User Tools

Site Tools


equations:pauli_equation

Differences

This shows you the differences between two versions of the page.

Link to this comparison view

Both sides previous revision Previous revision
Next revision
Previous revision
Next revision Both sides next revision
equations:pauli_equation [2018/03/13 11:14]
jakobadmin
equations:pauli_equation [2018/03/26 16:38]
jakobadmin
Line 1: Line 1:
-====== Pauli Equation ​====== +====== Pauli Equation\quad \left( \frac{1}{2m}(\vec \sigma ( \vec p - q\vec A))^2 + q\phi \right) \Psi = i \hbar \partial_t \Psi $ ======
- +
-<note tip>$$ \left( \frac{1}{2m}(\vec \sigma ( \vec p - q\vec A))^2 + q\phi \right) \Psi = i \hbar \partial_t \Psi $+
--->​Definitions # +
- +
-  * $\Psi$ is the wave function, +
-  * $m$ the mass of the particle, +
-  * $q$ the charge of the particle, +
-  * $\vec{\sigma}$ the Pauli matrices, +
-  * $\vec{p}$ the momentum, +
-  * $\vec A$ the vector potential,​ +
-  * $\phi$ the electric scalar potential and +
-  * $\hbar$ the reduced Planck constant. +
- +
-Take note that $\vec \sigma$, a "​vector of matrices"​ is only used as a convenient short-hand notation for the sums that appear in the equation. For example, $\vec \sigma \vec p \sigma_1 p_1 + \sigma_2 p_2 + \sigma_3 p_3.    $ +
-<-- +
-</​note>​+
  
  
 <tabbox Why is it interesting?> ​ <tabbox Why is it interesting?> ​
  
-The Pauli equation is the correct ​non-relativistic ​equation to describe spin $1/2$ particles. ​+The Pauli equation is the correct ​__non-relativistic__ ​equation to describe spin $1/2$ particles. ​
  
 <tabbox Layman> ​ <tabbox Layman> ​
Line 36: Line 20:
   * Nonrelativistic particles and wave equations by Jean-Marc Lévy-Leblond   * Nonrelativistic particles and wave equations by Jean-Marc Lévy-Leblond
  
---> Common Question 1# 
  
-  +<tabbox Definitions> ​
-<--+
  
---> Common Question 2# +  * $\Psi$ is the wave function, 
- +  * $m$ the mass of the particle, 
-  +  * $q$ the charge of the particle, 
-<-- +  * $\vec{\sigma}$ the Pauli matrices, 
-   +  ​* $\vec{p}$ the momentum, 
-<tabbox Examples> ​ +  * $\vec A$ the vector potential, 
- +  * $\phi$ the electric scalar potential and 
---> Example1# +  ​* $\hbar$ the reduced Planck constant.
- +
-  +
-<-- +
- +
---> Example2:#​ +
- +
-  +
-<-- +
-  ​ +
-<tabbox History> ​+
  
 +Take note that $\vec \sigma$, a "​vector of matrices"​ is only used as a convenient short-hand notation for the sums that appear in the equation. For example, $\vec \sigma \vec p = \sigma_1 p_1 + \sigma_2 p_2 + \sigma_3 p_3.    $
 </​tabbox>​ </​tabbox>​
  
  
equations/pauli_equation.txt · Last modified: 2018/04/16 09:09 by jakobadmin