Examples of using Classical computers in English and their translations into Chinese
{-}
-
Political
-
Ecclesiastic
-
Programming
But classical computers have some limitations, too.
Difference between quantum and classical computers.
Classical computers aren't well suited to these types of creative problems.
Which can be difficult(if not impossible) for classical computers.
I think classical computers will remain most important for general use.
D-Wave systems are intended to be used to complement classical computers.
For many problems, classical computers will remain the best tool to use.
D-Wave systems are made to be utilized to complement classical computers.
Classical computers can easily simulate random motion to predict this result.
Quantum computers are not just massively parallel classical computers.
Classical computers can only generate quasi-random numbers that eventually repeat.
Whether quantum computers can be faster than classical computers depends on the nature of the problem being solved.
In classical computers, the first processors could be implemented with minimal(or no) error correction.
That application might, for instance,produce far stronger passwords than humans or classical computers are able to come up with.
In classical computers, information is encoded in binary bits, so two bits could be 00, 01, 10 or 11.
While the toughest optimization problems in these industries stump classical computers, they are well-suited for being solved on a quantum machine.
Classical computers are not good at this and take a long time to crack cryptographic codes based on prime number factors.
NP is all the problems that classical computers can't necessarily solve quickly, but for which they can quickly verify an answer if presented with one.
The first classical computers were actually analog machines, but these proved to be too error-prone to compete with their digital cousins.
Classical computers rely on ordered circuits where electric charges follow preprogrammed rules, but this strategy limits how efficient they can be.
Foremost, classical computers are universal, which means they can solve almost any type of problem we can express in terms of ones and zeros.
Classical computers have been around for six decades or more, and we couldn't have predicted they would wind up with the capabilities they have today.
While classical computers are also affected by various sources of errors, these errors can be corrected with a modest amount of extra storage and logic.
Classical computers can receive quantum inputs, measure them, store the measured value classically, process the stored information, and output information.
Do you think, like classical computers, quantum computers will make the shift from just scientific discoveries to the average user in about 30 years?