We've looked at the wavefunction for a particle in a box. Soon we will look at other systems with different constraints and types of motion, which have a different wavefunction. For example, a particle rotating on a ring has w(p) =. 1 e'mø where m=0, ± 1, ± 2,... and ¢ is the angle of rotation (analagous to x in the particle in a box problems). For -n? d? 21 do2 rotational motion the kinetic energy operator is E where I is the moment of inertia (analagous to mass). Use the Schrödinger equation to calculate the energy of this particle if V = 0.
We've looked at the wavefunction for a particle in a box. Soon we will look at other systems with different constraints and types of motion, which have a different wavefunction. For example, a particle rotating on a ring has w(p) =. 1 e'mø where m=0, ± 1, ± 2,... and ¢ is the angle of rotation (analagous to x in the particle in a box problems). For -n? d? 21 do2 rotational motion the kinetic energy operator is E where I is the moment of inertia (analagous to mass). Use the Schrödinger equation to calculate the energy of this particle if V = 0.
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