Examples of using Qubit in English and their translations into Hebrew
{-}
-
Colloquial
-
Ecclesiastic
-
Computer
-
Programming
Technion 's Qubit Group.
Million qubit miles of digi-synaptic resonance.
The aligned carbon-14 allows hyper-dense qubit storage.
You can think of a qubit as an imaginary sphere.
So, it's been predicted that by having just a 30 qubit computer.
Every time we add a qubit, we double the computational power.
The states of each electrical circuit translate to the state of the qubit.
So with just one qubit I'm in two possible states at the same time.
That is, each ion is in a superposition of the two possible qubit states.
It's basically why you need the qubit, because it only has two ideas.
Each qubit added to the quantum computing system increases its power exponentially.
These particles have quantum states, which correspond to the state of the qubit.
At this point, the NV qubit could, together with other qubits, be enlisted to perform a computation.
Whereas a classical bit can be in two states-at either of the two poles of the sphere- a qubit can be any point on the sphere.
But in a quantum computer, each qubit affects the other qubits around it to work together to come up with a solution.
Lately the excitement of this possibility has involved hundreds of physicists who have been meeting every three months orso under the banner of a project dubbed“It from Qubit”.
Microsoft is trying to make a new kind of“topological qubit” that in theory should be more reliable than other designs.
The qubit(quantum bit) can represent a one, a zero or any quantum superposition of these two states, so it can encode more information than a classical bit.
A quantum computer uses something called a qubit, which can switch between zero, one, and what's called a superposition.
In quantum mechanics, the Bloch sphere is a geometrical representation of the pure statespace of a two-level quantum mechanical system(qubit), named after the physicist Felix Bloch.
If one part of the qubit decoheres, the information it contained is not lost, making the overall system far more stable.
A bit can only switch between these two poles, but when a qubit is in its superposition, it can be at any point on the sphere.
In addition to its possible use as a module of a quantum computer, the new processor might be used as a miniature simulator for interactions in any quantum system that employs two energy levels,such as the two-level ion qubit systems that represent energy levels as 0s and 1s.
But even though we can't observe the qubit in its superposition, we can manipulate it to perform particular operations while in this state.
This is the first time anyone hasdemonstrated a programmable quantum processor for more than one qubit," says NIST postdoctoral researcher David Hanneke, first author of the paper.
The company's answer: a type of qubit that effectively fragments electrons, so that the same piece of information is held in multiple places at the same time.
It can thus represent a quantum bit, or“qubit,” which differs from an ordinary computer bit in its ability to take on not just the values 1 or 0, but both at the same time.
It is not clear yet which of the rival qubit technologies will prove most effective as manufacturers try to scale up today's rudimentary systems into full-fledged general purpose computers, says Mayberry.
NIST scientists can manipulate the states of each beryllium qubit, including placing the ions in a"superposition" of both 1 and 0 values at the same time, a significant potential advantage of information processing in the quantum world.