Examples of using Quantum particles in English and their translations into Hebrew
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Quantum particles, neutrinos, gluons, mesons, quarks.
And it turns out that they behave like quantum particles.
Pushing quantum particles forward can make them go backward.
It's just a matter of time before quantum particles change our lives.
Quantum particles can exist in states where they are in multiple places at once- a phenomenon called superposition.
An event horizon, made up of quantum particles that form a wormhole.
It's nothing big, really. Just a little breakthrough in quantum particles.
It encodes information into quantum particles, it manipulates them and computes by doing that.
There's no such thing.Physics encompasses the entire universe. From quantum particles to supernovas.
BECs form when a gas of quantum particles are so cold or so close together that they can no longer be distinguished.
Is this the observer… andwhich is so intricate to understanding… the wacky, weird world… of quantum particles and how they react?
Their discovery shows that entangled quantum particles can travel into the future without actually being present during the time between now and the future.
But if you look at the details, it's not really gonna help… because whathappens is you have some very small quantum particles, and their behavior is apparently a bit random.
As‘free' quantum particles are an idealized, perhaps unrealistic situation, we have shown that backflow still occurs when external forces are present.
We call it quantum entanglement, and it means that if, for example, two quantum particles, two electrons are on the opposite side of the Universe.
Sounds like sci-fi, but it is possible, because these fluid identities of the quantum particles can get entangled across space and time in such a way that when you change something about one particle, it can impact the other, and that creates a channel for teleportation.
I came across the idea that when one looks at two quantum particles from the same situation that nevertheless behave differently in the future, perhaps nature is trying to tell us there was a difference between them- but that this difference is not in the past, but in the future.
The answer, expressed in terms of quantum particles of light known as photons, is 4 trillion trillion trillion trillion trillion trillion trillion.
Symmetry down to every last quantum particle, with one crucial difference.
When one measures the trajectory of a quantum particle, the particle behaves as a classical particle. .
Guiding wave" proposal, because this wave can influence a quantum particle without becoming.
So when you look at a quantum particle like a ball, you see it has physical shape.
These new findings allow us to find out the optimal configuration of a quantum particle that exhibits the maximal amount of backflow, which is important for future experimental verification.".
We have shown that backflow can always occur,even if a force is acting on the quantum particle while it travels," says Bostelmann.
This may sound trivial, until you realize, once again, that a quantum particle does not have defined properties until it is measured.
But, if instead of a car you had a quantum particle, then, a quantum particle taking one path could interfere with itself taking the other path.
I was thinking of various things, and then an idea occurred to me:what if we use a quantum particle to work on the sets of those numbers to solve this problem?