# Is the Schrodinger equation Galilean invariant?

## Is the Schrodinger equation Galilean invariant?

FWIW: The Schrödinger equation is not only invariant under Galilean transformations. It is invariant under a larger group: the so-called Schrödinger Group.

## What does Schrodinger’s equation tell us?

Essentially a wave equation, the Schrödinger equation describes the form of the probability waves (or wave functions [see de Broglie wave]) that govern the motion of small particles, and it specifies how these waves are altered by external influences.

**How is Schrodinger’s equation derived?**

The Schrodinger equation is derived to be the condition the particle eigenfunction must satisfy, at each space-time point, in order to fulfill the averaged energy relation. The same approach is applied to derive the Dirac equation involving electromagnetic potentials.

### Why is Schrodinger’s equation not relativistic?

Why is the Schrodinger wave equation not for relativistic particles? Because it is based on Newtonian physics rather than relativistic. It’s just classic kinetic energy + potential. There is no mass energy, no relativistic corrections etc.

### What is Schrödinger’s cat in layman’s terms?

In simple terms, Schrödinger stated that if you place a cat and something that could kill the cat (a radioactive atom) in a box and sealed it, you would not know if the cat was dead or alive until you opened the box, so that until the box was opened, the cat was (in a sense) both “dead and alive”.

**How many types of Schrödinger wave equations are there?**

two forms

The Schrödinger Equation has two forms the time-dependent Schrödinger Equation and the time-independent Schrödinger Equation.

#### Is the Schrödinger equation Lorentz invariant?

The Schrodinger equation is not Lorentz Invariant, so it cannot be applied to the wave functions of moving particles. However, the Classical Wave Equation is Lorentz Invariant and is also satisfied by particle wave functions.

#### Is Schrödinger equation relativistic?

The Schrödinger equation is a non-relativistic approximation to the Klein-Gordon equation. The properties (momentum, energy.) described by solutions of Schrödinger equation should depend in the proper way of the Galilei reference frame.

**Can someone explain Schrödinger’s cat?**

“Schrodinger’s Cat” was not a real experiment and therefore did not scientifically prove anything. Schrodinger’s Cat is not even part of any scientific theory. Schrodinger’s Cat was simply a teaching tool that Schrodinger used to illustrate how some people were misinterpreting quantum theory.

## Can you explain Schrödinger’s cat?

## Is the Schrödinger equation invariant under Galilean transformations?

$\\begingroup$FWIW: The Schrödinger equation is not only invariant under Galilean transformations. It is invariant under a larger group: the so-called Schrödinger Group. At some point you may want to add this into your answer, for completeness.$\\endgroup$ – AccidentalFourierTransform Jan 27 ’18 at 17:04 Add a comment | 1 $\\begingroup$

**What is Galileo’s theory of invariance?**

Galilean invariance. Galilean invariance or Galilean relativity states that the laws of motion are the same in all inertial frames. Galileo Galilei first described this principle in 1632 in his Dialogue Concerning the Two Chief World Systems using the example of a ship travelling at constant velocity, without rocking,…

### What is Galilean invariance in mechanics?

Formulation. Specifically, the term Galilean invariance today usually refers to this principle as applied to Newtonian mechanics, that is, Newton’s laws hold in all frames related to one another by a Galilean transformation. In other words, all frames related to one another by such a transformation are inertial (meaning,…

### What is the Schrödinger equation?

The Schrödinger equation is a linear partial differential equation that governs the wave function of a quantum-mechanical system. : 1–2 It is a key result in quantum mechanics, and its discovery was a significant landmark in the development of the subject.