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First of all, why would rocks move in different directions? Even though rocks could move in different directions, it is not possible for them to move on their own. Rocks have to have force applied to them in order to move.
yes they can move through inanimate objects.
in pure germanium there are effectively noconduction band electrons or holes, so they don't move at all.
Electrons
The term conductor is generally applied to a substance or material that has a lot of free electrons in it. The name conductor is applied because the free electrons are already there. A material does not have free electrons because it is a conductor, but is a conductor because it has a lot of free electrons. That said, let's look at what's going on. These free electrons have energies that permit them to "wander" through the conductor; they're not "locked into" the structure of the material. And when a voltage (potential difference) is applied, current flows through the conductor because the free electrons are moving. They're made to move by the applied voltage. If we take the case of a wire in a circuit, the wire is a conductor. This wire, say a copper one, has many free electrons in it, and when we apply a voltage, electrons move. The voltage forces electrons into one end of the wire, and the free electrons "shift over" and electrons emerge from the other end of the wire. This movement of free electrons in response to an applied voltage through an conductor is the essence of current flow in that conductor.
First of all, why would rocks move in different directions? Even though rocks could move in different directions, it is not possible for them to move on their own. Rocks have to have force applied to them in order to move.
electromotive force...
yes they can move through inanimate objects.
in pure germanium there are effectively noconduction band electrons or holes, so they don't move at all.
Electrons
When external source such as a battery is connected electrons get specific directions to move and condition starts
The term conductor is generally applied to a substance or material that has a lot of free electrons in it. The name conductor is applied because the free electrons are already there. A material does not have free electrons because it is a conductor, but is a conductor because it has a lot of free electrons. That said, let's look at what's going on. These free electrons have energies that permit them to "wander" through the conductor; they're not "locked into" the structure of the material. And when a voltage (potential difference) is applied, current flows through the conductor because the free electrons are moving. They're made to move by the applied voltage. If we take the case of a wire in a circuit, the wire is a conductor. This wire, say a copper one, has many free electrons in it, and when we apply a voltage, electrons move. The voltage forces electrons into one end of the wire, and the free electrons "shift over" and electrons emerge from the other end of the wire. This movement of free electrons in response to an applied voltage through an conductor is the essence of current flow in that conductor.
Electrons move essentially the way any other form of matter moves; when force is applied to them, they move in accordance with Newton's formula, force equals mass times acceleration. There are also quantum mechanical effects, because electrons are so small. Electrons are described as having probable locations rather than definite locations. But they still move the way matter moves.
It causes them to move. The greater the voltage applied, the greater the current generated (for the same resistive load), and so the more electrons move.
Not simultaneously. Though it can alternate. If you mean in one circuit there can be alternative directions in which the current can move. Electrical currents go from the negative to the positive since electron (electricity is a lot of electrons) is negative so is directed to the positive.
No, only the outer electrons of the metal atoms.
There are two types of electricity; dynamic and static electricity. The main difference between these two types is that in static electricity, the electrons do not move but in dynamic electricity, the electrons move either in changing directions or in one direction.