Examples of using Electron can in English and their translations into Vietnamese
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Colloquial
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Ecclesiastic
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Computer
An electron can be bound to the nucleus of an atom by the attractive Coulomb force.
For large n, the energy increases so much that the electron can easily escape from the atom.
Transporting an electron can be up to 10 times more expensive than transporting a molecule.”.
For high, the level of energy becomes so high that the electron can easily escape from the atom.
An electron can gain or lose energy by jumping from one discrete orbital to another.
One consequence is that the values obtained by this method for the mass andcharge of the electron can be any finite number.
The speed of an electron can approach, but never reach, the speed of light in a vacuum, c.
It is a matter of personalbelief whether such a calculation concerning the past history of the electron can be ascribed any physical reality or not.
(3) An electron can move from one energy level to another by quantum or photon jumps only.
If, on the other hand, a silicon atom is replaced by an atom of column III(boron for example),an electron is missing to make all the bonds, and an electron can fill this gap.
Technically, an electron can be found anywhere within the atom, but spends most of its time in the region described by an orbital.
However, in a phenomenon called electron fractionalization,in certain materials an electron can be broken down into smaller"charge pulses," each of which carries a fraction of the electron's charge.
The electron can change its state to a higher energy level by absorbing a photon with sufficient energy to boost it into the new quantum state.
LTPS also has higher electron mobility, which, as the name suggests,is an indication of how quickly/easily an electron can move through the transistor, with up to 100 times greater mobility than a-Si.
At any given moment, an electron can be found at any distance from the nucleus and in any direction according to the Heisenberg Uncertainty Principle.
With the energy from the photon, the electron can escape its usual position in the semiconductor atom to become part of the current in an electrical circuit.
Associated with the fact that the electron can be polarized is another small necessary detail, which is connected with the fact that an electron is a fermion and obeys Fermi-Dirac statistics.
As with all particles, electrons can act as waves.
Electrons could drift freely inside the atom.
The Hamiltonian for helium with two electrons can be written as a sum of the Hamiltonians for each electron: .
Electrons can transfer between different orbitals by the emission or absorption of photons with an energy that matches the difference in potential.
That is the simplest way in which two electrons can interact electromagnetically, but we must consider all possible histories.
Carbon has af 4, since 4 electrons can be accepted to fill the 2p orbital.
The electrons can then be detected in the form of an electrical current.
From there the electrons can be captured in the form of an electric current(electricity).
In the late 1940s,theorists showed that a quantum field theory of photons and electrons could successfully explain electromagnetic interactions at high energy.
They showed that,depending on how the spins are aligned between each of the CrI3 sheets, the electrons can either flow unimpeded between the two graphene sheets or were largely blocked from flowing.
And the reason why that's happening is that, right now, in 2007-- the technology that we are using--a transistor is big enough that several electrons can flow through the channel simultaneously, side by side.