signal ------------------ 1 HD (O) 2 INPUT1 (O) 3 VRST_INT (I) 4 GND 5 EN_FRAME (O) 6 STROBE/INT-PULSE (O) Connector Name On Camera Interface Cable Power Supply Connector DB9M DB9F; e.g. AMP P/N: 205203-1 with 66504-3 pins DB-44F DB44M;...

  • Page 75: Table 11.3-3: Digital Video Connector Pinout

    Pin no. Signal Pin no. Signal Pin no. Signal PIXCLK- PIXCLK+ ENL+ ENL- ENF- ENF+ Not used MSB- MSB+ INPUT1+ (MSB-1)- (MSB-1)+ INPUT1- (MSB-2)- (MSB-2)+ R1 IN (MSB-3)- (MSB-3)+ T1 OUT (MSB-4)- (MSB-4)+ COM GND (MSB-5)- (MSB-5)+ VRST_INT (MSB-6)- (MSB-6)+ Reserved (MSB-7)- (MSB-7)+...

  • Page 76: Warranty And After-Sales Service

    This warranty is in lieu of all other warranties expressed or implied. DVC shall not be liable for any collateral or consequential damages. A Return Material Authorization (RMA) Number must be obtained from DVC prior to returning...

  • Page 77: Copyright Information

    In no event will DVC be liable for any direct, indirect, special, incidental or consequential damages, including lost profits, lost business, or lost data, resulting from the use or reliance upon the information, whether or not DVC has been advised of the possibility of such damages.

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