Even though we experience the benefits of classical computing daily, there are problems above a specific size and complexity that will take a standard computer an impractical amount of some time to resolve. Enter quantum computing. All computers rely upon a fundamental ability to store and manipulate information. Current computers manipulate individual bits, which store information as binary 0 and 1 states. as an example, when our human eyes see the letter “A”, our computer sees a specific string of zeroes and ones. From social media to spreadsheets (show samples of classical computer: Word, Excel, social media, video games, etc), everything is finished through these sequences of zeroes and ones (matrix style string of bits).
Where current computers use bits, quantum computers use qubits.The bits in our current computers can only be either one or zero, but not both. But qubits can represent a 1 and a zero at the identical time. So if computers were coins, current models would be a coin flip with either heads or tails because the sole outcomes. But quantum computing would be like spinning the coin; the pc doesn’t must choose one or the other. this allows quantum computers to appear at many different variables simultaneously. the good news is that quantum computers would be thousands of times faster than our current computers, possibly reducing the time to unravel a complicated problem from many thousands of years to mere seconds.
The bad news? Quantum computers are very fragile and wish to be perfectly isolated from heat and vibration. One quantum computer is kept cool at 0.015 Kelvin, or about 180 times colder than part. Although quantum computers promise to power exciting advances opt batteries or new disease-curing medicines, conventional computers will still be the simplest and most economical solution for tackling most problems.