The energy levels of the harmonic oscillator are expressed as En=(N+1/2)hf, derived from solving Schrödinger's equation for a harmonic potential. The derivation is lengthy and not typically found in standard textbooks. The Power Series Technique is one method used for this analytical solution, though other techniques may exist. An alternative and simpler approach involves using raising and lowering operators. Understanding these derivations is essential for grasping the quantum mechanics of harmonic oscillators.
#1
asdf1
734
0
why is the energy levels of the harmonic oscillator En=(N+1/2)hf?
Is it derived in your textbook? It's not a particulary short derivation regardless of the method you use do I'd rather not type it out here. As for why the energy levels are like that because that's what you get when you solve Schrödinger's equation for a potential of the harmonic oscillator form.
#3
asdf1
734
0
no it's not derived in my textbook... thank you~
#4
Hermite
23
0
That expression for E arises when solving the Schroedinger Equation analytically using the Power Series Technique (I don't know of any other analytical technique - if anyone else does let me know).
The solution is not hard but it is long.
An easier way to derive E is to use raising and lowering operators.
for d), I am a bit confused. I have two trains of thoughts here
any thoughts on which answer is correct, and why the other one is incorrect? Both seem like valid solutions to me. Or is the question ambiguous?
thanks