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These traditionally have worked best

07/10/2019

　　The no-brainer solution is to reduce the aperture of the lens to increase depth of field, or aim the camera at the object you wish to be in focus and depress the shutter button half way Farm duty motors Manufacturers in order to "tell" the camera what to focus on, then move the camera to center the image and depress it the rest of the way. This requires an ability to predict the future, something most of us don't possess. The camera's focus system

　　Except for the lag, the digital camera has it all over film cameras, once the photo is captured by the memory card. As we've noticed lately with the war between Intel and AMD over the number of parallel processors crammed into a CPU, digital camera processing would benefit from parallel processors handling the focussing, sharpening and squeezing. Improvement in instructional efficiency by reducing the lines of code would make the whole process more efficient.

　　2.

　　These steps require a tremendous amount of computational time. He had used film cameras all his life, but when his Yashica went into the shop a friend loaned him a digital camera. Although a few alternate materials have been around for awhile, everything else is still in the research and development phase. Parallel Processing.

　　As far as human reaction time, well, it hasn't really changed much for users of film cameras, and people experienced in taking action shots usually get what they want. Even with large buffers, the speed in which data is transmitted to the processor is prohibited by the rate at which data is conveyed from the CCD.

　　So let's look at number 2, the time it takes to process the picture.

　　3. Color corrections. Micro processing speed is the next bottleneck.

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　　This was his first digital camera, and Bob had just experienced an unpleasant surprise. The new technology will be worth the wait.Bob pushed the shutter release button andNOTHING HAPPENED. The "consecutive mode". Much faster than silicon

　　Optical transistors. For a 3 mega pixel camera, the processor has to make 9 million calculations. There are several technologies in the wings that offer hope:

　　1. DNA Yes, you heard me right.

　　Digital camera owners are known for their ability to waitas they desperately punch the shutter release trying to grab the fleeting smile of their new baby, or the football that lands in his hands eighteen years later, when he scores the winning touchdown. Even when it finally trickles out of the labs, it will probably make your future digital camera cost around $10000 - $15000. This requires a camera with a large 'buffer" to hold photos for processing.

　　Silicon-Germanium chips increase the transfer of light signals to silicon. No need to translate those photons into anything else.

　　Numbers one and three are lag times that most people using digital cameras are accustomed to. This compresses the file size to 9 megabytes.

　　These traditionally have worked best at ultra cold temperatures, but many computer simulations have shown that they may be made to approach 1000 GHz (1 THz) at room temperature. He resisted an insane urge to slam the camera to the ground and jump on it. This will give a new meaning to the term "computer virus". The camera has to examine each and every Charge Couple Device (CCD) element on the photo sensor. Nanotube and nanowire technologies. Computing based on DNA strands in which information is stored and processed. These are both the offspring of "nanotechnology", the ability to make tiny machines at the "nano" level, a billionth of a meter in size rather than a millionth of a meter (micrometer) and offer hope for a 500 GHz clock rate or more. No wonder Bob missed his shot!