atomic orbital

Once again the nature of the atomic orbitals is crucial.

The overlap is important if the atomic orbitals are close in energy.

Atomic orbitals also explain the patterns in the periodic table.

When applied to atomic orbitals, this means that the energy differences between states are also discrete.

The rings may also be associated with atomic orbitals.

A second condition for overlapping atomic orbitals is that they have the same symmetry.

In figure 1 the two atomic orbitals are depicted on the left and on the right.

Atomic orbitals predict the position of an electron in an atom.

These atomic orbitals have different sizes, shapes, and spatial orientations.

In addition, the cover art on three of their albums features stylised atomic orbitals.

Atomic orbitals may be defined more precisely in formal quantum mechanical language.

For the energy is and the state consists of a sum of all atomic orbitals.

However, the atomic orbitals for bonding may be hybrids.

The electrons of a single, isolated atom occupy atomic orbitals.

Instead the outer energy levels (atomic orbitals) of the metal atoms overlap.

Two atomic orbitals can overlap in two ways depending on their phase relationship.

Instead of classical orbits, electrons are said to inhabit atomic orbitals.

The spatial components of these one-electron functions are called atomic orbitals.

The electrons in their atomic orbitals determine the atom's various chemical properties.

In a sigma bond, the atomic orbitals from two atoms which are nearby go one on top of each other.

They appear, for example, in the form of spherical atomic orbitals and real multipole moments.

This relationship means that certain key features can be observed in both drum membrane modes and atomic orbitals.

Nevertheless, auxiliary basis sets (plane waves, atomic orbitals) are used when necessary.

The electrons are donated into empty atomic orbitals on the uranium atom.

They are formed by head-on overlapping between atomic orbitals.