High-Speed Video Camera
Medical science and engineering have made dramatic progress thanks to visualization technology. Examples include the invention of microscopes capable of enlarged observations of phenomena occurring in the microscopic domain, invisible to the human eye, X-ray inspection systems, which enable the observation of images utilizing light at imperceptible wavelengths, and infrared cameras. Our eyes are incapable of capturing phenomena occurring at times shorter than 50 to 100 ms. As a result, high-speed video cameras have become necessary in order to record phenomena occurring at intervals that cannot be seen with the human eye, and then replay them at a slower rate so that they can be visualized. As the standard tool for visualizing ultra high-speed domains, the Hyper Vision high-speed video camera contributes to our understanding of ultra high-speed phenomena in a variety of fields.
Laser Ablation Film Forming Apparatus
Instantaneous Flash Lighting (Recording speed: 10 million frames/second)
Destruction progress of the LED by the overcurrent
Milkcrown High-Speed Video Camera
High Speed Collision of Resin Sphere1
Ink Jet Discharge
High Speed Collision of Resin Sphere2
Collision of High Speed Projectiles
Water Spray (Recording speed: 10 million frames/second)
Crack Propagation (Glass) (Recording speed: 10 million frames/second)
CFRP High-Speed Tensile Test (Recording speed: 10 million frames/second)
MEMS High-Speed Operation (Recording speed: 10 million frames/second)
Breaking Glass - (Recording Speed 10Mfps)
Atomization Process of Fuels 2 mm from the nozzle
The Destruction Process of Microbubbles in Proximity to Cancer Cells Using Ultrasonic Waves
Fuel Injection Nozzle Injector for an Automobile Engine
Atomization Process of Fuels 1 mm from the nozzle
High Speed Tensile Test of Carbon Fiber Reinforced Plastics CFRP
Spark Plugs
Atomization Process of Fuels Near the nozzle outlet
Dielectric breakdown of the semiconductor device
Supersonic Wind Tunnel Test
High Speed Collision of a Transparent Laminate with a Resin Sphere
CFRP Lightning Strike Test
Inkjet Printers
High Speed Contraction of Microbubbles
Propagation of detonation
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| Applications | Date Creation Date |
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2021-06-29 |
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2020-04-07 |
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2019-05-13 |
Shimadzu's New HMV-G30 / HMV-G31Series Micro Vickers Hardness Testers Include New Data Protection Functions and a Model Equipped with a Color Camera
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Evaluation of Dynamic Deformation Behavior of LPSO Type Magnesium Alloy by AE Method and High Speed Camera
Automobile Evaluation Instruments Brochure is now available.
Amino acid composition analysis has traditionally been conducted for protein quantitation and peptide structure prediction. Its use has also extended in recent years to the quantitation of such functional components as branched chain amino acids (BCAA). Previously, in Application News No. L432 and L437, we introduced examples of analysis of amino acids subjected to fluorescence derivatization using o-phthalaldehyde (OPA) using the SIL-30AC. Here, we introduce an example of fast analysis of amino acids in proteins.
