In conventional computers, bits can be only ‘zero' and ‘one'. Already in the quantum universe, qubits can be ‘zero' and ‘one' at the same time, creating entanglements of combinations that dramatically increase processing capacity. Quantum computing has everything to be the next frontier in algorithm evolution – but technology is still extremely difficult to apply on a large scale and, for now, the big problem is the instability and sensitivity o…
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In conventional computers, bits can be only ‘zero' and ‘one'. Already in the quantum universe, qubits can be ‘zero' and ‘one' at the same time, creating entanglements of combinations that dramatically increase processing capacity. Quantum computing has everything to be the next frontier in algorithm evolution – but technology is still extremely difficult to apply on a large scale and, for now, the big problem is the instability and sensitivity o…