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Physics 16 Online
OpenStudy (anonymous):

What is the physical significance of time-independent & time-dependent schrodinger wave equation?

OpenStudy (anonymous):

@eliassaab @amistre64 @ganeshie8 @Compassionate @nincompoop @gorv @skullpatrol

OpenStudy (sidsiddhartha):

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

OpenStudy (sidsiddhartha):

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

OpenStudy (sidsiddhartha):

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

OpenStudy (sidsiddhartha):

need more clarification?

OpenStudy (sidsiddhartha):

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

OpenStudy (sidsiddhartha):

this is A significance of Time-ind scho. equation

OpenStudy (anonymous):

For a non-radiating system, H is independent of time, would you explain this?

OpenStudy (anonymous):

i mean hamiltonian

OpenStudy (anonymous):

thanks for explaining me earlier

OpenStudy (sidsiddhartha):

yeah thats a basic property to prove it u need to know some basic properties of hamiltonians \[H=H(p_1,p_2,...,p_k,q_1,q_2,...,q_k,t)\\=H(p_k,q_k,t)\\now ~taking~time~derivative\\ \frac{ dh }{ dt }=\sum_{k}^{}\frac{ \partial H }{ \partial q_k }q_k^{.}+\sum_{k}^{}\frac{ \partial H }{ \partial p_k }p_k^{.}+\frac{ \partial H }{ \partial t}\]

OpenStudy (sidsiddhartha):

are u familiar with these?

OpenStudy (anonymous):

yes

OpenStudy (sidsiddhartha):

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

OpenStudy (sidsiddhartha):

hey i'll be back by a hour then i'll complete the proof okay!!

OpenStudy (anonymous):

okay...,

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