The most important gate is probably the CNOT gate, because combined with qubit superpositions and measurements, it forms the basis of a universal quantum computer. A quantum computer uses CNOT gates instead of conventional logic gates (such as NAND) because quantum mechanics requires that quantum computations be reversible.
HECK NO! An optics computer is a computer running on light, but a quantum computer is a computer where most components are at a quantum-Hall state of matter (hey did you know that there are more than 15 states of matter). In other words, optic computer=light, quantum computer=weird.
can u tell some recent topics in giving the prfesentation in the college related to computer techniques that is recently work..so that i wl get gud response by college and will help in my placment..
The Gate of Ishtar is the most impressive gate in Babylon- The answer is Ishtar. It was one of the 8 gates into Babylon and the most impressive.
Quantum applied science is a young discipline of physics and technology, which transitions, some of the stranger characteristics of quantum mechanics, especially quantum entanglement and most recently quantum tunneling, into virtual applications such as quantum computing, quantum coding, quantum simulation, quantum metrology, quantum sensing, and quantum imaging.
that was the Ishtar gate.
The advantages of Quantum ComputingIt has been shown in theory that a quantum computer will be able to perform any task that a classical computer can. However, this does not necessarily mean that a quantum computer will outperform a classical computer for all types of task. If we use our classical algorithms on a quantum computer, it will simply perform the calculation in a similar manner to a classical computer. In order for a quantum computer to show its superiority it needs to use new algorithms which can exploit the phenomenon of quantum parallelism.Such algorithms are not easy to formulate, but once discovered they yield spectacular results. An example of one such algorithm is the quantum factorization algorithm created by Peter Shor of AT&T Bell laboratories. The algorithm tackles the problem of factorizing large numbers into its prime factors. This task is classically very difficult to solve; in fact it is so difficult that it forms the basis of RSA encryption, probably the most popular method of encryption used today. Shor's algorithm cleverly uses the effects of quantum parallelism to give the results of the prime factorization problem in a matter of seconds whereas a classical computer would take, in some cases, more than the age of the universe to produce a result!The disadvantages of Quantum ComputingThe technology needed to build a quantum computer is currently beyond our reach. This is due to the fact that the coherent state, fundamental to a quantum computers operation, is destroyed as soon as it is measurably affected by its environment. Attempts at combating this problem have had little success, but the hunt for a practical solution continues and some encryption Problem as well because mostly all the encryption-decryption Algorithms are based on Prime Factors and using Quantum Computer we can easily calculate the Prime factors of any number.
magnetic quantum number
Quantum computing utilizes nuclear spins to store and process information whereas classical computers operate using solid state electronics, notably the transistor. Quantum computing is not inherently any faster than classical computing. The difference is that quantum computing allows for parallel processing. To explain, if you asked a classical computer to perform two calculations, it would do them in sequence, returning one answer after the other. A quantum computer, when asked to do the same thing, would return both answers at once. While it performed the actual computation faster, it takes an equal amount of time in the end, because you have to figure out which answer goes to which question with the quantum computer. Certain algorithms have been developed for quantum computers (which can capitalize on purely quantum mechanical behavior such as convolution) which allow for specialized functions to be sped up. The two most common examples are directory lookups and number factoring. Because of the latter, quantum computers hold importance in the field of cryptography. Recently IBM created a quantum computer which factored 15 into 5 and 3. The technology is still in its infancy, but it is steadily moving forward.
It most certainly is! It has to do with things that are very small. Atomic [or Nuclear] Physics is essentially the study of the quantum world.
The most known theory in quantum mechanics would be the Broglie-Bohm theory. Other popular theories are the string theory, quantum entanglement, and SchrÌ_dinger's cat.
AnswerQuantum computing utilizes nuclear spins to store and process information whereas classical computers operate using solid state electronics, notably the transistor. Quantum computing is not inherently any faster than classical computing. The difference is that quantum computing allows for parallel processing. To explain, if you asked a classical computer to perform two calculations, it would do them in sequence, returning one answer after the other. A quantum computer, when asked to do the same thing, would return both answers at once. While it performed the actual computation faster, it takes an equal amount of time in the end, because you have to figure out which answer goes to which question with the quantum computer.Certain algorithms have been developed for quantum computers (which can capitalize on purely quantum mechanical behavior such as convolution) which allow for specialized functions to be sped up. The two most common examples are directory lookups and number factoring. Because of the latter, quantum computers hold importance in the field of cryptography.Recently IBM created a quantum computer which factored 15 into 5 and 3. The technology is still in its infancy, but it is steadily moving forward.
It is a gait, not a gate. The answer is most likely "3-beat".