This is a very good question, that is not easy to answer. That is because a "hole" is a imaginary particle, a concept, with some special characteristics. Here you'll find the detailed answer:
http:en.wikipedia.org
In short you could say that the movement of a hole is the combined movement of lots of electrons, but that is meaningless if you don't understand the concept.
It's like a hole in the road. If you dig a hole next to it, using the rubble to fill it up, has your hole moved? Where it was, there is now no hole. But there is a hole nearby. Electrons in a semiconductor valence band behave like this. You can't get a current because the electrons are all packed neatly with nowhere to move. But if one is missing, there is a hole, and the electron next door can jump into it leaving a hole behind, so it looks like the hole moved.
Yes. Stationary electric (electrostatic) fields will act on each other and a force will be developed. If you had a standing electric field and could "beam in" an electron (a la Star Trek), the electron would react at once and move either toward a positive field source or away from a negative field source. The electron would know the field was there the instant it appeared.
The electron, as modeled by Alexander Burinskii, is gravitationally confined however its ring singularity is described as "naked". The electron angular momentum is too great to allow complete gravitational collapse to its Schwarzschild radius. This means that its ring singularity is not hidden behind an event horizon and so is naked. It does not collapse to undefined or infinite density. It has some, but not all of the properties that a black hole is expected to have. Further evaluation indicates electron gravitational collapse is halted at its gravitational photon orbit radius. This radius has a non-zero size so the undefined or infinite density problem is avoided.
SpongeBob has 29 holes with his pants on, 40 holes with his pants off.
because madam zeroni told him to go their and their is his future
The electric field is stronger near the electron and becomes weaker as the distance from the electron increases.
Electron: It is a negative charged elementary particle. Hole: The vacant seat of electron is called hole. It can attract an electron jumping to holes. Therefore, location of holes keep changing. it is not an ion because it is created without the removal of electron.
first, the electron holes are filled with electron guillotine called flumenya, then the air absorbs the flumenya creating a hard substance called tiddita
yes. some black holes are predicted to be the size of an electron.
Doping with Group III elements, which are missing the fourth valence electron, creates "broken bonds" (holes) in the silicon lattice that are free to move. The result is an electrically conductive p-type semiconductor.
Picture a little line of chairs with people sitting in them except the first chair. Now the person in the second chair moves to the first chair. The second chair is empty. Visualize each person in turn moving to the empty chair. The empty chair is now at the other end of the line. This is similar to the way electrons and holes appear in semiconductors. The electrons move and create holes. The holes only appear to move, but the effect is the same. Do the holes move? Effectively, yes, but only by virtue of electron movement.
The excited electron move up.
how electron move in vacuum and not move in air
The electron has the speed of light.
an electron
Electron Carriers.
The region of an atom in which the electrons move is called the electron shell, or electron cloud.
hoes are vacancies left by the electron in the valence band. hence there cannot be holes in the conduction band