In some ways this is an especially strong example of a permanent dipole, as above.

The direction and intensity of the dipole change over time.

There are two competing models for the nature of these dipoles.

Any scalar or other field may have a dipole moment.

There was an ordinary dipole switch outside, just beyond the door.

As a result, the moving particle creates a dipole moment.

Researchers from Germany have now made a small dipole trap.

The image of an electric point dipole is a bit more complicated.

The radiation efficiency is also high and similar to that of a dipole.

In this case a substantial internal magnetic dipole moment is expected.

Each element, or station, was itself a 25-element array of dipoles.

Which matches the expression of the force between two magnetic dipoles.

Here is the z component of the permanent dipole moment.

This results in the formation of a permanent electric dipole.

The more precise question is, "Does the molecule have a dipole moment?"

So the result in the section "dipole scattering" was not exactly correct.

A half wave dipole for 80 Hz would be 1162 miles long.

Both sites used long power lines, so-called ground dipoles, as leads.

The two conducting wires are fed at the center of the dipole.

If the dipole is not driven at the center then the feed point resistance will be higher.

The points acquire dipole moments in response to the local electric field.

A common example is the case of carbon monoxide, which has a very small dipole moment.

The main tracking system is placed before and after the dipole magnet.

So you need to have a general idea of bond dipole polarities.

This is usually the situations with the atomic electric dipole as well.