What is the physical significance of time-independent & time-dependent schrodinger wave equation?
@eliassaab @amistre64 @ganeshie8 @Compassionate @nincompoop @gorv @skullpatrol
Simply,The time-dependent Schrödinger equation, is used to find the time dependence of the wavefunction. u can also say that, here the potential energy depends on time, so the wave equation describes the change of position of the particle with time
and for time independent state, potential energy of the particle does not depend on time explicitly so , in this case u can say this wave equation describes only the position of the particle
another point is- The time-independent Schrodinger equation is mainly useful for describing standing waves but It has serious shortcomings when used to describing traveling waves
need more clarification?
if u need any applications then the best will be--Harmonic Oscillator in this device time indepence of waves are used to detect standing waves
this is A significance of Time-ind scho. equation
For a non-radiating system, H is independent of time, would you explain this?
i mean hamiltonian
thanks for explaining me earlier
yeah thats a basic property to prove it u need to know some basic properties of hamiltonians \[H=H(p_1,p_2,...,p_k,q_1,q_2,...,q_k,t)\\=H(p_k,q_k,t)\\now ~taking~time~derivative\\ \frac{ dh }{ dt }=\sum_{k}^{}\frac{ \partial H }{ \partial q_k }q_k^{.}+\sum_{k}^{}\frac{ \partial H }{ \partial p_k }p_k^{.}+\frac{ \partial H }{ \partial t}\]
are u familiar with these?
yes
now u need to use these properties-- \[\frac{ \partial H }{ \partial q_k }=-p_k^{.}\\ \frac{ \partial H }{ \partial p_k }=q_k^{.}\] apply these in the above equation
hey i'll be back by a hour then i'll complete the proof okay!!
okay...,
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