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RM/TM-6740GE
RMC/TMC-6740GE
Digital Monochrome/Color
Progressive Scan, Interline-Transfer GE Camera
Document Version: F
Document P/N: 10086
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TM-6740GE
Series
Disclaimer
The material contained in this manual consists of information that is proprietary to JAI Inc., and may only be
used by the purchasers of the product. JAI, Inc. makes no warranty for the use of its product and assumes no
responsibility for any errors which may appear or for damages resulting from the use of the information
contained herein. JAI, Inc. reserves the right to make changes without notice.
Microsoft, Windows 95, 98, NT, 2000, XP, and Windows Explorer are either registered trademarks or trademarks
of Microsoft Corporation in the United States and/or other countries.
Warranty
Please contact your factory representative for details about the warranty.
Certifications
CE Compliance
The TM-6740GE series of cameras has been certified to conform to the requirements of Council Directive
89/336/EC for electromagnetic compatibility and to comply with the following European Standards:
EMC EN55022: 1998 + A1: 2000 CLASS A
EN55024: 1998 + A1: 2001
All JAI Inc. products bearing the CE mark have been declared to be in conformance with the applicable EEC
Council Directives. However, certain factory-installed options or customer-requested modifications may
compromise electromagnetic compatibility and affect CE compliance. Please note that the use of interconnect
cables that are not properly grounded and shielded may affect CE compliance.
Contact the JAI Inc. Applications Engineering Department for further information regarding CE compliance.
FCC
This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to
Part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful
interference when the equipment is operated in a commercial environment. This equipment generates, uses
and can radiate radio frequency energy and, if not installed and used in accordance with the instruction
manual, may cause harmful interference to radio communications. Operation of this equipment in a residential
area may cause harmful interference, in which case the user will be required to correct the interference at his
own expense.
Disclaimer iii
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Changes or modifications to this unit not expressly approved by the party responsible for FCC compliance could
void the user’s authority to operate the equipment.
TM-6740GE Series
WARNING
TM-6740 Series Operation Manual
JAI Inc.
625 River Oaks Parkway
San Jose, CA 95134
Tel:(408) 383-0300
Tel:(800) 445-5444
Fax:(408) 383-0301
www.jai.com
October 09, 2009
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TM-6740GE
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Table of Contents
Disclaimer Notice ................................................................................................... iii
Table of Contents ................................................................................................... v
List of Figures ....................................................................................................... vii
List of Tables ......................................................................................................... ix
Hardware Introduction ................................................................................ 9
1
1.1 Product Description ................................................................................... 9
1.2 Features ................................................................................................. 9
2 Installation ............................................................................................. 11
2.1 Getting Started ........................................................................................ 11
2.1.1 Unpacking Instructions ............................................................................... 11
2.1.2 Components ............................................................................................ 11
2.1.3 Accessories and Options ............................................................................. 11
2.2 Camera Setup .......................................................................................... 11
2.2.1 Heat Dissipation ....................................................................................... 11
2.2.2 Connector Pin Configurations ....................................................................... 12
2.2.3 Power Supplies and Power Cable Setup ........................................................... 12
2.2.4 Attaching the Camera Lens .......................................................................... 14
2.2.5 Adjustable Back-Focus ............................................................................... 14
3 Operation .............................................................................................. 16
3.1 Progressive Scanning ................................................................................. 16
3.2 Bayer Color Filter (Color Versions) ................................................................. 18
3.2.1 Color Filter Array ..................................................................................... 18
3.2.2 Bayer Color Filter Array (CFA) ...................................................................... 18
3.2.3 Starting Pixel Configuration ......................................................................... 19
3.2.4 Sync and Data ......................................................................................... 19
3.2.5 Camera Functions ..................................................................................... 20
3.2.6 Interpolation Software ............................................................................... 20
3.2.7 Color Interpolation ................................................................................... 20
3.3 Electronic Shutter .................................................................................... 21
3.4 Integration ............................................................................................. 21
3.5 External Sync .......................................................................................... 21
3.6 Asynchronous Reset................................................................................... 21
3.6.1 Async No Shutter ...................................................................................... 22
3.6.2 Async Programmable Shutter ....................................................................... 22
3.6.3 External VINIT With Pulse Width (No-Delay Shutter) and ROI (Read-out Inhibit) ........... 23
3.6.4 Async Programmable Exposure Mode .............................................................. 24
3.7 Dynamic Range Control .............................................................................. 25
3.7.1 Programmable Look-Up Table (LUT) and Knee Control ......................................... 25
3.8 Camera Timing Charts ................................................................................ 26
3.9 Video Output .......................................................................................... 29
3.10 External HD Locking and External VD Reset ...................................................... 31
3.11 Asynchronous Reset................................................................................... 33
4 Functions and Operations............................................................................ 35
4.1 GigE Vision Standard Interface ..................................................................... 35
4.2 GigE Vision-Aware Software ......................................................................... 35
4.3 Recommended Network Configurations ........................................................... 35
4.3.1 Verified Network Interface Cards (NICs) .......................................................... 35
4.3.2 Video data rate (network bandwidth) ............................................................. 35
Table of Contents v
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TM-6740GE Series
4.3.3 Disable Firewalls ...................................................................................... 36
4.3.4 Enabling Jumbo Frames .............................................................................. 36
4.3.5 Setting Receive Descriptors ......................................................................... 38
4.3.6 Interrupt Moderation rate ........................................................................... 39
4.3.7 Calculating and setting Inter-Packet Delay ....................................................... 39
4.3.8 Confirm the Filter Driver is used ................................................................... 40
5 Configuring the Camera .............................................................................. 42
5.1 Acquisition and Trigger Controls ................................................................... 42
5.2 AnalogControls ........................................................................................ 44
5.3 Image Size Controls ................................................................................... 45
5.4 LUT (Look Up Table) ................................................................................. 47
5.5 UserSets ................................................................................................ 48
5.6 DeviceInformation .................................................................................... 48
5.7 GigEVisionTransportLayer ........................................................................... 49
5.7.1 Persistent IP ........................................................................................... 49
5.7.2 Stream Channel Packet Size ........................................................................ 50
5.8 IPEngine ................................................................................................ 50
5.8.5 Counters ................................................................................................ 58
5.8.6 Pulse Generators controls ........................................................................... 60
5.9 Register Map ........................................................................................... 62
6 Troubleshooting ....................................................................................... 66
6.1 Problems and Solutions .............................................................................. 66
6.1.1 Symptom: No Video................................................................................... 66
6.1.2 Symptom: Dark Video ................................................................................ 66
6.1.3 Symptom: Non-Synchronized Video ................................................................ 66
6.2 Information and Support Resources ................................................................ 66
7 Appendix ............................................................................................... 67
7.1 Specifications .......................................................................................... 67
7.1.1 TM-6740GE Physical Dimensions .................................................................... 68
7.1.2 Spectral Response .................................................................................... 69
vi Disclaimer
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List of Figures
Figure 1.
Figure 2. GigE Ethernet Connector ............................................................................ 12
Figure 3. 12P-02S Interface Cable (optional) ................................................................ 13
Figure 4. Back-Focus Set-Screw Locations .................................................................... 15
Figure 5. Full Progressive Scan Mode (A) ..................................................................... 16
Figure 6. Partial Scan Mode (B, C, and D) .................................................................... 16
Figure 7. Example of Color CCD CFA Pattern ................................................................ 19
Figure 8. Example of TMC-6740GE in Default Mode. ........................................................ 20
Figure 9. Async No Shutter ...................................................................................... 22
Figure 10. Pulse Width Control (No-Delay Shutter) ........................................................... 23
Figure 11. Read-Out Inhibit ...................................................................................... 24
Figure 12. Async Programmable ................................................................................. 24
Figure 13. Acquisition And Trigger Controls Category ....................................................... 42
Figure 14. AnalogControls Category ............................................................................. 44
Figure 15. ImageSizeControl category .......................................................................... 45
Figure 16. Image Output Example ............................................................................... 46
Figure 17. LookUp Table .......................................................................................... 47
Figure 18. UserSets Category .................................................................................... 48
Figure 19. DeviceInformation Category ........................................................................ 48
Figure 20. GigEVisionTransportLayer Persistent IP ........................................................... 50
Figure 21. PLC LUT Diagram ...................................................................................... 51
Figure 22. PLC ...................................................................................................... 52
Figure 23. SignalRoutingBlock .................................................................................... 53
Figure 24. ControlBits ............................................................................................. 55
Figure 25. PLC Q Output .......................................................................................... 55
Figure 26. PLC Special Configurations .......................................................................... 57
Figure 27. CountersAndTimersControls ......................................................................... 58
Figure 28. Physical Dimensions .................................................................................. 68
Figure 29. TM-6740 Spectral Response ......................................................................... 69
Figure 30. TMC-6740 Spectral Response ........................................................................ 69
12-Pin Connector Pinouts. ........................................................................... 12
List of Figures vii
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TM-6740GE Series
List of Tables
Table 1 12-Pin Connector ..................................................................................... 12
Table 2 TM-6740GE Scan Modes .............................................................................. 17
Table 3 Electronic Shutter Speeds ........................................................................... 21
Table 4 Video Output (A to J) ................................................................................ 29
Table 5 Video Output (K to T) ................................................................................ 30
Table 6 External HD Locking and External VD Reset (eA to eE) ......................................... 31
Table 7 External HD Locking (eF to eJ) ..................................................................... 32
Table 8 Async Reset ............................................................................................ 33
Table 9 TM-6740GE Camera Specifications Table ......................................................... 67
viii List of Tables
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TM-6740GE
Series
1 Hardware Introduction
1.1 Product Description
The JAI TM-6740GE is a dual-tap output, high-speed progressive scan CCD camera. The interline-type CCD
permits full vertical and horizontal resolution of very high speed shutter images and applications. The
electronic shutter, which has speeds to 1/64,000 sec., can be reset asynchronously by external pulse control.
The frame rate for a full image is 200 fps, with partial scan mode of up to 3205 fps. A 4:3 ratio imager format
with uniform square pixels provides superior image definition in any orientation. On-chip micro lenses provide
increased sensitivity.
The TM-6740GE has a full dynamic range control function, which can be set via software selectable look-up
table (LUT) knee slopes to convert 10-bit input to 8-bit output, thereby optimizing the CCD’s full dynamic
range in the normal output signal range. As a dual-tap output camera, the TM-6740GE has semi-auto-gain
balancing functions.
Applications for the TM-6740GE include machine vision, medical imaging, intelligent transportation systems,
high-definition graphics, on-line inspection, gauging, character reading, archiving, and high security
surveillance.
The TM-6740GE series consists of the TM-6740GE (monochrome) and the TMC-6740GE (color), as well as the
RoHS-compliant versions RM-6740GE and RMC-6740GE. Unless otherwise noted, all information contained in this
manual is relevant to all 6740GE models.
1. TM-6740GE Series
Hardware Operation Manual
1.2 Features
• Miniature size and light weight
The printed circuit boards in the TM-6740GE have been arranged to create modular electronics, giving the
camera flexibility. In addition, the use of miniature solid-state components results in a compact,
lightweight camera that is 50.8mm x 50.8mm x 84.3mm in dimensions, and weighs only 194 grams.
• Imager
The TM-6740GE uses a dual-tap progressive scan interline transfer CCD that has the following features:
− Resolution of 640 x 480 active pixels for excellent image quality.
− 7.4 x 7.4 μm square pixels for precise dimensional measurement.
− High-speed electronic shutter capability for high dynamic resolution of moving objects
that eliminates the need for a mechanical shutter.
− Progressive scan CCD eliminates interlace deterioration of image and increases ease of
computer interface.
− High sensitivity and low noise at fast scanning. The CCD has an excellent S/N ratio at the
default setting that is greater than 50dB.
− The CCD has built-in microlenses for increased quantum efficiency.
Introduction 9
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TM-6740GE Series
• Electronic shutter
The TM-6740GE has a substrate drain-type shutter mechanism which provides superb pictures at various
speeds without smearing.
• Asynchronous reset
The TM-6740GE captures async reset images and provides single-shot video output with single FDV. This
makes it simpler for an ordinary frame grabber to capture the async reset images. The TM-6740GE’s
asynchronous reset is flexible and accepts external horizontal drive (HD) for phase locking. When the VINIT
(5V) pulse is applied to CC1, it resets the camera's scanning and purging of the CCD.
The TM-6740GE has four modes to control the asynchronous reset and shutter speed:
− Async, no shutter. The video signal and FDV are reset by external VINIT.
− Async Programmable shutter. The shutter speed control depends on the number of
horizontal lines defined by the user.
− Internal shutter speed control. The speed control varies from 1/200 to 1/64,000 sec. The
video signal and FDV starts with internal V reset timing related to shutter speed.
− External VINIT with pulse width. The duration between pulse edges controls the shutter
speed externally.
• Output
The TM-6740GE has a 10-bit/8-bit Gigabit Ethernet output. The analog output is 714 mVp-p composite
video (75 ohms) on all models.
• Dual-channel auto black level balancing and semi-auto gain balancing
The TM-6740GE, as a dual-tap output camera, has auto black level balancing and semi-auto gain balancing
functions.
• Integration
The TM-6740GE is capable of capturing high-resolution integration images. Its CCD imager can be exposed
for longer than the normal scan timing of 1/200 sec. This integration feature provides extra sensitivity for
applications in dark environments. The progressive scan imager permits a full frame of resolution in noninterlace format. Integration is achieved by applying INTEG signal to CC2 control of Gigabit Ethernet or by
feeding VINIT pulse width control up to 1 sec of the pulse width in async pulse width control mode for the
frames to be integrated.
• Warranty
Contact your factory representative for details about the warranty.
10 Introduction
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TM-6740GE
Series
2 Installation
The following instructions will help you set up your camera quickly and easily. JAI suggests that you read
through these instructions first, before you unpack and set up your camera system.
2.1 Getting Started
2.1.1 Unpacking Instructions
JAI recommends that you save the original packing cartons for the cameras and accessories in case you need to
return or exchange an item. We also recommend that you bench-test any equipment being sent to another
location for field installation to assure that everything is fully operational as a system.
2.1.2 Components
When you receive your TM-6740GE camera from JAI, the contents of the shipping box should include the
camera and a document download card. If either of these items is missing, please contact your JAI
representative immediately. The document download card includes instructions and web locations for
downloading the datasheet, manual, and camera-control software. If you do not have Internet access, please
contact JAI to receive this material on a CD-ROM.
2.1.3 Accessories and Options
Following is a list of additional accessories and options that may be required for your application. Please check
with your JAI representative before you install your camera to determine what you might need.
• PD-12U series power supply
• 12P-02S power cable
• Cat5e or Cat6 shielded Ethernet cable (not supplied by JAI)
• Tripod Mounting Kit: TP-20
(for dimensions go to: www.jai.com/EN/CameraSolutions/Products/Accessories/Pages/Home.aspx
2.2 Camera Setup
2.2.1 Heat Dissipation
The TM-6740GE is a compact 640 by 480 camera. Since all the electronics have been packed in a compact
package, the outer case of the camera can become hot due to heat dissipation. For optimal performance, JAI
recommends using a cooling fan to set up a positive air flow around the camera and following the precautions
below.
• Mount the camera on a large heat sink (camera bracket) made out of heat-conductive material like
aluminum.
• Make sure the flow of heat from the camera case to the bracket is not blocked by a non-conductive
material like plastic. • Make sure the camera has enough open space around it to facilitate the free flow of
air.
)
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TM-6740GE Series
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8
9
10
12
2.2.2 Connector Pin Configurations
2.2.2.1 12-Pin Connector
The TM-6740GE has a 12-pin Hirose connector for power input and signal integration. Pin #1 is Ground and pin
#2 is +12V DC. The pin-out table is shown in Table 1.
Figure 1. 12-Pin Connector Pinouts.
Pin #1 is Ground and pin #2 is +12V DC. Table 1 shows the pin-out table.
Table 1 12-Pin Connector
Pin Description
1 GND
2 +12V DC
3 GND (analog)
4 Video out
5 GND (digital) 11
6 VINIT in (CC1 equiv)
2.2.2.2 Ethernet Connector
The GigE socket, marked on the camera’s back panel as “GigE,” is a standard RJ-45 Ethernet socket as shown in
Figure 2.
Pin
Description
VD in (CC4 equiv)
Strobe
HD in (CC3 equiv)
Reserved
Integration/ROI
(CC2 equiv)
Reserved
Figure 2. GigE Ethernet Connector
Use at least Cat5e UTP cables (Cat6 cables are preferred). JAI recommends the use of shielded cables to
reduce emissions and for CE/FCC compliance. Double-shielded cables further reduce emissions.
2.2.3 Power Supplies and Power Cable Setup
2.2.3.1 Power Supplies
The TM-6740GE camera requires 12V DC power obtained through the 12-pin connector located on the rear
panel of the camera. JAI, Inc. power supplies feature a 100-240V AC/12V DC 1.2A universal voltage power
supply. JAI recommends the following power supplies:
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TM-6740GE
Series
7
8
9
10
PD-12UU PD-12UU (no 12-pin connector)
PD-12UUP PD-12UU with 12-pin connector
PD-12UE PD-12UU (no 12-pin connector)
PD-12UEP PD-12UU with 12-pin connector
If you are providing power through the 12-pin connector, the PD-12P, PD-12UEP and PD-12UUP power supplies
are available with the 12-pin mating connector already attached to the leads from the power supply. You can
connect the PD-12UU and PD-12UE power supplies to the JAI power cable either directly or using a terminal
strip.
When wiring the PD-12UU and PD-12UE power supplies directly, note the following:
• Twist the lead ends together and tin-solder them for strength and electrical continuity.
• Use shrink tubing or a similar insulator to prevent exposed leads from touching and shorting.
• The +12V lead is marked with a red stripe or white lettering; be sure not to reverse the leads.
• All connections must be properly insulated to prevent shorting.
2.2.3.2 JAI Power Cables
If you are using JAI power cables such as the 12P-02S, refer to Figure 3 which shows the cable pin-out diagram
and pin-outs. The color-coded leads use Gray for Ground and Yellow for +12V.
US plug
US plug
European plug
European plug
Figure 3. 12P-02S Interface Cable (optional)
12P-02S Interface Cable
Pin # Lead Color Function
1 Gray GND (Power Ground)
2 Yellow +12V DC (Power In)
3 Red coax shield AGND (Analog Ground)
4 Red coax
5
6 Orange coax TTL IN (External_Trigger) 12
Note: Make sure that the unused leads are not touching and that there is no possibility that exposed wires
Orange coax
shield
could cause the leads to short.
VIDEO (Analog Out)
shield GND (TTL- Digital) 11 Blue
Pin # Lead Color
Black coax
White coax shield TTL OUT (STROBE)
White coax
Brown
Black coax shield RESV
Function
TTL IN (External_VD)
TTL IN (External_HD)
RESV
TTL IN (External_INT)
(integration signal)
Installation 13
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TM-6740GE Series
2.2.3.3 Building Your Own Power Cable
Refer to the 12-pin connector pin-out in Table 1 on page 12. Connect the Ground lead to pin #1, and the +12V
DC lead to pin #2 of the 12-pin connector. Power must be DC-regulated, and of sufficient current to properly
power the camera.
2.2.3.4 Attaching the Power Cable to the Connector
The 12-pin connector is keyed and will only fit in one orientation. To properly attach the power cable to the
camera connector, use the following steps:
1. Rotate the connector while applying slight pressure until the keyways line up.
2. Press the connector into place until firmly seated.
3. Plug the power cord into the 100V AC socket. This powers up the camera.
Note: If using a power supply other than the standard PD-12U Series from JAI, certain characteristics are
required of the power supply and the wiring in order to properly power the camera. The camera requires
12V immediately upon start-up; no slow ramps. Once power is applied, the po wer supply must be able to
support a 2A to 2.5A in-rush current for approximately 200µs to prevent the voltage at the camera from
dropping below the 10.8V minimum required. Dropping below this will result in the camera’s inter nal
power supply lowering its impedance in an attempt to draw more current. Since no more current will be
available, the voltage at the camera will drop instead. This will result in a steady state hang-up which
will damage the camera’s power supply and cause the camera to cease operating or to operate in an
unstable manner.
2.2.4 Attaching the Camera Lens
The TM-6740GE camera accepts 1/3" or larger format size C-mount lenses. To attach the C-mount lens to the
camera, carefully engage the threads and rotate the lens clockwise until it firmly seats on the mounting ring.
Do not force the lens if it does not seat properly.
Note: Some lenses with extremely long flangebacks may exceed the mounting depth of the camera.
C-mount to F-mount and C-mount to K-mount adapters are available for larger format lenses (35mm). Check
with local photography dealers for these lens adapters.
2.2.5 Adjustable Back-Focus
Before cameras are shipped, back focus is carefully set using a collimator, oscilloscope and other specialized
equipment. While the factory-set focus serves well in most cases, an adjustable back focus makes it possible to
improve image sharpness when using lower-cost zoom lenses, custom optics, or in unusual parameters.
There should be an obvious need to refocus the lens before attempting to change the back focus. This is a very
exacting task. Some cameras have been returned to the factory to reset the back focus after failed attempts to
change the focus by customers. It might be wise to label cameras whose back focus was adjusted
The camera must be connected to a monitor before attempting to adjust the back focus.
1. To back focus the camera, first attach a C-mount lens in the mount. Be certain that the lens is properly
seated.
2. Next set the lens focus to infinity (if the lens is a manual iris, set the iris to a high f number while still
retaining a well illuminated image).
3. Loosen the three miniature hex set-screws (use a 0.9 mm hex wrench) that lock the focus ring in place
(two screws for a CS-mount). Slowly turn the lens and focus ring assembly back and forth until you obtain
the best image of the desired object. This sets the back focus. Once the best image is obtained, tighten
the focus ring set-screws until they are snug. Do not over-tighten the screws. Note: Mini-bayonet cameras
adapted to C-mount do not have the back focus feature.
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TM-6740GE
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Figure 4. Back-Focus Set-Screw Locations
Installation 15
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3 Operation
3.1 Progressive Scanning
The TM-6740GE uses a state-of-the-art progressive scanning interline transfer CCD which scans all lines
sequentially from top to bottom at one frame rate. Like a non-interlace computer screen, it generates a stable,
crisp image without alternating lines and provides full vertical TV resolution of 480 lines. Due to the TM6740GE’s extremely high frame rate, however, it will not synchronize to most monitors.
The interline transfer architecture is also important to generate simultaneous shuttering. This is different from
full frame transfer architecture, which requires a mechanical shutter or strobe light in order to freeze the
object motion.
The TM-6740GE outputs the progressive scanned image with an electronic shutter in thirty-six different
formats. See Table 2 on page 17 for more information.
Progressive scanning digital and analog output
The CCD signal goes through A/D converters 10-bit in, 10-bit/8-bit out. The digital output is available via the
Gigabit Ethernet connector.
The analog output is the same as 75 ohms, 714mV format available from BNC and 12-pin connector. Full
Progressive Scan
Normal scanning mode for the TM-6740GE is 640 x 480 pixels. The standard speed with dual-channel output is
200 frame/sec at the pixel clock rate of 40 MHz. The progressive scan reads every line from top to bottom and
all lines are exposed with a single electronic shutter.
TM-6740GE Series
Figure 5. Full Progressive Scan Mode (A)
Partial Scan Mode
By selection, the camera has three partial scan modes: centered 160 lines, centered 224 columns, and
centered 224 x 160 area.
Figure 6. Partial Scan Mode (B, C, and D)
16 Operation
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TM-6740GE
Series
Binning Mode
The TM-6740GE series has horizontal and vertical binning. By selection, the camera has 1x2, 1x4, 2x1, 2x2, 2x4,
4x1, 4x2, and 4x4 binning.
Table 2 TM-6740GE Scan Modes
Scan Mode
Binning Scan Area
A 640x480
No binning
1x2
1x4
2x1
2x2
2x4
4x1
B 640x160
C 224x480
D 224x160
A 640x240
B 640x80
C 224x240
D 224x80
A 640x120
B 640x40
C 224x120
D 224x40
A 320x480
B 320x160
C 112x480
D 112x160
A 320x240
B 320x80
C 112x240
D 112x80
A 320x120
B 320x40
C 112x120
D 112x40
A 160x480
B 160x160
C 56x480
D 56x160
Active Pixels
Vertical
Frequency
(Hz)
200
540
500
1250
400
1000
1000
2315
712
1596
1602
3205
200
540
500
1250
400
1000
1000
2315
712
1596
1602
3205
200
540
500
1250
Horizontal
Frequency
(KHz)
100
100
250
250
100
100
250
250
100
100
250
250
100
100
250
250
100
100
250
250
100
100
250
250
92.59
92.59
208.33
208.33
Output Clock
Digital
(MHz)
40 80
20 40
10 20
Analog
(MHz)
Operation 17
Page 18
Scan Mode
Binning Scan Area
A 160x240
4x2
4x4
B 160x80
C 56x240
D 56x80
A 160x120
B 160x40
C 56x120
D 56x40
3.2 Bayer Color Filter (Color Versions)
JAI AccuPiXEL series color cameras are high-resolution, high-speed progressive scan CCD cameras. The interline
transfer, progressive scan CCD permits full vertical and horizontal resolution of images acquired at very high
shutter speeds. Uniform square pixels provide superior image definition in any orientation. On-chip micro
lenses mean increased sensitivity.
3.2.1 Color Filter Array
JAI AccuPiXEL cameras use Bayer CFA (color filter array) as their standard primary color filter. This filter
provides the most popular color interpolation supported by numerous software suppliers.
The digital format allows the camera to output accurate pixel data, including the color information. When the
data is stored in the frame buffer of a frame grabber or computer, the color information is easily manipulated
to restore the original color images. Because the color filter array contains only a single R, G or B color in each
pixel, the restored image has to fill in the missing color information in each pixel location. The software uses
neighboring pixel information to “guess” the missing colors to make smooth, clear images. This is called “color
interpolation.” Today's high-speed computers allow such color interpolation to be done almost in real time.
Because these cameras do not contain internal color processing circuitry, they are smaller and less expensive
than full-function color cameras.
TM-6740GE Series
Vertical
Frequency
Active Pixels
(Hz)
400
1000
1000
2315
712
1596
1602
3205
Horizontal
Frequency
(KHz)
92.59
92.59
208.33
208.33
92.59
92.59
208.33
208.33
Output Clock
Digital
(MHz)
Analog
(MHz)
3.2.2 Bayer Color Filter Array (CFA)
The Bayer CFA is an R, G, B primary color filter array. This is the most widely accepted CFA for the single-chip
CCD progressive scan format. This type of array layout has a specific order for each color’s pixels. Since the
human eye’s resolution and color recognition are highest at green, the CFA contains two greens per each red
and blue.
It is critical for the frame grabber and color interpolation to know where the individual color pixels exist
relative to sync (LDV and FDV) timing.
This requirement makes digital output the preferred choice, because the timing relationships are very
accurate.
18 Operation
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TM-6740GE
Series
3.2.3 Starting Pixel Configuration
All manufacturers produce identical Bayer CFAs, but there are slight differences between the CCDs produced by
different manufacturers. The first line is generally R and G. The camera timing can be adjusted to start with
either G or R by skipping the very first pixel in each line. The majority of color interpolation software can
select between a variety of pixel relations, such as R/G start or G/R start, as well as G/B start and B/G start.
Once the correct scanning is configured, the rest of the interpolation will be exactly the same. Please contact
JAI for further information regarding CCD manufacturers.
Figure 7. Example of Color CCD CFA Pattern
3.2.4 Sync and Data
The individual color data is exactly the same as the pixel data. This means that the timing relationships of the
color cameras are also the same as of the B/W cameras.
For a detailed timing chart, please refer to each B/W camera’s data sheet and manual.
The following diagram is an example of the TMC-6740GE default mode. FDV and LDV are used internally for the
GigE interface.
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TM-6740GE Series
Figure 8. Example of TMC-6740GE in Default Mode.
It is important to meet the exact starting pixel at the line, and the starting line in frame. If the starting pixel
or line is shifted due to the image capture configuration, then the interpolation software can be adjusted for
the correct starting point.
3.2.5 Camera Functions
AccuPiXEL color cameras perform all functions the same way as B/W cameras. However, because of color
characteristics, the LUT (Look-up Table) is different. The LUT is a powerful tool to adjust the dynamic range,
as well as the color dynamic range. Since human color perception is non-linear, LUT selection can help
optimize color contrast by selecting the LUT value. Gamma 0.45 is logarithmic and is close to human
perception.
When LUT is selected, black-level adjustment must be more accurate than for B/W cameras.
3.2.6 Interpolation Software
The color interpolation can be performed in the frame grabber or by using the host computer’s CPU. Most
major frame grabbers with processing capability provide tools for color interpolation. Software vision packages
also provide color interpolation capability, but speed and performance may be determined by the PC’s
resources and by the complexity of the interpolation routine.
3.2.7 Color Interpolation
The Bayer pattern color filter array (CFA) consists of R, G, and B primary colors. Each pixel represents one of
three colors. In order to display or print color images, the signal has to be converted to RGB output, which has
three independent channels (outputs) and sync signals.
Color interpolation software or firmware performs the color preprocessing by
filling the missing color pixels with neighboring pixels. It then separates the
stream of data, (8-bit or 10-bit) into 3 (RGB) data (8-bit x 3) and adds the
color matrix to adjust and balance each of the R,G, and B channels (white
balance or color balance).
The image quality depends on the camera’s own pixel data (including pixel
data independency from neighboring pixels, noise and color filter), and
interpolation of the software algorithm such as 3 x 3 interpolation, 2 x 2
interpolation, color matrix, white balance capability, etc.
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TM-6740GE
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All AccuPiXEL color cameras are carefully designed for maximum color performance. JAI strongly suggests that
you use digital output for the best performance.
Some software is used on board (FPGA or DSP) to perform the interpolation. Other software simply uses the
host computer’s memory and CPU. The processing speed may vary depending on the architecture and speed of
the computer.
3.3 Electronic Shutter
The TM-6740GE has a substrate drain-type shutter mechanism which provides a superb picture at various speeds
without smearing. A built-in fixed shutter speed control selects the electronic shutter rate from 1/250 to
1/64,000.
Table 3 Electronic Shutter Speeds
Shutter Speed
Number
0 1/frame rate
1 1/250 sec
2 1/500 sec
3 1/1,000 sec
4 1/2,000 sec
5 1/4,000 sec
6 1/8,000 sec
7 1/16,000 sec
8 1/32,000 sec
9 1/64,000 sec
With VINIT high (CC1), the CCD keeps discharging. With an active low pulse to VINIT, the camera resets and
purges the charge momentarily. Then it starts integrating for the period of shutter control set by either an
external pulse width or internal shutter control. Progressive scanning in the TM-6740GE permits a full 480 lines
of vertical resolution, as compared to an interlaced CCD camera which captures only half the vertical lines per
shutter.
Manual Async.
Async No Shutter
1/64,000 sec
1/32,000 sec
1/16,000 sec
1/8,000 sec
1/4,000 sec
1/2,000 sec
1/1,000 sec
1/500 sec
PWC (pulse width control)
3.4 Integration
The CCD imager of the TM-6740GE can be exposed for longer than the normal scan timing of 1/200 sec. This
integration feature provides extra sensitivity for dark-environment applications. The progressive scan imager
permits a full frame of resolution in non-interlace format. Integration is achieved by controlling CC2 Camera
Control line through the Gigabit Ethernet cable to low (GND) or providing pulse-width control up to 1 sec.
Please refer to Figure 3, “12P-02S Interface Cable (optional),” on page 13 for pin-out information on the 12-pin
connector.
3.5 External Sync
The TM-6740GE accepts an external sync of standard HD and VD on CC3 and CC4 of the 12pin connector for
general locking to an external source. The frequency requirement is shown in Table 2 on page 17. The
tolerance is ±2% horizontal frequency.
3.6 Asynchronous Reset
The TM-6740GE camera includes four modes to control the asynchronous reset and shutter speed:
• Async No Shutter (recommended for strobe applications)
• Async Programmable Shutter
• External VINIT with Pulse Width (No-Delay Shutter) and ROI (read-out-inhibit)
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TM-6740GE Series
3.6.1 Async No Shutter
Async No Shutter allows for strobe and back-to-back strobing (strobing both before the transfer gate and right
after) applications as shown in Figure 9. This mode is meant to be used in a dark environment in conjunction
with a strobe light.
Figure 9. Async No Shutter
Vinit trigger starts the first exposure period within one line (1H = 10 μsec.) and transfers the frame after a 43
μsec. exposure. After the first transfer, a new full frame exposure period (5msec.) begins. Please see Camera
Timing Charts below.
3.6.2 Async Programmable Shutter
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TM-6740GE
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The video signal starts with internal VINIT. When the external VINIT pulse is applied, internal VINIT is latched
to HD and the internal VINIT is delayed to set up the shutter speed period. The shutter speed is controllable by
the user via communication software. Video output timing starts right after the internal VINIT and single shots,
FDV is output at the internal VINIT timing.
3.6.3 External VINIT With Pulse Width (No-Delay Shutter) and ROI (Read-out Inhibit)
For multiple-camera applications such as 2D or 3D measurement and multi-angle inspection, simultaneous
image capturing at an exact shutter timing for all cameras is a critical requirement. The TM-6740’s
asynchronous pulse-width control mode provides no-delay shutter (Figure 10, “Pulse Width Control No-Delay
Shutter” on page 23) as standard. Regardless of the internal pulse timing, the camera discharges at the VINIT
leading edge and transfers charges at the trailing edge of the pulse. Even though each camera runs with slightly
different H and data clock timing, the image capturing is exactly simultaneous.
Figure 10. Pulse Width Control (No-Delay Shutter)
The TM-6740GE camera also has read-out-inhibit control (ROI) to control the vertical clock start (Pulse Width
Control mode). The ROI signal is fed in via the Integration Signal pin (External_INT_In). When ROI is low, Vclock is stopped and the transferred charges remain in the vertical shift registers, which work like CCD
memory. When the ROI is high, it clocks out the CCD data. This helps a single frame grabber process multiple
images in pipeline processing (sequential process).
Note: When the ROI function is not used, make sure that the INTEG/ROI input is kept logic high during Async.
Pulse Width control mode. This done via the Programmable Logic Controller (See IP Engine Examples
section 5.8.8).
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TM-6740GE Series
Figure 11. Read-Out Inhibit
3.6.4 Async Programmable Exposure Mode
Async Programmable exposure is determined by a shutter value entered from 0 to 2079. The shutter value
equals 1H (horizontal line time) or 10 μsec for each increment. The Async Programmable exposure timing
functions exactly the same as the internal shutter speed control. Async Programmable value is user controlled
via GigE camera acquisition software. The GUI interface that controls Async Direct Shutter exposure is
illustrated in Figure 12 below.
Figure 12. Async Programmable
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TM-6740GE
Series
3.7 Dynamic Range Control
The typical interline transfer CCD has fixed noise levels based on dark current (thermal or KT noise), pattern
noise, and the operating clock speed. In general, the level of the 40 MHz pixel clock CCD at room temperature
is around 20 to 30 electrons. The maximum capacity of CCD charges is limited by the well capacity at
saturation. The range is limited by the structure and the pixel size.
The TM-6740GE uses a CCD with 7.4 μm x 7.4 μm pixels and a two-phase vertical shift register structure. The
well capacity is 20,000 electrons. The theoretical dynamic range is 20,000:30 = 666:1 (56 dB).
A typical CCD camera does not use the full dynamic range due to the nominal gain and the output specification
such as RS-170. The typical CCD camera’s gain is set between 16 and 22 dB and the RS-170 video level is 714
mV. Using 20 dB gain for the calculation, CCD output is limited to 714/10 = 71.4 mV. Since the CCD’s saturation
voltage is 400 mV to 500 mV, it uses less than 1/5 of the full dynamic range.
Machine vision and outdoor applications cannot afford to miss image information behind the saturation, which
is why the dynamic range adaptation is critical.
3.7.1 Programmable Look-Up Table (LUT) and Knee Control
The TM-6740GE has a built-in LUT (look-up table) for dynamic range control. At a specific gain setting, the
offset (minimum level.... dark point) and A/D reference top voltage (maximum level... saturation point) are
set to 10-bit A/D input so that the full dynamic range of the CCD is utilized at 10-bit references as the input
and the LUT output is converted into 8-bit to adjust the gamma correction. Notice that the LUT (look-up table)
is not available in the 10-bit grayscale mode.
The look-up table has two knee points (variable gamma selection) that allow the 10-bit input to be segmented
into three regions. The look-up table selection can be made by knee curve direct input.
Operation 25
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3.8 Camera Timing Charts
TM-6740GE Series
26 Operation
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TM-6740GE
Series
Operation 27
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TM-6740GE Series
28 Operation
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TM-6740GE
Series
B C F G
80
80
48
48
80
80
48
48
80
80
40
20
40
20
24 56 22
24 56 22
40
20
40
20
80 24 56 22
24 56 22
56
20
56
20
40 56 22
40 56 22
20 80
20 80
12 28 56 80
12 28 56 80
20 80
20 80
40 12 28 56 80
12 28 56 80
28 80
28 80
20 28 56 96
20 28 56 96
3.9 Video Output
Table 4 Video Output (A to J)
Scan Mode Output
Binning
No binning
1x2
1x4
2x1
2x2
2x4
4x1
4x2
4x4
Scan
Area A
Digital Analog
A
B 400
C 160
D 160
A 400
40Mhz 80Mhz
B 400
C 25ns 12.5ns 160
D 160
A 432
B 432 112 320
C 192
D 192
A
B 200
C 80
D 80
A 200
20MHz 40MHz
B 200
C 50ns 25ns
D 80
A 216
B 216
C 96
D 96
A
B 100
C 40
D 40
A 100
10MHz 20MHz
B 100
C 100ns 50ns
D 40
A 108
B 108
C 48
D 48
*. D, E=0 pixels.
400
200
100
Digital
112 320
Horizontal (Pixels)
320
320
112
112
320
320
112
112
112
112
160
160
180
180
160
160
58 16 86
10 4 26
Analog
H I J
52 320
52 320 400
50 112 160
50 112 160
52 320 400
52 320 400
8
50 112 160
50 112 160
52 320 432
52 320 432
50 112 192
50 112 192
640
640 800
224 320
224 320
640 800
640 800
224 320
224 320
640 864
640 864
224 384
224 384
160
160 200
160 200
160 200
160 216
160 216
800
400
200
Operation 29
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TM-6740GE Series
K
L M* P‡ R
20
3 14
25
9 13
20
3 14
40
9 28
10
3 4
20 80 6 11
10
3 4
28 80 4 21
10
3 4
18 40 5 10
10
3 4
25 40 4 18
20
3 14
25
9 13
20
3 14
40
9 28
10
3 4
20 80 6 11
10
3 4
28 80 4 21
10
3 4
18 40 5 10
10
3 4
25 40 4 18
20
3 14
25
9 13
20
3 14
40
9 28
10
3 4
20 80 6 11
10
3 4
28 80 4 21
10
3 4
18 40 5 10
10
3 4
25 40 4 18
Table 5 Video Output (K to T)
Scan Mode Output Vertical (Pixels)
Binning
No binning
1x2
1x4
2x1
2x2
2x4
4x1
4x2
4x4
*. N, O=0 pixels. †. Q=3 lines.
Scan
Area
Digital Analog
A
B 185
C 500
D 200
A 250
40Mhz 80Mhz
B 100
C 25ns 12.5ns 250
D 108
A 130
B 58
C 130
D 65
A
B 185
C 500
D 200
A 250
20MHz 40Mhz
B 100
C 50ns 25ns
D 108
A 130
B 58
C 130
D 65
A
B 185
C 500
D 200
A 250
10MHz 20MHz
B 100
C 100ns 50ns
D 108
A 130
B 58
C 130
D 65
500
500
250
500
250
Digital
480
160
480
160
240
240
120
120
480
160
480
160
240
240
120
120
480
160
480
160
240
240
120
120
Analog
S T
480 500
160 185
480 500
160 200
240 250
80 100
240 250
80 108
120 130
40 58
120 130
40 65
480 500
160 185
480 500
160 200
240 250
80 100
240 250
80 108
120 130
40 58
120 130
40 65
480 500
160 185
480 500
160 200
240 250
80 100
240 250
80 108
120 130
40 58
120 130
40 65
30 Operation
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TM-6740GE
Series
10
10
4
4
10
10
4
4
10
10
4 80
4 80
10
10
4 80
4 80
96
96
10
10
4 40
4 40
10
10
4 40
4 40
48
48
3.10 External HD Locking and External VD Reset
Table 6 External HD Locking and External VD Reset (eA to eE)
Scan Mode
Binning
No binning
1x2
1x4
2x1
2x2
2x4
4x1
4x2
4x4
Scan Freq.
Area Clock (kHz)
A
B 100
C 250
D 250
A 100
B 100
C 25ns 250
D 250
A 92.6
B 92.6
C 208.3
D 208.3
A
B 100
C 250
D 250
A 100
B 100
C 50ns 250
D 250
A 92.6
B 92.6
C 208.3
D 208.3
A
B 100
C 250
D 250
A 100
B 100
C 100ns 250
D 250
A 92.6
B 92.6
C 208.3
D 208.3
Pixel
40MHz
20MHz
10MHz
Horizontal
100
100
100
Time
(μsec)
10.8
10.8
4.8
4.8
10.8
10.8
4.8
4.8
10.8
10.8
4.8
4.8
External HD Locking Timing (Pixels)
eA eB eC eD eE
400
400
160
160
400
<20ns
<20ns
<20ns
400
160
160
432
432
192
192
200
200
200
200
216
216
100
100
100
100
108
108
32
26
16
368
368
128
128
368
368
128
128
400
400
160
160
184 12
184 12
64 11
64 11
184 12
184 12
64 11
64 11
200 12
200 12
80 11
80 11
84
84
24
24
84
84
24
24
92
92
32
32
13
15
Operation 31
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TM-6740GE Series
58
65
65
10
10
4
4
10
10
4
4
58
65
Table 7 External HD Locking (eF to eJ)
Scan Mode
Binning
No binning
1x2
1x4
2x1
2x2
2x4
4x1
4x2
4x4
Scan Freq.
Area Clock (kHz) (μsec)
A
B 540
C 500
D 1250
A 400
B 1000
C 25ns 1000
D 2315
A 712
B 1596
C 1602
D 3205
A
B 540
C 500
D 1250
A 400
B 1000
C 50ns 1000
D 2315
A 712
B 1596
C 1602
D 3205
A
B 540
C 500
D 1250
A 400
B 1000
C 100ns 1000
D 2315
A 712
B 1596
C 1602
D 3205
Pixel
40MHz
20MHz
10MHz
Verticall
200
200
200
Time
5000
1850
2000
800
2500
1000
1000
432
1404
626.4
624
312
5000
1850
2000
800
2500
1000
1000
432
1404
626.
624
312
10.8
10.8
4.8
4.8
External HD Locking Timing (Pixels)
eF eG eH eI eJ
<20ns
<20ns
<20ns
500
185
500
200
250
100
250
108
130
130
500
185
500
200
250
100
250
108
130
458
130
500
185
500
200
250
100
250
108
130
130
9
9
9
500 500
185 185
500 500
200 200
250 250
100 100
250 250
108 108
130 130
58 58
130 130
65 65
500 500
185 185
500 500
200 200
250 250
100 100
250 250
108 108
130 130
458 458
130 130
65 65
500 500
185 185
500 500
200 200
250 250
100 100
250 250
108 108
130 130
58 58
130 130
65 65
32 Operation
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TM-6740GE
Series
19
18
32
10
17
8
25
10
16
8
22
19
18
32
10
17
8
25
10
16
8
22
19
18
32
10
17
8
25
10
16
8
22
3.11 Asynchronous Reset
Table 8 Async Reset
Scan Mode Async Reset Timing
Binning
No
binning
1x2
1x4
2x1
2x2
2x4
4x1
4x2
4x4
Scan
Area
A
B 43.2
C 16.0
D 16.0
A 43.2
B 43.2
C 16.0
D 16.0
A 46.4
B 46.4
C 19.2
D 19.2
A
B 43.2
C 16.0
D 16.0
A 43.2
B 43.2
C 16.0
D 16.0
A 46.4
B 46.4
C 19.2
D 19.2
A
B 43.2
C 16.0
D 16.0
A 43.2
B 43.2
C 16.0
D 16.0
A 46.4
B 46.4
C 19.2
D 19.2
*. aJ < 1 sec (recommended value)
aK = > 1 line
†. s1-9 means async shutter 1-9.
PW means pulse width of external vinit.
aA (no
lines)
>1 & <2
>1 & <2
>1 & <2
aB
(μsec)
43.2
43.2
43.2
aC
(μsec)
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
4.8
4.8
4.0
4.0
aD
(μsec)
1.9
1.9
3.8
3.8
1.9
1.9
3.8
3.8
2.7
2.7
4.6
4.6
1.9
1.9
3.8
3.8
1.9
1.9
3.8
3.8
2.7
2.7
4.6
4.6
1.9
1.9
3.8
3.8
1.9
1.9
3.8
3.8
2.7
2.7
4.6
4.6
aE
s1-8: >1
line
s1-8: >1
line
s1-8: >1
line
aG (no
lines)
s1=1
s2=2
s3=5
s4=12
s5=24
s6=49
s7=99
s8=199
s9=PW
s1=1
s2=2
s3=5
s4=12
s5=24
s6=49
s7=99
s8=199
s9=PW
s1=1
s2=2
s3=5
s4=12
s5=24
s6=49
s7=99
s8=199
s9=PW
aH (lines)
s1-8† s9‡
20
> aH (s8)
& <aH
(s8) + 1
20
> aH (s8)
& <aH
(s8) + 1
20
> aH (s8)
& <aH
(s8) + 1
‡. aE = s1-8 < 1 line. s9 <125 nsec.
aF = 500 nsec.
aI (lines)*
> aH (s8)
+ 1 & < aH
(s8) + 2
> aH (s8)
+ 1 & < aH
(s8) + 2
> aH (s8)
+ 1 & < aH
(s8) + 2
Operation 33
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TM-6740GE
Series
4 Functions and Operations
4.1 GigE Vision Standard Interface
The TM-6740GE series cameras are designed in accordance with the GigE Vision standard. Digital images are
transmitted over Cat5e or Cat6 Ethernet cables. All camera functions are also controlled via the GigE Vision
interface.
The camera can operate in continuous mode, providing an endless stream of images. For capturing individual
images, related to a specific event, the camera can also be triggered. For precise triggering, it is recommended
to use a hardware trigger applied to the Hirose 12-pin connector. It is also possible to initiate a software
trigger through the GigE Vision interface. However, when using software trigger, certain latency inherent to
the GigE interface must be anticipated. This latency, that manifests itself as jitter, greatly depends on the
general conditions and traffic on the GigE connection. The frame rate described in this manual is for the ideal
case and may deteriorate depending on conditions.
When using multiple cameras (going through a switch and/or a single path) or when operating in a system with
limited transmission bandwidth the Delayed Readout Mode and Inter-Packet Delay functions can be useful.
4.2 GigE Vision-Aware Software
A GigE Vision camera can be controlled by any software that understands the protocol. At JAI we provide the
JAI GigE Vision SDK and Control Tool to interface with our cameras. The remainder of the manual will show
screenshots of the JAI Control Tool but other 3rd party software will provide similar functionalities.
4.3 Recommended Network Configurations
Although the TM-6740GE series cameras conform to Gigabit Ethernet (IEEE 802.3) not all combinations of
network interface cards (NICs) and switches/routers are suitable for use with the GigE Vision compliant
camera.
4.3.1 Verified Network Interface Cards (NICs)
At the time of publishing this document these combinations have been verified:
NIC: Intel Pro/1000MT, Pro/1000GT, Pro/1000PT.
CPU: Intel Core 2 Duo 1.84Ghz.
Memory: 2 GB
Video Card: video card on PCI Express bus with at least 256MB of VRAM.
Functions such as screen saver and power save should not be used. Unnecessary applications such as Word,
Excel or others should not be used.
4.3.2 Video data rate (network bandwidth)
The video bit rate for TM-6740GE series cameras at the continuous mode is:
Model Pixel Type Frame Rate
Mono8 200 fps
TM-6740GE
TMC-6740GE
Mono10 200 fps 989 Mbit/s @ Packet Size of 8124 Bytes
Mono10Packed 200 fps 743 Mbit/s @ Packet Size of 8124 Bytes
BayerGR8 200 fps
BayerGR10 200 fps 987 Mbit/s @ 16260 PacketSize
Packet data volume
(In case the Packet size is 4040)
511 Mbit/s @ Packet Size of 1428 Bytes
498 Mbit/s @ 4040PacketSize
Functions and Operations 35
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TM-6740GE Series
Note: The Mono10 and BayerGRI0 settings at full frame rate will exceed GigE bandwidth. It is recommended to
use Mono8, Mono10Packed, or BayerGR8 for max frame rate.
For TM-6740GE series cameras, the jumbo frame can be set at a maximum 16260 Bytes (Factory setting is 1428
Bytes). To set Jumbo Frames, refer to section 4.3.4.
To ensure the integrity of packets transmitted from the camera it is recommended that these simple guidelines
be followed:
1. Whenever possible use a peer-to-peer network.
2. When connecting several cameras going though a network switch, make sure it is capable of
handling jumbo packets and that it has sufficient memory capacity.
3. Configure inter-packet delay to avoid congestion in network switches.
4. Disable screen saver and power save functions on computers.
5. Use high performance computers with multi-CPU, hyper-thread and 64-bit CPU, etc.
6. Only use Gigabit Ethernet equipment and components together with the camera.
7. Use at least Cat5e or preferably Cat6 Ethernet cables.
8. Whenever possible, limit the camera output to Mono8 or Mono10Packed for Monochrome
cameras and BayerGR8 for color.
4.3.3 Disable Firewalls
To ensure proper operation of the JAI SDK & Control Tool, all firewalls
must be disabled. This also includes the Windows firewall.
Click [Start], [Control Panel] for accessing the Windows
firewall configuration.
4.3.4 Enabling Jumbo Frames
(1) Click [Start] and click [Control Panel].
(2) Click [Performance and Maintenance].
(3) Click [System].
(4) Click [Hardware] tab.
(5) Click [Device Manager]
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(6) Expand [Network adapters].
(7) Select target NIC, right-click, and click [Properties].
Note: The following procedure uses the Intel® PRO/1000 as an example. If a different NIC is used, the setup
tabs will likely be different. In that case, set the item in a manner similar to what is described here.
(8)Click [Advanced] tab.
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(9) Select Jumbo Frames under Property, and select the desired Value. This setting defines the maximum
GevSCPS Packet Size the camera can use.
(10)Click [OK].
(11)Close [Device Manager].
(12)Close [System Properties] clicking [OK].
4.3.5 Setting Receive Descriptors
If the Network Connection Properties list contains a property
called Receive Descriptors, then change its property to the
maximum value supported by the NIC installed in the computer.
Click “OK“ to save the property.
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4.3.6 Interrupt Moderation rate
If the Network Connection Properties list contains a property
called Interrupt Moderation Rate, then it is possible to set the
preferred value. When it is changed from Minimal, M High and
Extreme, number of interruption is decreased to get better
performance. Set it to “Extreme.”
Click “OK“ to save the property.
4.3.7 Calculating and setting Inter-Packet Delay
When connecting several cameras to one network interface card via a switching hub, it is important to optimize
the Inter-Packet Delay of the cameras to avoid congestion in the switch. A sure sign of congestion is the loss of
packets.
Since increasing the inter-packet delay also adds overhead to the data transfer it is important to calculate the
optimal setting in order to make best use of the video bandwidth.
JAI Control Tool has a built in wizard for calculating Inter-Packet Delay. When the Inter-Packet Delay function
is activated, a button appears on the right hand side of the bar. Click the button to open the calculation wizard
window.
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1. At first, type in the frame rate of the connected camera.
TM-6740GE series cameras are 200 fps.
2. Set the bandwidth at 80%.
3. Click the calculation tab.
4. New value is calculated.
5. Click OK. This shown value is automatically transferred
to the Packet Delay column of the Control Tool.
4.3.8 Confirm the Filter Driver is used
The filter driver is installed as an optional function when JAI SDK is installed. If the filter driver is not installed
at that time, it can be installed from, All Programs ֜ JAI SDK ֜ GigE Vision Filter Driver ֜ Install GigE Vision
Filter Driver.
If the Filter Driver is installed properly, the Camera Control Tool indicates “ Driver Type Filter Driver “ in the
Network Interface.
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If it is not shown, confirm the setting in the “Settings” window. Access the “settings” window by clicking on
the “Control Knob” icon in the upper right corner of the window. Refer to the “Getting Started Guide”
provided with the JAI GigE Vision SDK and Control Tool for more information about controls in the “Settings”
window.
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5 Configuring the Camera
The following sections describe the various features of the camera.
5.1 Acquisition and Trigger Controls
These controls affect exposure mode, exposure time, and image acquisition operations.
Figure 13. Acquisition And Trigger Controls Category
TM-6740GE Series
AcquisitionMode: controls how the camera behaves during image acquisition.
The possible options are:
− Continuous: Images will be acquired continuously.
− SingleFrame: A single image will be acquired.
− MultiFrame: the camera acquires the number of images as specified by
AcquisitionFrameCount feature (see below).
− ContinuousRecording: The camera will continuously acquire and store images onto the
onboard memory. Acquisition is stopped when the onboard memory capacity is reached.
Images can be read from the camera using either ContinuousReadout or
SingleFrameReadout.
− ContinuousReadout: Images will be read continuously from the camera’s onboard memory.
When no more images are available, timeouts will occur.
− SingleFrameRecording: Acquire a single image and store onto the onboard memory. Images
can be read from the camera using SingleFrameReadout.
− SingleFrameReadout: A single image will be read from the onboard memory. If no frames
are available, a timeout will occur.
AcquisitionStart: tells the camera to start acquiring images in the mode as specified by AcquisitionMode.
AcquisitionStop: tells the camera to stop acquiring images.
AcquisitionFrameCount: specifies the number of frames to be acquired in the MultiFrame Acquisition mode.
Valid range is from 1 to 255.
ExposureMode: specifies mode of operation for the exposure control (or shutter). All Async modes, and
PulseWidthControl require a trigger signal. The possible options are:
− Off: 1/frame rate.
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− ContinuousPreset1: 1 / 250 sec
− ContinuousPreset2: 1 / 500 sec
− ContinuousPreset3: 1 / 1,000 sec
− ContinuousPreset4: 1 / 2,000 sec
− ContinuousPreset5: 1 / 4,000 sec
− ContinuousPreset6: 1 / 8,000 sec
− ContinuousPreset7: 1 / 16,000 sec
− ContinuousPreset8: 1 / 32,000 sec
− ContinuousPreset9: 1 / 64,000 sec
− ContinuousProgrammable: Puts the camera into ContinuousProgrammable mode and
enable ContinuousProgrammable value feature below.
− AsyncNoShutter: this mode is meant to be used in a dark environment in conjunction with
strobe light.
− AsyncPreset1: 1 / 64,000
− AsyncPreset2: 1 / 32,000 sec
− AsyncPreset3: 1 / 16,000 sec
− AsyncPreset4: 1 / 8,000 sec
− AsyncPreset5: 1 / 4,000 sec
− AsyncPreset6: 1 / 2,000 sec
− AsyncPreset7: 1 / 1,000 sec
− AsyncPreset8: 1 / 500 sec
− PulseWidthControl
− AsyncProgrammable: Puts the camera into AsyncProgrammable mode and enable
AsyncProgrammable value feature below.
ContinuousProgrammable: user defined shutter time in unit of scan lines. Available only when ExposureMode is
in ContinuousProgrammable.
AsyncProgrammable: user defined shutter time in unit of scan lines. Available only when ExposureMode is in
AsyncProgrammable. Requires trigger signal.
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5.2 AnalogControls
These controls allow you to make adjustment to image intensities (Gain), Black Level, and channel balancing.
The camera image sensor is read out via two channels called Taps. Each channel’s Gain, and Black Level can be
independently adjusted.
Figure 14. AnalogControls Category
TM-6740GE Series
GainSelector: select the video channel that GainRaw will affect.
Available choices:
− Tap1: left channel.
− Tap2: right channel.
GainRaw: controls the Gain value.
GainAutoBalance: use this feature to balance the left and right channel’s Gain values. Make sure the camera is
pointing at a uniform light source. The balance is done once and may be repeated if needed.
BlackLevelSelector: select the video channel that BlackLevelRaw will affect.
Available choices:
− Tap1: left channel.
− Tap2: right channel.
BlackLevelAutoBalance: use this feature to continuously auto balance the channels’ Black Level. When set to
Continuous, Tap2 is balanced to Tap1.
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5.3 Image Size Controls
These controls allow you to make adjustment to the image’s size, scan mode, and binning. Please see section
3.1 for a table of possible image sizes and modes.
Figure 15. ImageSizeControl category
SensorDigitizationTaps: the image sensor is read out via two channels. This feature is read only and shows that
the camera is always in DualTap mode.
WidthMax: shows the current valid maximum value for Width.
HeightMax: shows the current valid maximum value for Height.
Width: sets the width of the output image. When ScanMode is changed it is necessary to set this value to equal
to or less than WidthMax.
Height: sets the height of the output image. When ScanMode is changed it is necessary to set this value to
equal to or less than HeightMax.
OffsetX: specify the offset from the left edge of the image captured by the sensor to be sent out of the
camera. Width must be set lower than WidthMax before this value can be increased.
OffsetY: specify the offset from the top of the image captured by the sensor to be sent out of the camera.
Height must be set lower than HeightMax before this value can be increased.
Offset Example:
− ScanMode is set to B_640x160
− Width to 600 and Height to 100.
− OffsetX can have a range of 0 to 40. OffsetX is then set to 20.
− OffsetY can have a range to 0 to 80. OffsetY is then set to 35.
− The resulting image is of size 600x480 with the upper left pixel offset by 20 pixels
horizontally and 35 vertically
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Figure 16. Image Output Example
ScanMode: controls the image size captured by the image sensor. By changing to a smaller size you can achieve
a faster frame rate. After changing ScanMode it is necessary to adjust the Width and Height value to a valid
value. Available options (expressed in unit of Width x Height pixels):
− A_640x480
− B_640x160
− C_224x480
− D_224x160
BinningMode: the 6740’s Binning Mode can group the image sensor pixels together to make a larger pixel. The
larger pixel will have all the light from the 4 original pixels. This mode can be used for application in low light
level. Since the pixels are grouped, the image size is also affected. Available options are:
− Binning1x1: results in image size of 640x480.
− Binning1x2: results in image size of 640x240.
− Binning1x4: results in image size of 640x120.
− Binning2x1: results in image size of 320x480.
− Binning2x2: results in image size of 320x240.
− Binning2x4: results in image size of 320x120.
− Binning4x1: results in image size of 160x480.
− Binning4x2: results in image size of 160x240.
− Binning4x4: results in image size of 160x120.
TestImageSelector: shows a software generated test pattern. Use this feature for debugging purposes.
Available options are:
− Off: turn off test pattern generator and resume normal operation.
− DeviceSpecific: shows diagonal lines on black background. Generated by the camera’s
CPU.
− IPEngineTestPattern: shows horizontal striped gradients running right to left.
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5.4 LUT (Look Up Table)
The camera’s LUT is used for dynamic range control when the camera is in 8-bit output mode (Mono8 or
BayerGR8). This allows for the full utilization of the image sensor’s 10-bit output as it is mapped to the 8-bit
output.
Figure 17. LookUp Table
LUTMode: controls which LUT table to use. There are 2 predefined tables and 1 user configurable table.
Available options:
− Linear: a linear mapping
− Gamma45: also known as Gamma 0.45.
− Knee: you can specify the curve by controlling two points.
KneeX1: controls the X value of first Knee point.
KneeY1: controls the Y value of first Knee point.
KneeX2: controls the X value of second Knee point. This value must be greater than KneeX1.
KneeY2: controls the Y value of second Knee point.
KneeSet: after you have changed the values of the knee points click KneeSet to apply the setting. The camera
will take a few seconds to calculate the LUT table. If image acquisition is taking place the image will black out
for about 1 second.
LUTInversion: invert the current LUT table. This creates the negative of image.
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5.5 UserSets
TM-6740GE Series
These controls are for saving camera settings to the onboard memory and selection of which setting will be
used during bootup.
Figure 18. UserSets Category
UserSetSelector: selects which memory page to load, or save.
Available options:
− Default: contains factory settings.
− UserSet1: contains saved user settings.
UserSetSave: save the camera settings to the currently selected memory page. If Default is selected in
UserSetSelector then UserSetSave is grayed out (Default factory settings won’t be overwritten).
UserSetLoad: load the camera settings from the selected memory page.
UserSetDefaultSelector: chooses which memory page the camera will use as setting during boot up.
5.6 DeviceInformation
Show camera’s general information such as version, model, and serial number.
Figure 19. DeviceInformation Category
DeviceVendorName: shows JAI, Inc.
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DevicModelName: shows the camera model name.
DeviceVersion: shows the current camera version.
DeviceID: the device serial ID. This is set at the factory and only available in Expert and Guru visibility modes.
DeviceUserID: User’s modifiable ID. You can enter any character string up to a limit of 16 characters.
5.7 GigEVisionTransportLayer
More advanced controls for setting IP Address, GigE Vision Stream Channel settings, etc…
A complete explanation of GigE is out of the scope of this manual therefore the user should seek out various
online guides about: Persistent/Static IP, DHCP, LLA, IP Address, Subnet Mask, and networking.
5.7.1 Persistent IP
When powered up and connected to the network the camera will use the following sequence to obtain an IP
Address:
1. Persistent IP
2. DHCP: a DHCP server on the network will assign the camera an IP Address.
3. Link-Local Address (LLA): an IP Address in the 169.254.X.X ranged is assigned.
By default only DHCP and LLA are enabled. LLA will always be enabled. To disable DHCP mode set
GevCurrentIPConfigurationDHCP to false.
You can also assign a static IP Address to the camera so the camera will always boot up with this IP Address. To
do so follow these instructions:
1. Set Visibility to at least Expert.
2. Set GevCurrentIPConfigurationPersistenIP to True.
3. Set GevPersistentIPAddress to the IP Address of your choosing. (Ex: 169.254.0.11)
4. Set GevPersistentSubnetMask to the subnet mask of your choosing. (Ex: 255.255.0.0)
5. Set GevPersistentDefaultGateway to the IP Address of your gateway. (Ex: 0.0.0.0)
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Figure 20. GigEVisionTransportLayer Persistent IP
5.7.2 Stream Channel Packet Size
Images are sent via the StreamChannel in GigE Vision terminology. The camera is able to adjust the size of the
data packets sent on this channel. The minimum required value is 576. It is recommended that a value of 1428
is used. If setting to above 1428, the network to which the camera is connected must be able to support Jumbo
Packets. To change the stream channel packet size follow these instructions:
1. Stop image acquisition.
2. Switch Visibility to at least Expert.
3. Set GevSCPSPacketSize to a desired value.
GevHeartbeatTimeout: specifies the current heartbeat timeout in milliseconds. Available only in Guru visibility
mode. The host software must send at least one command to the camera during this period otherwise it looses
control of the camera. This is usually handled by the control tool.
5.8 IPEngine
The camera is sectioned into two logical modules: a camera head and the IPEngine. The camera head contains
the components to capture images, while the IPEngine takes care of interfacing to the outside world and
transmitting captured images. The IPEngine contains the Programmable Logic Controller (PLC) and the Grabber.
The Grabber is responsible for image transmission. All input and output signals pass through the Programmable
Logic Controller (PLC). The PLC contains a Signal Routing Block, Control Bits, and Lookup Table. The PLC also
contains 4 Pulse Generators and 1 general purpose counter. By GenICam naming convention the Pulse
Generators are called Timers. The Counter and Timers are controlled under the CountersAndTimersControls
category, and the other parts are controlled under the IPEngine category.
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Figure 21. PLC LUT Diagram
Note: Ext_VD, EXT_HD, EVINIT and INTG_CON all go the camera head. TTL Output (Strobe) goes outside the
camera via Pin 8 of the 12-Pin cable.
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Figure 22. PLC
5.8.1 SignalRoutingBlock
The Signal Routing Block is a group of switches that lets you route signals to the PLC Lookup Table. There are a
total of 8 input lines, numbered from I0 to I7. Each input line can accept a number of different signals. The
input signals can be from the camera head, externally from the 12-Pin cable, or the PLC itself.
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Figure 23. SignalRoutingBlock
Here are the possible input signals into the PLC:
Signal Source Signal Name / Input Pin
12 Pin External_Trigger_In_Pin6
12 Pin External_VD_In_Pin7 External vertical drive signal.
12 Pin External_HD_In_Pin9 External horizontal drive signal.
12 Pin External_INT_In External Integration Control / Read Out Inhibit signal.
Camera Internal_FDV_Out Frame Data Valid output signal generated by camera head.
Camera Internal_LDV_Out Line Data Valid output signal generated by camera head.
Camera Internal_CAM_STROBE_Out Strobe output signal generated by the camera head.
PLC PLC_ctrl0 True / False (High/Low) switch used for software trigger. (1)
PLC PLC_ctrl2 True / False (High/Low) switch used for software trigger. (1)
PLC PLC_ctrl3 True / False (High/Low) switch used for software trigger. (1)
PLC PLC_Q2 PLC output that can be routed back to the PLC.
PLC PLC_Q3 PLC output that can be routed back to the PLC.
PLC PLC_Q6 PLC output. This signal is also connected to the EXT_VD that
PLC PLC_Q7 PLC output. This signal is also connected to the EXT_HD that
Counter Counter1Gt Counter1’s output signaling when the current count value is
Counter Counter1Eq Counter1’s output signaling when the current count value
Description
External trigger signal.
goes to the camera head. Please see the
PLCSpecialConfigurations section below.
goes to the camera head. Please see the
PLCSpecialConfigurations section below.
greater than some user defined value. Please see Counter
section below.
equal to some user defined value. Please see Counter section
below.
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I1 I2 I3 I4 I5
X X X X X
X X X X
X
X
X
X X X
X X
X X
X X X
X X X
X
X X
X X X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
Signal Source Signal Name / Input Pin Description
Pulse Generator Timer1Out Pulse Generator 1 output signal.
Pulse Generator Timer2Out Pulse Generator 2 output signal.
Pulse Generator Timer3Out Pulse Generator 3 output signal.
Pulse Generator Timer4Out Pulse Generator 4 output signal.
Note: There is no PLC_ctrl1.
This table show possible signals each input line can accept (“(D)” specifies factory defaults):
Signal Name / Input Pin I0
External_Trigger_In_Pin6 X(D)
External_VD_In_Pin7 X
External_HD_In_Pin9 X
External_INT_In
Internal_FDV_Out X
Internal_LDV_Out
Internal_CAM_STROBE_Out X
PLC_ctrl0 X
PLC_ctrl2 X
PLC_ctrl3
PLC_Q2 X
PLC_Q3
PLC_Q6 X
PLC_Q7 X X X X
Counter1Gt
Counter1Eq
Timer1Out X
Timer2Out X
Timer3Out
Timer4Out
X(D)
X(D)
X(D)
X(D)
X(D) X
I6 I7
X X
X X
X
X X
X
X X
X
X
X
X
X
X
X
X(D)
X(D)
X
5.8.2 ControlBits
There are 3 Control Bits: PLC_ctrl0, PLC_ctrl2, and PLC_ctrl3. Note that PLC_ctrl1 is not available. The control
bits can be used as software triggers by toggling between two states: True and False. True sets the signal High,
while False sets the signal to Low.
When a bit is toggled on the host software, a Write Register command is sent to the camera. The arrival time
of the packet depends on current network traffic therefore is varied. These are recommended for testing
purposes. For more precise trigger usage please use an external input trigger signal thru the 12-Pin connector.
For a constant periodic trigger signal please use the Pulse Generators (Timers).
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Figure 24. ControlBits
5.8.3 PLC LookupTable
The PLC Lookup Table lets you connect any input signal I0-I7 to any Lookup Table output signal Q0-Q17. You
can manipulate your inputs using simple or complex Boolean operations. Each Q output results from the
Boolean operations of 4 input variables and 3 Boolean operators.
Figure 25. PLC Q Output
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The Q output allows the following Boolean operations:
− Variable0 Op0 Variable1 Op1 Variable2 Op2 Variable3
− (Variable0 Op0 Variable1) Op1 Variable2 Op2 Variable3
− Variable0 Op0 Variable1 Op1 (Variable2 Op2 Variable3)
− (Variable0 Op0 Variable1) Op1 (Variable2 Op2 Variable3)
All Q# controls follow this format:
− PLC_Q#_Variable0: the first input signal.
− PLC_Q#_Operator0: a Boolean operator.
− PLC_Q#_Variable1: the second input signal.
− PLC_Q#_Operator1: a Boolean operator.
− PLC_Q#_Variable2: the third input signal.
− PLC_Q#_Operator2: a Boolean operator.
− PLC_Q#_Variable3: the fourth input signal.
Each Variable has this selection:
− Zero: low signal.
− One: high signal.
− PLC_I0
− …
− PLC_I7
− PLC_I0_Not: a Not operation is applied to the signal.
− …
− PLC_I7_Not: a Not operation is applied to the signal.
Operator0 and Operator2 can have the following Boolean operations:
− And
− Or
− Xor
− AndParenthesis: creates a “(Variable0 & Variable1)”, or “(Variable2 & Variable3)”
operation.
− OrParenthesis: creates a “(Variable0 | Variable1)”, or “(Variable2 | Variable3)” operation.
− XorParenthesis: creates a “(Variable0 XOR Variable1)”, or “(Variable2 XOR Variable3)”
operation.
Operator1 can have the following Boolean operations:
− And
− Or
− Xor
5.8.4 PLCSpecialConfigurations
Switch Visibility mode to at least Expert to get access to these controls. There are two controls of interest in
this category: PLC_Q6_Configuration and PLC_Q7_Configuration. These two controls affect which signal source
the EXT_VD and EXT_HD come from.
PLC_Q6_Configuration: affects the EXT_VD signal.
− Set to Zero to get the signal from the PLC_Q6 output.
− Set to One to bypass the PLC LUT and get the signal directly from external 12-Pin cable.
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PLC_Q7_Configuration: affects the EXT_HD signal.
− Set to Zero to get the signal from the PLC_Q7 output.
− Set to One to bypass the PLC LUT and get the signal directly from external 12-Pin cable.
Note: If the EXT_VD and EXT_HD are not being used set PLC_Q6_Configuration and PLC_Q7_Configuration to
Zero to prevent spurious signals. Improper setting can result in black lines across captured images.
Figure 26. PLC Special Configurations
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Figure 27. CountersAndTimersControls
5.8.5 Counters
The General Purpose Counter lets you maintain a count between 0 and 232-1 (long integer). You can use
different inputs to increment, decrement, or clear the counter value.
The General Purpose Counter outputs two separate signals that indicate when the count is equal to and greater
than the compare value that you set: Counter1Gt and Counter1Eq. These signals are available on the Input lines
in the Signal Routing Block.
CounterSelector: selects which counter to configure. There is only 1 counter called Counter1.
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CounterDecrementEventSource: selects the events that will decrement the counter. This signal comes from the
Q16 pin of the PLC LUT.
Available options:
− Off: no decrement events
− PLC_Q16_RisingEdge: decrement when the signal goes from Low to High
− PLC_Q16_FallingEdge: decrement when the signal goes from High to Low.
− PLC_Q16_AnyEdge: decrement on any Falling or Rising Edge.
− PLC_Q16_LevelHigh: decrement when the signal is at the High section.
− PLC_Q16_LevelLow: decrement when the signal is at the Low section.
CounterDuration: sets the value that the CounterValue will be compared to. When the CounterValue and
CounterDuration are equal, the Counter1Eq signal will go high and stay high as long as the values are equal.
When the CounterValue is greater than CounterDuration, the Counter1Gt signal will go high.
CounterEventSource: selects the signal event type that will increment the counter. This signal comes from the
Q17 pin of the PLC LUT.
Available options:
− Off: no increment events
− PLC_Q17_RisingEdge: increment when the signal goes from Low to High
− PLC_Q17_FallingEdge: increment when the signal goes from High to Low.
− PLC_Q17_AnyEdge: increment on any Falling or Rising Edge.
− PLC_Q17_LevelHigh: increment when the signal is at the High section.
− PLC_Q17_LevelLow: increment when the signal is at the Low section.
CounterResetActivation: select the signal event type that will reset the counter. The counter will
be reset to 0.
Available options:
− Off: no decrement events
− RisingEdge: increment when the signal goes from Low to High
− FallingEdge: increment when the signal goes from High to Low.
− AnyEdge: increment on any Falling or Rising Edge.
− LevelHigh: increment when the signal is at the High section.
− LevelLow: increment when the signal is at the Low section.
CounterResetSource: selects the source for the reset signal.
Available options:
− PLC_Q3
− PLC_Q7
− PLC_Q8
− PLC_Q9
− PLC_Q10
− PLC_Q11
− PLC_Q16
− PLC_Q17
CounterTriggerSource: select the source signal to start the counter. Currently it is set to Off, meaning always
on.
CounterValue: the read only value showing the current counter value.
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5.8.6 Pulse Generators controls
The Pulse Generator lets you create a pulsed digital signal with a configurable frequency. They can be
configured to emit a continuous (periodic) pulse. One use of this feature is to create a periodic trigger signal.
The low section of the signal is called Delay, and the high is called Duration.
TimerSelector: chooses which Timer to configure.
TimerDelayRaw: configures the raw value of the low section of the output signal. The formula to calculate
actual time is:
Duration of Low (nsec) = (Granularity + 1) * (TimerDelayRaw +1) * 30
TimerDurationRaw: configures the raw value of the high section of the output signal. The formula to calculate
actual time is:
Duration of High (nsec) = (Granularity + 1) * TimerDurationRaw * 30
TimerFrequency: a read-only field that shows the frequency of the pulse in Hz.
TimerGranularityFactor: a multiplier value used to scale the Delay and the Duration in increments of 30 nsec.
TimerPeriod: shows the timer’s period in units of nsec.
TimerTriggerActivation: select the signal state of the TriggerSource to start the Timer.
− RisingEdge: starts when the trigger signal goes from Low to High
− LevelHigh: starts when the trigger signal is at the High state.
− FallingEdge: starts when the trigger signal goes from High to Low.
− AnyEdge: starts on any Falling or Rising Edge.
− LevelLow: starts when the trigger signal is at the Low state.
TimerTriggerSource: select the source of trigger to start the Timer.
− PLC_Q: the trigger source comes from the PLC Q output. Each Timer has their source from
different Q output port:
• Timer1 trigger comes from PLC_Q9
• Timer1 trigger comes from PLC_Q8
• Timer1 trigger comes from PLC_Q11
• Timer1 trigger comes from PLC_Q10
− Continuous: the Timer is always running.
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5.8.7 PLC Grabber Features
IPEngine ÆGrabber Æ Channel0 ÆAcquisitionConfiguration
GrbCh0AcqCfgMemoryWaterLevel: the camera has 16MB of memory for frame buffering. Water level setting
specifies how much of that memory to use with the AcquistionMode’s recording features. Once the buffer is full
no more images will be stored. Possible settings are:
− Level50: 50%
− Level75: 75%
− Level87Point5: 87.5%
− Level100: 100%
GrbCh0AcqCfgInvertPixelData: invert pixel data turning the image into a negative image.
− True: turn on pixel inversion.
− False: turn off pixel inversion.
IPEngine ÆGrabber Æ Channel0 Æ TriggerConfiguration
GrbCh0TrigCfgFrameToSkip: set the number of images to discard for every one it keeps from the camera head.
5.8.8 IPEngine Examples:
Example 1: Setting the camera to accept external trigger signal:
1. Set ExposureMode to one of the Asynchronous modes.
2. Setup SignalRoutingBlock
a. Goto IPEngine > ProgrammableLogicController > SignalRoutingBlock
b. Set Trigger Input line by setting PLC_I0 to External_Trigger_In_Pin6
c. Set Camera Strobe Output by setting PLC_I4 to “Internal CAM_STROBE_Out”.
3. Setup the PLC to route the external trigger signal to the camera’s trigger line.
d. Goto IPEngine > ProgrammableLogicController > LookupTable > Q0/Q4/ Q5
i Set PLC_Q0_Variable0 to PLC_I4 (Strobe output)
ii Set PLC_Q4_Variable0 to PLC_I0 (Trigger Line)
iii Set PLC_Q5_Variable0 to One. (Integration signal always on.)
Example 2: Setting the camera to accept internal trigger signal generated via Timer 1:
1. Set ExposureMode to one of Asynchronous modes.
2. Setup the Timer (Pulse Generator)
a. Set TimerSelector to Timer1.
b. Set TimerTriggerSource to Continuous.
c. Set TimerDurationRaw, TimerDelayRaw, TimerGranularityFactor according to values
below.
i These are example values only; other combinations can also be used.
ii TimerFrequency tells you the rate of the trigger, hence frame rate.
<0.5 fps
TimerDurationRaw 200
TimerDelayRaw 10000
TimerGranularityFactor 7000
3. Setup SignalRoutingBlock
a. Goto IPEngine > ProgrammableLogicController > SignalRoutingBlock
Configuring the Camera 61
1 fps
200
4550
7000
5 fps
200
750
7000
Page 62
1
Off
f
Off
f
Example 3: Setting up Integration Signal routing from external source:
5.9 Register Map
Category / Feature Read/Write Value Range Default Value Visibility Level
AcquisitionAndTriggerControls
AcquisitionMode RW
TM-6740GE Series
b. Set PLC_I4 to “Internal CAM_STROBE_Out”.
c. Set PLC_I7 to Timer1Out.
4. Setup the ProgrammableLogicController (PLC) to route the Timer1 output to the camera’s trigger line.
a. Goto IPEngine > ProgrammableLogicController > LookupTable
i Set Q4 > PLC_Q4_Variable0 to PLC_I7 (Trigger Line)
ii Set Q0 > PLC_Q0_Variable0 to PLC_I4 (Strobe output)
iii Set Q5 > PLC_Q5_Variable0 to One. (Integration signal always on.)
1. Goto IPEngine > ProgrammableLogicController > SignalRoutingBlock
2. Set PLC_I3 to External_INT_In
3. Goto IPEngine > ProgrammableLogicController > LookupTable
4. Set Q5 > PLC_Q5_Variable0 to PLC_I3. (Integration signal always on.)
Continuous
SingleFrame
MultiFrame
ContinuousRecording
ContinuousReadout
SingleFrameRecording
SingleFrameReadout
Continuous
Beginner
AcquisitionFrameCount RW
AcquisitionStart RO Execute Command
AcquisitionStop RO Execute Command
ExposureMode RW
AsyncProgrammable RW
ContinousProgrammable RW
AnalogControls
GainSelector RW
GainRaw RW
GainAutoBalance RW
1-255
ContinuousPreset1
…
ContinuousPreset9
ContinuousProgrammable
AsyncNoShutter
AsyncPreset1 …
AsyncPreset8
AsyncPreset9
AsyncProgrammable
0-2079
499 (ScanMode: A and C)
200 (All other
ScanModes)
Tap1
Tap2
66-488
Once
Beginner
Beginner
Beginner
Of
Factory Set Beginner
Tap1
Factory Set Beginner
Of
Beginner
Beginner
Beginner
Beginner
BlackLevelSelector RW
62 Configuring the Camera
Tap1
Tap2
Tap1
Expert
Page 63
TM-6740GE
Series
Off
0
Off
f
0
Off
f
Off
f
Off
Off
Category / Feature Read/Write Value Range Default Value Visibility Level
BlackLevelRaw RW
BlackLevelAutoBalance RW
CountersAndTimersControls
TimerSelector RW
TimerDelayRaw RW
TimerDurationRaw RW
TimerGranularityFactor RW
TimerTriggerActivation RW
TimerTriggerSource RW
CounterSelector RW
0-511
Continuous
Timer1
Timer2
Timer3
Timer4
1-65535
1-65535
1-65535
RisingEdge
LevelHigh
FallingEdge
AnyEdge
LevelLow
PLC_Q
Continuous
Counter1
Factory Set Expert
Continuous Expert
Timer1
1024
4096
RisingEdge Beginner
PLC_Q
Counter1 Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
CounterDecrementEventSource RW
CounterDuration RW
CounterEventSource RW
CounterResetActivation RW
CounterResetSource RW
PLC_Q16_RisingEdge
PLC_Q16_FallingEdge
PLC_Q16_AnyEdge
PLC_Q16_LevelHigh
PLC_Q16_LevelLow
0-4294967295
PLC_Q17_RisingEdge
PLC_Q17_FallingEdge
PLC_Q17_AnyEdge
PLC_Q17_LevelHigh
PLC_Q17_LevelLow
RisingEdge
FallingEdge
AnyEdge
LevelHigh
LevelLow
PLC_Q3
PLC_Q7
PLC_Q8
PLC_Q9
PLC_Q10
PLC_Q11
PLC_Q16
PLC_Q17
Of
Of
Of
PLC_Q3 Beginner
Beginner
Beginner
Beginner
Beginner
CounterTriggerSource RW
CounterValue
Configuring the Camera 63
RO
0 - 4294967295
Beginner
Beginner
Page 64
TM-6740GE Series
RW
On
f
Category / Feature Read/Write Value Range Default Value Visibility Level
DeviceInformation
DeviceVendorName RO
Beginner
DeviceModelName RO
DeviceManufacturerInfo RO
DeviceVersion RO
DeviceID RO
DeviceUserID
GigEVisionTransportLayer
GevSCPSPacketSize RW
GevPersistentIPAddress RW
GevPersistentSubnetMask RW
GevPersistentDefaultGateway RW
GevCurrentIPConfigurationPersistenIP RW
ImageSizeControl
SensorDigitizationTaps RW
WidthMax RO 0 - 640
User definable string
72 - 16260
000.000.000.000 -
255.255.255
000.000.000.000 -
255.255.255
000.000.000.000 -
255.255.255
Off
Two
1428
000.000.000.0
00
000.000.000.0
00
000.000.000.0
00
Of
Two
Beginner
Beginner
Beginner
Expert
Beginner
Expert
Expert
Expert
Expert
Beginner
Expert
HeightMax RO 0 - 480
Width RW
Height RW
OffsetX RW
OffsetY RW
PixelFormat RW
ScanMode RW
BinningMode RW
0 to (WidthMax - OffsetX)
0 to (HeightMax OffsetY)
WidthMax - Width
HeightMax - Height
Monochrome:
Mono8
Mono10
Mono10Packed
Bayer:
BayerGR8
BayerGR10
A_640x480
B_640X160
C_224X480
D_224X160
U_UserProgrammable
Binning1x1
Binning1x2
Binning1x4
Binning2x2
…
Binning4x4
Monochrome:
Mono8
Bayer:
BayerGR8
A_640x480
Binning1x1
Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
64 Configuring the Camera
Page 65
TM-6740GE
Series
Off
f
Category / Feature Read/Write Value Range Default Value Visibility Level
TestImageSelector RW
LUT
LUTMode RW
KneeX1 RW
KneeY1 RW
KneeX2 RW
KneeY2 RW
LUTInversion RW
UserSets
UserSetSelector RW
UserSetLoad RW
DeviceSpecific
IPEngineTestPattern
Linear
Gamma45
Knne
0 - 255
0 - 255
0 - 255
0 - 255
Execute Command
Default
UserSet1
Execute Command
Of
Linear
255
255
255
255
UserSet1 Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
Beginner
UserSetSave RW
UserSetDefaultSelector RW
Execute Command
Default
UserSet1
Beginner
UserSet1 Expert
Configuring the Camera 65
Page 66
•
•
•
•
6 Troubleshooting
6.1 Problems and Solutions
Following are troubleshooting tips for common problems. Generally, problems can easily be solved by following
these instructions. If the following remedies fail to offer a solution to your problems, please contact a JAI
representative.
6.1.1 Symptom: No Video
Remedies: Check that the following are properly connected and operational.
TM-6740GE Series
• Power supplies
• Power cables
• Main power source
• Shutter control
6.1.2 Symptom: Dark Video
Remedies: Check that the following are properly connected and operational.
• Shutter selection
• Iris opening on the lens
6.1.3 Symptom: Non-Synchronized Video
Remedies: Check that the following are properly connected and operational.
• Proper mode output
• Frame grabber software camera selection
6.2 Information and Support Resources
For further information and support:
Phone:
(408) 383-0300
(800) 445-5444
Fax:
Email:
Mail:
(408) 383-0301
camerasales.americas@jai.com
JAI, Inc.
Sales Department
625 River Oaks Parkway
San Jose, CA 95134
ATTN: Video Applications
Web site:
www.jai.com
Async mode
Lens
Digital output cable
Analog video cable
66 Troubleshooting
Page 67
TM-6740GE
Series
7 Appendix
7.1 Specifications
Table 9 TM-6740GE Camera Specifications Table
Feature TM-6740GE
Imager 1/3" progressive scan interline transfer CCD (KAI-0340)
Active Area 4.74mm x 3.55mm
Active Pixels 640 (H) x 480 (V)
Cell Size 7.4μm x 7.4μm
Display Mode (Active Pixels) 640 (H) x 480 (V) @ 200 Hz (full image)
Sync Internal/External auto switch
Data Clock Output 40.00 MHz
Resolution Digital: 640 (H) x 480 (V),
S/N Ratio 50dB min.
Min. Illumination Monochrome: 1.4 lux. Color: 11.0 lux.
Video Output Analog: 714 mV, 75 ohms, (750 mV white clip)
Gamma Programmable LUT (1.0 std.)
Lens Mount C-mount (use >1/3" format lenses or larger)
Power Requirement 12V DC, ±10%, 440mA (typical at 25°C)
Operating Temp. -10°C to 50°C*
Vibration 7 Grms (10Hz to 2000Hz) Random, 11 ms half sine
Shock 70G
Size (W x H x L) 51mm x 51mm x 84mm
Weight 194 grams (6.17 oz.) without tripod
Optional Functions OP 3-1, internal IR filter;
Optional Accessories
*. Refer to Section 2.2.1 for information on camera heat dissipation. Image quality
will degrade with increasing temperature.
Power Cable
Power Supply
Tripod Mounting Kit
640 (H) x 160 (V) @ 540Hz (partial scan)
224 (H) x 480 (V) @ 500Hz (partial scan)
224 (H) x 160 (V) @ 1250Hz (partial scan)
(1x2, 1x4, 2x1, 2x2, 2x4, 4x1, 4x2, 4x4 binning)
HD/VD, 4.0 Vp-p impedance 4.7 K ohms
VD=frame rates±2%, non-interlace
HD=100 kHz ±2%
(Analog: over 480 TV lines (H) x 480 TV lines (V))
f = 1.4, no shutter, 200 fps. Sensitivity: 30μV/e-
Digital output: 8-bit / 10-bit
Gigabit Ethernet (selectable)
OP 3-2, optical filter removal;
OP 21, glassless CCD imager;
OP 21-UV, QUV glassless CCD imager with quartz window
12P-02S
PD-12UUP series (includes power connector)
TP-20
Appendix 67
Page 68
TM-6740GE Series
7.1.1 TM-6740GE Physical Dimensions
Figure 28. Physical Dimensions
Caution:When mounting the camera to any fixture, do not use screws that extend more than 5 mm into the
camera housing to avoid possible damage to the internal circuitry. For attaching the tripod mounting plate,
only the supplied screws should be used.
68 Appendix
Page 69
TM-6740GE
Series
7.1.2 Spectral Response
Figure 29. TM-6740 Spectral Response
Figure 30. TMC-6740 Spectral Response
Appendix 69
Page 70
TM-6740GE Series
70 Appendix
Page 71
Page 72
Europe, Middle East & Africa
Phone +45 4457 8888
Fax +45 4491 3252
Asia Pacific
Phone +81 45 440 0154
Fax +81 45 440 0166
Americas
Phone (Toll-Free) 1 800 445-5444
Phone +1 408 383-0301
www.jai.com
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