8.1 The Hydrogen Atom
Quantum numbers n, l, and m from the three-dimensional solution, radial probability densities, quantized orbital angular momentum, and where the Bohr picture fails.
11 exercises
8.1 Exercise 1
Can the magnitude of ever be equal to L?
8.1 Exercise 2
Identify the physical significance of each of the quantum numbers of the hydrogen atom.
8.1 Exercise 4
Distinguish between Bohr’s and Schrödinger’s model of the hydrogen atom. In particular, compare the energy and orbital angular momentum of the ground states.
8.1 Exercise 5
The wave function is evaluated at rectangular coordinates () (2, 1, 1) in arbitrary units. What are the spherical coordinates of this position?
8.1 Exercise 7
What are the possible values of m for an electron in the state?
8.1 Exercise 9
How many possible states are there for the state?
8.1 Exercise 11
The force on an electron is “negative the gradient of the potential energy function.” Use this knowledge and the equation to show that the force on the electron in a hydrogen atom is given by Coulomb’s force law.
8.1 Exercise 13
The wave function is evaluated at spherical coordinates where the value of the radial coordinate is given in arbitrary units. What are the rectangular coordinates of this position?
8.1 Exercise 15
Write an expression for the total number of states with orbital angular momentum l.
8.1 Exercise 17
What is the probability that the 1s electron of a hydrogen atom is found outside the Bohr radius?
8.1 Exercise 19
What is the maximum number of orbital angular momentum electron states in the shell of a hydrogen atom? (Ignore electron spin.)
Adapted from University Physics Volume 3 © 2016 Rice University. Licensed under CC BY 4.0. Source: University Physics Volume 3. Imported at revision db44eb9.