Examples of using Quantum computers in English and their translations into Vietnamese
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The IBM Qis one of the world's most advanced quantum computers.
That's sort of true, but what makes quantum computers exciting is something spookier: entanglement.
Google has made a new breakthrough in the field of quantum computers.
But the same feature that makes quantum computers powerful makes them fragile.
XVG has actually demonstrated that its transactions are toosecure for even threats such as those posed by the quantum computers.
These can be useful for robust quantum computers and could help to understand superconductivity at high temperatures.
It's worth stressing that AWS is not installing these quantum computers in its own data centers.
What if there are already built quantum computers that are much more capable than Google Sycamore and we are not allowed to know them?
Big companies like IBM, Google, and Intel(and even a few startups)have built quantum computers with multiple qubits.
Quantum computers rely on quantum bits- also known as qubits- that are built out of atomic and subatomic particles.
If they're too close, or too far apart, the'entanglement' between quantum bits-which is what makes quantum computers so special- doesn't occur.
But it's a natural problem for quantum computers, which instead of digital bits representing 1s and 0s use“qubits” that are themselves quantum systems.
Through this partnership, Volkswagen intends to unlock the potential of this technology,and share our learnings to motivate the development of quantum computers and algorithms.”.
Being able to tell your imouto-chan, a first-year highschooler, about quantum computers is an extremely rare event, it normally doesn't happen so soon-s!
Quantum computers are in theory capable of simulating the interactions of molecules at a level of detail far beyond the capabilities of even the largest supercomputers today.
If you do this with topological materials you could impact quantum computers, or if you do it with superconducting materials you can impact superconducting electronics.”.
Quantum computers calculate using qubits, which similarly waver between two states but behave according to the weirder rules of quantum physics.
Encryption methods currently in use are quite strong and secure by today's standards but that won't always be the case,especially if large quantum computers end up being built.
Quantum computers, however, can represent data as 0, 1, or both at the same time, which for complicated mathematical reasons means that they can process a lot more data at once.
Yet regardless of how fuzzy-headed they might make you feel, researchers have endeavoured to create aphysical manifestation of these properties in machines we call quantum computers.
According to the ABI assessment, the attempts to create quantum computers that are stable and have low error rate require heavy investment in infrastructure, software development, and human expertise.
According to researchers, consistently controlling quantum information and rectifying errors as they emerge is a major challengewhen it comes to developing entirely useful quantum computers.
Current quantum computers are extremely error-prone due to the fragility of the working condition, which dissipates in a process called decoherence before most operations can be executed.
It's here, down at the limits of physics, that solid materials give rise to so-called quasiparticles,whose unusual behavior gives them the potential to serve as the key components of quantum computers.
ANSYS solutions help D-Wave optimize today's quantum computers at a faster pace while providing insight that will make it possible to achieve huge leaps in performance in the next generation.
As with the first home computers, it might not be clear that thereare problems that need to be solved with quantum computers but, as people play, I think it's likely they will find that they need more power and more features.
Once the building blocks of quantum computers are all in place, he added,“we can start connecting quantum devices to build the quantum internet, which is the next, exciting step.”.
With all the speedup quantum computers offer in the computing field, one thing gamers might be curious about is whether they can be used to make a sweet gaming rig which can run games at blazing high framerates.
While the range of quantum computers' potential applications is vast, the one most relevant in the context of blockchain technology and cryptography more generally is the capacity to run specific algorithms much faster than any existing supercomputer.
The driving idea behind quantum computing research is that quantum computers will be able to perform some computational tasks exponentially faster than classical computers can, potentially opening up the door to major strides in technological advancement.