Chapter 5: Q33E (page 188)
Verify that is a solution of equation .
Short Answer
The wave function equation satisfies the Schrodinger Equation.
Chapter 5: Q33E (page 188)
Verify that is a solution of equation .
The wave function equation satisfies the Schrodinger Equation.
All the tools & learning materials you need for study success - in one app.
Get started for freeA study of classical waves tells us that a standing wave can be expressed as a sum of two travelling waves. Quantum-Mechanical travelling waves, discussed in Chapter 4, is of the form . Show that the infinite well’s standing wave function can be expressed as a sum of two traveling waves.
There are mathematical solutions to the Schrödinger equation for the finite well for any energy, and in fact. They can be made smooth everywhere. Guided by A Closer Look: Solving the Finite Well. Show this as follows:
(a) Don't throw out any mathematical solutions. That is in region Il , assume that , and in region III , assume that. Write the smoothness conditions.
(b) In Section 5.6. the smoothness conditions were combined to eliminate in favor of . In the remaining equation. canceled. leaving an equation involving only and , solvable for only certain values of . Why can't this be done here?
(c) Our solution is smooth. What is still wrong with it physically?
(d) Show that
localid="1660137122940"
and that setting these offending coefficients to 0 reproduces quantization condition (5-22).
What is the product ofand(obtained in Exercise 83 and 85)? How does it compare with the minimum theoretically possible? Explain.
To describe the matter wave, does the function have well-defined energy? Explain
Quantization is an important characteristic of systems in which a particle is bound in a small region. Why "small," and why "bound"?
What do you think about this solution?
We value your feedback to improve our textbook solutions.