Exam 39: More About Matter Waves
Exam 1: Measurement31 Questions
Exam 2: Motion Along a Straight Line79 Questions
Exam 3: Vector39 Questions
Exam 4: Motion in Two and Three Dimensions47 Questions
Exam 5: Force and Motion I68 Questions
Exam 6: Force and Motion II71 Questions
Exam 7: Kinetic Energy and Work67 Questions
Exam 8: Potential Energy and Conservation of Energy61 Questions
Exam 9: Center of Mass and Linear Momentum81 Questions
Exam 10: Rotation82 Questions
Exam 11: Rolling, Torque, and Angular Momentum54 Questions
Exam 12: Equilibrium and Elasticity53 Questions
Exam 13: Gravitation55 Questions
Exam 14: Fluids85 Questions
Exam 15: Oscillations62 Questions
Exam 16: Waves I71 Questions
Exam 17: Waves II61 Questions
Exam 18: Temperature, Heat, and the First Law of Thermodynamics82 Questions
Exam 19: The Kinetic Theory of Gases95 Questions
Exam 20: Entropy and the Second Law of Thermodynamics56 Questions
Exam 21: Electric Charge45 Questions
Exam 22: Electric Fields49 Questions
Exam 23: Gauss Law34 Questions
Exam 24: Electric Potential44 Questions
Exam 25: Capacitance55 Questions
Exam 26: Current and Resistance49 Questions
Exam 27: Circuits70 Questions
Exam 28: Magnetic Fields48 Questions
Exam 29: Magnetic Fields Due to Currents47 Questions
Exam 30: Induction and Inductance85 Questions
Exam 31: Electromagnetic Oscillations and Alternating Current84 Questions
Exam 32: Maxwells Equations; Magnetism of Matter81 Questions
Exam 33: Electromagnetic Waves79 Questions
Exam 34: Images72 Questions
Exam 35: Interference40 Questions
Exam 36: Diffraction74 Questions
Exam 37: Relativity65 Questions
Exam 38: Photons and Matter Waves53 Questions
Exam 39: More About Matter Waves41 Questions
Exam 40: All About Atoms76 Questions
Exam 41: Conduction of Electricity in Solids48 Questions
Exam 42: Nuclear Physics67 Questions
Exam 43: Energy From the Nucleus44 Questions
Exam 44: Quarks, Leptons, and the Big Bang52 Questions
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An electron is in a one-dimensional trap with zero potential energy in the interior and infinite potential energy at the walls. A graph of its probability density P(x) versus x is shown. The value of the quantum number n is: 
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The radial probability density for the electron in the ground state of a hydrogen atom has a peak at about:
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If P(r) is the radial probability density for a hydrogen atom then the probability that the separation of the electron and proton is between r and r + dr is:
(Multiple Choice)
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Take the potential energy of a hydrogen atom to be zero for infinite separation of the electron and porton. Then the ground state energy of a hydrogen atom is -13.6 eV. When the electron is in the first excited state its excitation energy is:
(Multiple Choice)
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A particle in a certian finite potential energy well can have any of five quantized energy values and no more. Which of the following would allow it to have any of six quantized energy levels?
(Multiple Choice)
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A particle is trapped in a finite potential energy well that is deep enough so that the electron can be in the state with n = 4. For this state how many nodes does the probability density have?
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When a hydrogen atom makes the transition from the second excited state to the ground state (at -13.6 eV) the energy of the photon emitted is:
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Take the potential energy of a hydrogen atom to be zero for infinite separation of the electron and porton. Then the ground state energy of a hydrogen atom is -13.6 eV. The energy of the first excited state is:
(Multiple Choice)
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The wave function for an electron in a state with zero angular momentum:
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A particle is trapped in a one-dimensional well with infinite potential energy at the walls. Three possible pairs of energy levels are
Order these pairs according to the difference in energy. least to greatest.
(Multiple Choice)
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If the wave function is spherically symmetric then the radial probability density is given by:
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The ground state energy of an electron in a one-dimensional trap with zero potential energy in the interior and infinite potential energy at the walls is 2.0 eV. If the width of the well is doubled, the ground state energy will be:
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The quantum number n is most closely associated with what property of the electron in a hydrogen atom?
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Four different particles are trapped in one-dimensional wells with infinite potential energy at their walls. The masses of the particles and the width of the wells are
Rank them according to the kinetic energies of the particles when they are in their ground states.
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An electron is in a one-dimensional trap with zero potential energy in the interior and infinite potential energy at the walls. The ratio E3/E1 of the energy for n = 3 to that for n = 1 is:
(Multiple Choice)
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A particle is confined by finite potential energy walls to a one-dimensional trap from x = 0 to x = L. Its wave funciton in the region x > L has the form:
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The binding energy of an electron in the ground state in a hydrogen atom is about:
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If a wave function for a particle moving along the x axis is "normalized" then:
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An electron is in a one-dimensional well with finite potential energy barriers at the walls. The matter wave:
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A particle is confined to a one-dimensional trap by infinite potential energy walls. Of the following states, designed by the quantum number n, for which one is the probability density greatest near the center of the well?
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