Examples of using Classical computers in English and their translations into Indonesian
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Colloquial
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Ecclesiastic
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Computer
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Ecclesiastic
In classical computers, the unit of data is called a”bit” and may have a value of either 0 or 1.
What is a quantum computer and how does it differ from classical computers?
In classical computers, the unit of information is called a"bit" and can have a value of either 1 or 0.
Quantum supremacy is theability of quantum computers to solve problems that classical computers practically cannot.
Classical computers depend on the final level of principles, as explained by Boolean Algebra.
Quantum computers, which are based on different mathematics than classical computers, do not promise P solutions to every NP problem.
Classical computers have approached their limits, and quantum computers promise a new level of computational capacity.
In connection with quantum theory, quantum computers can alsoprocess all types of information that are processed by classical computers.
While classical computers are based on bits with a value of either 1 or 0, the qubits in a quantum computer can exist in multiple states at the same time.
Due to the way in which the tiniest of particles behave, operations can be done much more quickly anduse less energy than classical computers.
While many people assume that quantum computers will replace classical computers, in reality, both technologies will work together to solve these problems.
Enter the qubit- a chunky piece of electronics that uses the probabilities of anunmeasured bit of matter to perform calculations classical computers can't hope to match.
But more fundamentally,because quantum computers will never reign'supreme' over classical computers, but will rather work in concert with them, since each have their unique strengths.
Chinese scientists have built world's first quantum computing machine that goes beyondthe early classical- or conventional- computers, paving the way to the ultimate realization of quantum computing beating classical computers.
Besides that, one of the comparisons of classical computers and quantum computers, is that quantum computers have one unique characteristic, namely quantum superposition to carry out computing that cannot be done by classical computers.
Fortunately, nature offers up many such complex situations,in which the variables are so numerous and interdependent that classical computers can't hold all the values and perform the operations.
They note,“quantum computers will deliver solutions to important problems where patterns cannot be seen because the data doesn't exist and the possibilities that you need to explore to get to the answer aretoo enormous to ever be processed by classical computers.”.
The impressive achievements in the field have in recent years transformed an academicpursuit into an imminent commercial reality where classical computers will be outperformed on selected but extremely relevant tasks.
In classical computers, each bit can exist in one of two states-- zero or one, off or on, true or false-- but qubits can exist in a third state that is a superposition of both zero and one, raising exponentially the number of possible states a quantum system can explore.
Large-scale quantum computers would theoretically be able to solvecertain problems much more quickly than any classical computers that use even the best currently known algorithms, like integer factorization using Shor's algorithm or the simulation of quantum many-body systems.
IBM is developing their own line of quantum computers(SN: 11/10/17), and researchers there prefer to talk about“quantum advantage,” which they define as“the point at which quantum applications deliver a significant,practical benefit beyond what classical computers alone are capable.”.
This is an awesome number- 2^500 is infinitely more atoms than there are in the knownuniverse(this is true parallel processing- classical computers today, even so called parallel processors, still only truly do one thing at a time: there are just two or more of them doing it).
Quantum computers are not‘supreme' against classical computers because of a laboratory experiment designed to essentially(and almost certainly exclusively) implement one very specific quantum sampling procedure with no practical applications,” IBM's director of research Dario Gil wrote in a statement sent to Science News.
Large-scale quantum computers would theoretically be able to solvecertain problems much more quickly than any classical computers that use even the best currently known algorithms, like integer factorization using Shor's algorithm(which is a quantum algorithm) and the simulation of quantum many-body systems.
This is due to the fact that the memory in a classical computer must obey the laws of physics and can only have a state of either 0 or 1(off or on).
A reduction, which can be done on a classical computer, of the factoring problem to the problem of order-finding.
Given unlimited resources, a classical computer can simulate an arbitrary quantum algorithm so quantum computation does not violate the Church- Turing thesis.
A reduction, which can be done on a classical computer, of the factoring problem to the problem of order-finding.