Voigt wave equation - ορισμός. Τι είναι το Voigt wave equation
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Τι (ποιος) είναι Voigt wave equation - ορισμός

SECOND-ORDER LINEAR DIFFERENTIAL EQUATION IMPORTANT IN PHYSICS
The wave equation; Solving the wave equation; Wave Equation; Inhomogenous wave equation; Spherical wave; Spherical Wave; Linear wave equation
  • 1-d standing wave as a superposition of two waves traveling in opposite directions
  • 50px
  • Swiss mathematician and physicist [[Leonhard Euler]] (b. 1707) discovered the wave equation in three space dimensions.<ref name=Speiser />
  • Cut-away of spherical wavefronts, with a wavelength of 10 units, propagating from a point source
  • Three consecutive mass points of the discrete model for a string
  • The string at 6 consecutive epochs, the first (red) corresponding to the initial time with the string in rest
  • The shape of the string at the times <math>\tfrac{L}{c} k \cdot 0.05,\ k = 6, \dots, 11</math>
  • The shape of the string at the times <math>\tfrac{L}{c} k \cdot 0.05,\ k = 12, \dots, 17</math>
  • The shape of the string at the times <math>\tfrac{L}{c} k \cdot 0.05,\ k = 18, \dots, 23</math>
  • The shape of the string at the times <math>\tfrac{L}{c} k \cdot 0.05,\ k = 24, \dots, 29</math>
  • The shape of the string at the times <math>\tfrac{L}{c} k \cdot 0.05,\ k = 30, \dots, 35</math>

Benjamin–Bona–Mahony equation         
  • 1980}}</ref> Thus, the solitary wave solutions of the BBM equation are not [[soliton]]s.
Benjamin-Bona-Mahony Equation; BBM equation; Benjamin-Bona-Mahony equation; Regularized long-wave equation; Regularised long-wave equation; Regularised long wave equation; Regularized long wave equation
The Benjamin–Bona–Mahony equation (BBM equation, also regularized long-wave equation; RLWE) is the partial differential equation
Relativistic wave equations         
WAVE EQUATIONS RESPECTING SPECIAL AND GENERAL RELATIVITY
Relativistic wave equation; Relativistic quantum field equations
In physics, specifically relativistic quantum mechanics (RQM) and its applications to particle physics, relativistic wave equations predict the behavior of particles at high energies and velocities comparable to the speed of light. In the context of quantum field theory (QFT), the equations determine the dynamics of quantum fields.
Schrödinger equation         
  • [[Erwin Schrödinger]]
  • 1-dimensional potential energy box (or infinite potential well)
  • spring]], oscillates back and forth. (C–H) are six solutions to the Schrödinger Equation for this situation. The horizontal axis is position, the vertical axis is the real part (blue) or imaginary part (red) of the [[wave function]]. [[Stationary state]]s, or energy eigenstates, which are solutions to the time-independent Schrödinger equation, are shown in C, D, E, F, but not G or H.
  • harmonic oscillator]]. Left: The real part (blue) and imaginary part (red) of the wave function. Right: The [[probability distribution]] of finding the particle with this wave function at a given position. The top two rows are examples of '''[[stationary state]]s''', which correspond to [[standing wave]]s. The bottom row is an example of a state which is ''not'' a stationary state. The right column illustrates why stationary states are called "stationary".
  • 1=''V'' = 0}}. In other words, this corresponds to a particle traveling freely through empty space.
PARTIAL DIFFERENTIAL EQUATION DESCRIBING HOW THE QUANTUM STATE OF A NON-RELATIVISTIC PHYSICAL SYSTEM CHANGES WITH TIME
Schrodingers equation; Schroedinger's equation; Schroedinger equation; Schrödinger Wave Equation; Schrodinger's equation; Schrödinger wave equation; Schrödinger's equation; Schrödinger-equation; Schrödinger Equation; Schrödinger's wave equation; TDSE; Time-independent Schrödinger equation; Time-independent Schrodinger equation; Time-independent schrödinger equation; Time-independent schrodinger equation; Schrodinger Equation; Shrodinger equation; Shrodinger's equation; Schroedinger Equation; Sherdinger's equation; Shredinger's equation; Sherdinger equation; Shredinger equation; Schrodinger's wave equation; Schrodinger`s equation; Schrodiner`s equation; Erwin Schrodinger's wave model; Time independent Schrödinger equation; Schroedinger wave equation; Time-independent Schroedinger equation; Schrodinger Wave Equation; Schroedinger Wave Equation; Schroedinger's wave equation; Time independent Schroedinger equation; Schrodinger-equation; Time independent Schrodinger equation; Time-independent schroedinger equation; Schroedinger-equation; Schrodinger wave equation; Schrodinger equation; TISE; Schrodinger operator; Schrödinger’s equation; Schrodinger's Wave Equation; Schrödinger's Wave Equation; Schrodinger's Equation; Schrödinger's Equation; Schrodinger model; Schrödinger model; Non-Relativistic Schrodinger Wave Equation; Time-dependent Schrödinger equation; Schrodinger’s equation; Schrodenger equation
The Schrödinger equation is a linear partial differential equation that governs the wave function of a quantum-mechanical system. It is a key result in quantum mechanics, and its discovery was a significant landmark in the development of the subject.

Βικιπαίδεια

Wave equation

The (two-way) wave equation is a second-order linear partial differential equation for the description of waves or standing wave fields – as they occur in classical physics – such as mechanical waves (e.g. water waves, sound waves and seismic waves) or electromagnetic waves (including light waves). It arises in fields like acoustics, electromagnetism, and fluid dynamics. Single mechanical or electromagnetic waves propagating in a pre-defined direction can also be described with the first-order one-way wave equation, which is much easier to solve and also valid for inhomogeneous media.