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it can represent only the finite state machine.In such a machine an arbitrarily long sequence of input symbols is bound to create a periodic output with a period not more than the number of states.hence computations that need to remember an arbitrary number of past input symbols cant be implemented by seq machines
Sewing machines can do many types of sewing. Some of them are practical, like stitches for attaching fabrics together. Others are decorative, for example, some sewing machines can spell out words on fabrics.
centrifugation machines spin a sample at up to somewhere around the 2000g mark. Some go much higher, some much lower. An ultracentrifuge kicks *** compared to this though. run samples at 200,000g. Same with most biological machines, a microtome cant cut as thin as an ultramicrotome etc. ultra just makes it do its job to a much more refined or powerful degree
Losses of energy within the machine- some of the energy is used up by friction, and converted to heat. There is also the matter of efficency of a machine. The less efficent, the more power you must put in to get the same output.
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Output is obtained for a given input and we cant control the output my means of any feedback loop control to the input
-- The output work can't be greater than the output because they are, by definition of the terms, the self-same quantity, and consequently can be neither greater not lesser, but must at all times remain identical. -- The output work can't be greater than the INPUT ... unless additional energy is supplied inside the machine ... because total energy of a system is conserved, and cannot be created ex nihilo.
it can represent only the finite state machine.In such a machine an arbitrarily long sequence of input symbols is bound to create a periodic output with a period not more than the number of states.hence computations that need to remember an arbitrary number of past input symbols cant be implemented by seq machines
There are a number of reasons why machines cannot convert all of their input into useful work. This is because they were made by humans and have a margin of error.
no, because the photography is the input or the processing of how we see the output or the pictures, but without photography we cant see the images that we produce..
Work input is how much work you put into a machine and work output is the work done by the machine according to how much work you put into it. You will never get more work out of a machine than you put into it. The efficiency of a machine is how much useful work you got out of the machine compared to how much you put in (expressed in a percent). Efficiency = Useful Work Output ÷ Work Input
a phone is either it can be or it cant bcause you can talk into it and someone can talk out of it .
No, we don't find the output force of a system is greater than its input. We've never seen this. There are losses associated with any system, whether they be mechanical, thermal or other. That prevents a situation where we can get more energy out of a system than we put in. We don't know all there is to know about physics, but we know a lot. If we knew how to get more energy out of a system than we put into it, we'd have applied that to generate electrical power. Consider how we provide electricity ot the power grid now and think it through to confirm the idea that we don't know of a way to get more energy out of a system than we put in. Perpentual motion isn't something we've realized, either.
in general the CE amplifiers are called low-signal amplifiers as they use only small values of voltage as a source of input which cant be used in practical purposes, whereas power amplifiers deal with practical values of input and output voltages
Input devices are all devices (appliances) which provide data to the computer. These include CD drives, microphones, mouse, keyboard and more.Output devices are all devices which provide data to the user or another computer. These could be monitor or printer.There are hybrid devices which can both be used for input and output, e.g. network links or CD burners.