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HiSpec 5 Technical Data

  • icon Overview
  • icon Specifications
  • icon Record Table
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HiSpec 5

bluedot1696 x 1710 resolution CMOS sensor

bluedot523 frames per second at full resolution

bluedot1216 x 1216 at 1,000 frames per second

bluedotFrame rates in excess of 200,000 at reduced resolution

bluedotBattery operation


 
The HiSpec 5 provides excellent high detail images at full resolution of 1696 x 1710 pixels and can capture megapixel images at more than 1,400 fps. The camera's standard memory is 4GB and can be expanded up to 8GB or 16GB total memory. The built-in battery operates in three modes; fail-safe mode to save images in the event of a power loss, untethered operation for up to an hour, and an image retention mode of up to 24 hours. The HiSpec 5's Gigabit Ethernet interface allows users to operate multiple cameras from any standard Notebook / PC up to a distance of 100 meters and multiple cameras can be synchronized to a master camera or to an external source, such as IRIG-B timing. Additional features include ImageBLITZ® software for automatic event triggering, Burst Trigger mode for recording images over an extended period of time and the Multi-Sequence Record mode to record sequences in 2, 4, 8 or 16 individual memory partitions.
 
 

Datasheet

Compact Size - 63mm H x 63mm W x 65mm D and .28 kg

 
Camera Specifications
SYSTEM DESIGN Scaleable and network-compatible with standard and/or notebook PC's.  Synchronous processing of multiple cameras
SENSOR CMOS sensor, 1696 x 1710 pixels, 8-bit monochrome or RGB color with Bayer filter.  Active pixel area 19,27mm diagonal
PIXEL SIZE 8µm x 8µm
LIGHT SENSITIVITY 1,600 ISO monochrome, 1,000 ISO color
SPECTRAL BANDWIDTH 400 - 900 nm
RECORDING RATE Up to 523 fps at full resolution.  Up to 298,851 fps at reduced resolution
MEMORY 4GB.  Optional upgrade to 8GB or 16GB total memory
SHUTTER Global electronic shutter from 2µsec to 1 second in 2µsec steps
LENS MOUNT C-Mount or F-Mount
FILE FORMAT BMP, TIF, DNG, JPG or AVI file format
CAMERA/PC INTERFACE 1000/100 Ethernet interface (Gigabit Ethernet)
PHASE LOCK Multiple cameras can be synchronized to a master camera or to an external source such as optional IRIG-B
TRIGGER Contact closure, external TTL signal or optional ImageBLITZ® Auto Trigger software
CONTROL SOFTWARE HiSpec Director 2 application Win 7/Vista/XP 32/64-bit
CAMERA SIZE 69mm H x 93mm W x 92mm D with C-Mount.  69mm H x 93mm W x 128mm D with F-Mount
CAMERA WEIGHT .9 Kg. without lens
OPERATING ENVIRONMENT +5°C to +45°C
POWER SUPPLY 10 - 30V DC external power supply
POWER CONSUMPTION 15W maximum
 
 
 
Camera Record Table
 
  4GB Standard  8GB Option
Maximum
Frame Rate
Resolution

Recording Time
@ Max Frame Rate

Frames

Recording Time
@ Max Frame Rate

Frames
523 fps 1696 x 1710
2.8 sec. 1,480
5.7 sec. 2,960
1,150 fps 1280 x 1024
2.8 sec. 3,277
5.7 sec. 6,555
1,633 fps 1280 x 720
2.8 sec. 4,654
5.7 sec. 9,324
1,405 fps 1024 x 1024
2.9 sec. 4,075
5.8 sec. 8,191
4,453 fps 640 x 480
3.1 sec. 13,982
6.3 sec. 27,965
5,001 fps 512 x 512
3.3 sec. 16,403
6.6 sec. 33,007
14,781 fps 320 x 240
3.8 sec. 55,872
7.6 sec. 111,892
298,851 fps 128 x 2
56.1 sec. 16,777,495
114.0 sec. 34,069,014
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ABOUT HIGH-SPEED DIGITAL VIDEO CAMERAS

What are High-Speed Digital Video Cameras?
Why Use High-Speed Digital Video Cameras?
What are the Advantages of High-Speed  Digital Video Cameras?
Who Uses High-Speed Digital Video Cameras?
What Is It Used For?
What Are The Technical Considerations?

What are High-Speed Digital Video Cameras?
High-speed digital video cameras can be used as a diagnostic tool that helps engineers and researchers analyze high-speed processes. It captures a sequential series of images that are recorded at very high frame rates and played back in slow-motion to allow the viewer to see, measure and understand events that happen too fast to see with the unaided eye. High-speed video is simply the technique of recording an event at a high frame rate and playing the images back at a much slower rate, thus slowing down the event so you can actually see what’s happening.

High-speed video can help you understand your unique motion analysis applications. Whether your work involves product design, research, machinery maintenance, or biomechanics, ultra high-speed video can become one of the most important tools at your disposal. The world moves much too quickly to catch it all with our own eyes.

If you use ultra high-speed video cameras instead of standard camcorders to capture motion sequences at hundreds or thousands of frames per second, you can see the detail that occurs within that high-speed event. At 500 frames per second, you get nearly 17 images for every one that would be captured by standard (30 fps) video. And at 3,000 frames per second, you have 100 images for each standard video frame. With high-speed video, you can view important high-speed applications in a manner that allows for a meaningful analysis of that event. And if you capture a motion sequence at 500 fps and view it at 30 fps, you see a smooth, continuous motion. High-speed video gives you a better understanding of the actual motion you are studying. With high-speed video, problems can now be seen and solved.
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Why Use High-Speed Video Cameras?

Understanding high-speed motion is absolutely critical in today's fast-paced manufacturing and research environments. Using high-speed video is one of the easiest and most cost effective ways to achieve this important information.

Standard camcorders can only record at 30 frames per second, and as a result, usually miss most of the action in fast-moving events. However, if we use high-speed cameras to record these events at hundreds or even thousands of frames per second, it is a different story. When we play the images back in slow motion, or even stop and examine a single frame, we can see details that go unnoticed at normal speed.

We can learn a great deal about motion sequences if we record them with high-speed video cameras and then study the recordings in slow motion – or even as individual frames. We’ve all seen the slow motion images of automobile crash testing on TV commercials that illustrate seat belt safety or airbag inflation. Trying to capture and view these images at 30 fps would have far less impact and would be difficult, if not impossible, to analyze in any meaningful way.


As noted above, frame rate is the number or frequency of images taken, measured in images per second. Standard NTSC video (camcorders) is 30 frames per second. Shutter speed is the duration of exposure for the image, usually measured in hundredths or thousandths of a second.
A high shutter speed does not necessarily equal a high sample or frame rate. Most consumer camcorders offer high-speed shutter capability for their 30 frame per second record rates. It is possible to have 30 samples each taken at 1/2,000 of a second exposure rate. For example, if on a high-speed packaging line one package fills the field of view and if 60 packages move through the field of view in one second, the standard camera will only record, “see,” every second package.
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What are the Advantages of High-Speed Video Cameras?
While it’s possible to use standard video equipment to record and analyze motion, there are limitations to this technology:

The sampling rate of 30 frames per second (standard NTSC video) is too slow for most motion problems. Many high-speed activities occur within 100 milliseconds, 1/10 of a second. With standard 30 fps video we are only able to capture one image every 33 milliseconds. In an event that occurs within 100 milliseconds, standard video would provide a user with approximately three frames of information. With a high-speed video camera recording at 1,000 fps, the user would be able to view 100 frames of that same event.


A motion sequence recorded at 30 frames per second and slowed down by a factor of ten allows us to view it at 3 frames per second. The resulting image is very “jerky” and therefore extremely difficult to analyze with any accuracy or in meaningful detail. This is extremely important when a critical understanding of motion is crucial to your success.

Who Uses High-Speed Video Cameras?

Industries where high-speed video is solving a wide range of problems include:

Aerospace program Paper products
Appliances Personal care products
Automotive Petroleum products
Beverages Pharmaceuticals
Can manufacturing Plastics
Chemicals Printing and publishing
Computer & office products Research facilities
Electronic components Rubber products
Food processing Switches and controls
Household products Sporting goods
Machine tools Test instruments
Medical devices Textiles
Metal stamping Universities
Motors and engines
Munitions
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What Is It Used For?
Although every high-speed application is at least a little unique, high-speed video applications generally fall into four broad functional areas: Equipment Design, Testing, Research, and Production. These categories cut across industry lines and include dozens of specific applications.

Equipment Design
New mechanism design
Equipment modification
Pre-shipment shakedown

Research
Biology
Combustion
Biomechanics
Fluid dynamics
Wind tunnel

Testing
Materials testing
- Fracture
- Penetration
- Impact
- Vendor certification
Assembly and component testing
- Vibration
- Shock
- Stress

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Production
Equipment setup and changeovers
Full capacity characterization
Predictive maintenance
Machinery diagnostics
General troubleshooting
Maintenance and repair

 

What Are The Technical Considerations?
The very first thing anyone should look at when thinking about high-speed video is “what speed is necessary?” Common questions to keep in mind are "How fast do I need?" and "How fast is too fast?"

After speed is determined, the next item to be considered is the resolution of the image. If storage space is a concern, then the smallest resolution that works for the application should be chosen. If storage space is not an issue, than higher resolutions can be used. However, there will be a lot of wasted data generated from this practice. The idea of "more is better" is not always true when other variables are considered.

Now that the necessary speed and resolution choices have been made for the application, the next choice will be between the type of camera and type of control interface required. The speed and resolution choices will determine a range of cameras, but the type of interface also plays a role in this choice. Will you be working in a lab where you can interface the camera to a computer full-time, or will you be in a factory or out in the field, where simplicity and portability are key requirements?

In summary:
• Know your application — the biggest and fastest is not always required
• Know how you want to interface with your system
• Storage requirements
• Portability
• Speed

Make sure all components of the solution will be compatible.

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Fastec manufactures portable, point and shoot digital video cameras for motion analysis in plant maintenance and field service troubleshooting, research, military test and instrumentation and sports training.