These are all the quantum numbers that the system can have.

The states are labeled by a set of quantum numbers.

No two electrons can have the same set of quantum numbers.

The former quantum numbers can be related to the latter.

Therefore, such flavour quantum numbers are not of great use.

A number of modes are shown below together with their quantum numbers.

Every atomic species has associated with it a set of quantum numbers.

These are allowed to be indistinguishable, and they can all have the same quantum numbers including position.

Thus another set of quantum numbers should be used.

Colour quantum numbers have been used from the beginning.

See for a group theoretical interpretation of these quantum numbers this article.

The quantum numbers came first then from people looking at how light is absorbed by gases.

They are the electrons with the largest principle quantum number.

Thus, all of its flavour quantum numbers and charges are zero.

The quantum number represented the sense (positive or negative) of spin.

This is the only quantum number introduced by the Bohr model.

He described this as occurring "when the quantum numbers describing the system are large."

The solutions required each possible state of the electron to be described by three "quantum numbers".

One important result in this field is that a relationship between the quantum numbers for :

The last two rows are degenerate because they have the same good quantum numbers.

The principal quantum number can only have positive integer values.

"We think the field around the alien must be several quantum numbers higher than ours.

Therefore, the equations for the first three quantum numbers are all interrelated.

The projection quantum number takes on all the values .

For example, consider the following eight states, defined by their quantum numbers: