SerialTime-encodedAmplified

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  • 36.7 million FPS camera revolutionized cancer screening, next comes combat sports

    by 
    Terrence O'Brien
    Terrence O'Brien
    07.11.2012

    We're quite familiar with the fun you can have when you've got a high speed camera in your possession. But, even Phantom's pricey and impressive 2,800 FPS cameras have nothing on the latest project out of UCLA. Engineers at the school have rigged up a microscope cam that uses serial time-encoded amplified microscopy (STEAM) to capture clips of individual cells at 36.7 million FPS. Let that sink in for a moment -- that's a "shutter" speed of 27 picoseconds. The school actually pioneered the method years ago, which uses ultra-fast laser pulses to generate images of cells as they speed by. The camera is capable of processing 100,000 cells a second, allowing doctors to spot cancerous anomalies that might have otherwise gone undetected. Now we just hope they can supersize the tech and sell it to HBO... boxing KOs can never be played back slow enough.

  • World's fastest camera manipulates supercontinuum laser pulses, moonlights at the Hacienda

    by 
    Joseph L. Flatley
    Joseph L. Flatley
    05.01.2009

    Researchers at the University of California in Los Angeles have developed a new imaging system called Steam, or Serial Time-Encoded Amplified imaging. Billed as the"fastest imaging system ever devised," it works by carefully manipulating so-called supercontinuum laser pulses, for imaging fast-moving or random events, such as communication between neurons. Instead of a flashbulb, this bad boy disperses a fast laser pulse, which then gets stretched in time and detected electronically, for a "shutter speed" of half a billionth of a second. When not being used to "trip people out" at "raves," this camera can capture over six million images a second. Our old PowerShot can't even do half that! According to the head of the research team, Bahram Jalali of UCLA, the next step is to improve the spatial resolution of the technology so they can take crystal clear pictures of the inner structure of cells. The team is also working on a similar technique for 3-D imaging.[Via BBC]