Below you will find example sentences with "quantum computers". The examples show how this phrase is used in natural context and which words often surround it.
Quantum Computers in a sentence
Corpus data
- Displayed example sentences: 20
- Discovered as a combination around: computers
- Corpus frequency in the collocation scan: 15
- Phrase length: 2 words
- Average sentence length: 22.4 words
Sentence profile
- Phrase position: 6 start, 8 middle, 6 end
- Sentence types: 20 statements, 0 questions, 0 exclamations
Corpus analysis
- The phrase "quantum computers" has 2 words and usually appears in the middle in these examples. The average sentence has 22.4 words and is mostly made up of statements.
- Around this phrase, patterns and context words such as and zeroes quantum computers work with, bqp on quantum computers is the, classical, qubits and encryption stand out.
- In the phrase index, this combination connects with quantum mechanics, quantum computing, quantum computer, personal computers and mac computers, linking the page to nearby combinations.
Example types with quantum computers
This selection groups the examples by length and sentence type, making usage of the full phrase easier to scan:
Herein lies the promise of quantum computers. (7 words)
Quantum computers work by harnessing the properties of quantum mechanics. (10 words)
This is not that quantum computers have now superseded classical computers. (11 words)
Rather than storing information in binary 0s or 1s like classical computers, quantum computers rely on “qubits”, which can be both 0 and 1 simultaneously, dramatically increasing the amount of information that can be encoded. (35 words)
Instead of processing bits of data as a succession of ones and zeroes, quantum computers work with quantum bits — or qubits — that can represent multiple values until the computation’s results are read out. (34 words)
In this way, the increase in measurement capacities at the institute contributes to the development of reliable production of high-quality qubits that can be used in quantum computers and quantum sensors. (32 words)
Example sentences (20)
Quantum computers only run probabilistic algorithms, so BQP on quantum computers is the counterpart of BPP ("bounded error, probabilistic, polynomial time") on classical computers.
As we continue to delegate more infrastructure operations to artificial intelligence (AI), quantum computers are advancing towards Q-day (i.e., the day when quantum computers can break current encryption methods).
Intelligence agencies such as the NSA are keenly aware of the risks that quantum computers have to these security standards, and have since moved to quantum-resistant alternatives.
In this way, the increase in measurement capacities at the institute contributes to the development of reliable production of high-quality qubits that can be used in quantum computers and quantum sensors.
To function, quantum computers use subatomic particles, such as electrons or photons, to represent and manipulate information in quantum bits (qubits).
Post-quantum cryptography is a cutting-edge cybersecurity advancement that provides better protection against threats from quantum computers, which boast massive decryption capabilities.
Quantum computers could, theoretically, crack encryption systems that currently protect our most sensitive data, prompting a need for quantum-resistant cryptographic methods.
The two qubits are then no longer independent of one another but rather share a new —which is vital for the development of quantum communication and quantum computers.
Instead of processing bits of data as a succession of ones and zeroes, quantum computers work with quantum bits — or qubits — that can represent multiple values until the computation’s results are read out.
Managing quantum data and correcting errors are the biggest challenges that scientists face in the development of fully practical quantum computers.
Quantum computers work by harnessing the properties of quantum mechanics.
Scientists are excited about the possibility of achieving quantum supremacy because of what it means about the process of creating really useful quantum computers, not necessarily as an end in itself.
Quantum computers could solve these problems more efficiently than classical computers, benefiting fields ranging from logistics to machine learning.
And that’s a problem, as quantum computers may be able to techniques such as RSA encryption much faster than traditional computers can.
Quantum computers can in principle execute calculations that today are practically impossible for classical computers.
Rather than storing information in binary 0s or 1s like classical computers, quantum computers rely on “qubits”, which can be both 0 and 1 simultaneously, dramatically increasing the amount of information that can be encoded.
This is not that quantum computers have now superseded classical computers.
A better understanding of entanglement could lead to more stable quantum computers.
Herein lies the promise of quantum computers.
Nvidia is a trendsetter in cutting-edge circuitry design, and is at the forefront of developing quantum computers with GPUs.