Physics:Quantum atoms/angular momentum: Difference between revisions

From HandWiki Stage
Jump to navigation Jump to search
imported>WikiHarold
Created page with "{{Short description|Quantized angular momentum in atomic systems}} ← Back to Matter by scale '''Angular momentum''' in an atom is a quantized physical quantity associated with the motion and intrinsic properties of an electron. It plays a central role in determining the structure of orbitals and the behavior of electrons in..."
 
imported>WikiHarold
Created page with "{{Short description|Quantized angular momentum in atomic systems}} ← Back to Matter by scale '''Angular momentum''' in an atom is a quantized physical quantity associated with the motion and intrinsic properties of an electron. It plays a central role in determining the structure of orbitals and the behavior of electrons in..."
 
(No difference)

Latest revision as of 18:15, 27 April 2026


← Back to Matter by scale

Angular momentum in an atom is a quantized physical quantity associated with the motion and intrinsic properties of an electron. It plays a central role in determining the structure of orbitals and the behavior of electrons in atoms.

File:Angular momentum quantum.png

Quantization of angular momentum in atomic orbitals.

Description

In quantum mechanics, angular momentum is described by quantum numbers and is restricted to discrete values. It arises in two forms:

  • orbital angular momentum, associated with the electron’s motion in an orbital
  • intrinsic angular momentum, known as spin

These quantities determine the allowed energy states and spatial distributions of electrons.

Properties

  • quantized values
  • determines orbital shapes
  • linked to energy levels and spectra

See also

Table of contents (185 articles)

Index

Full contents

9. Quantum optics and experiments (5) ↑ Back to index
14. Plasma and fusion physics (8) ↑ Back to index
Conceptual illustration of plasma physics in a fusion context, showing magnetically confined ionized gas in a tokamak and the collective behavior governed by electromagnetic fields and transport processes.
Conceptual illustration of plasma physics in a fusion context, showing magnetically confined ionized gas in a tokamak and the collective behavior governed by electromagnetic fields and transport processes.

References


Author: Harold Foppele