Exam 39: More About Matter Waves
Exam 1: Measurement37 Questions
Exam 2: Motion Along a Straight Line90 Questions
Exam 3: Vector32 Questions
Exam 4: Motion in Two and Three Dimensions53 Questions
Exam 5: Force and Motion I73 Questions
Exam 6: Force and Motion II74 Questions
Exam 7: Kinetic Energy and Work72 Questions
Exam 8: Potential Energy and Conservation of Energy62 Questions
Exam 9: Center of Mass and Linear Momentum98 Questions
Exam 10: Rotation99 Questions
Exam 11: Rolling, Torque, and Angular Momentum65 Questions
Exam 12: Equilibrium and Elasticity57 Questions
Exam 13: Gravitation54 Questions
Exam 14: Fluids87 Questions
Exam 15: Oscillations75 Questions
Exam 16: Waves I80 Questions
Exam 17: Waves II70 Questions
Exam 18: Temperature, Heat, and the First Law of Thermodynamics96 Questions
Exam 19: The Kinetic Theory of Gases111 Questions
Exam 20: Entropy and the Second Law of Thermodynamics61 Questions
Exam 21: Electric Charge51 Questions
Exam 22: Electric Fields52 Questions
Exam 23: Gauss Law39 Questions
Exam 24: Electric Potential50 Questions
Exam 25: Capacitance59 Questions
Exam 26: Current and Resistance54 Questions
Exam 27: Circuits73 Questions
Exam 28: Magnetic Fields51 Questions
Exam 29: Magnetic Fields Due to Currents48 Questions
Exam 30: Induction and Inductance90 Questions
Exam 31: Electromagnetic Oscillations and Alternating Current86 Questions
Exam 32: Maxwells Equations; Magnetism of Matter81 Questions
Exam 33: Electromagnetic Waves81 Questions
Exam 34: Images78 Questions
Exam 35: Interference45 Questions
Exam 36: Diffraction77 Questions
Exam 37: Relativity68 Questions
Exam 38: Photons and Matter Waves57 Questions
Exam 39: More About Matter Waves41 Questions
Exam 40: All About Atoms76 Questions
Exam 41: Conduction of Electricity in Solids49 Questions
Exam 42: Nuclear Physics68 Questions
Exam 43: Energy From the Nucleus50 Questions
Exam 44: Quarks, Leptons, and the Big Bang55 Questions
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An electron confined in a one-dimensional infinite potential well has an energy of 180 eV.What is its wavelength?
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(Multiple Choice)
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B
An electron is trapped in a deep well with a width of 0.3 nm.If it is in the state with quantum number n = 3 its kinetic energy is:
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E
A particle is trapped in an infinite potential energy well.It is in the state with quantum number n = 14.How many nodes does the probability density have (counting the nodes at the ends of the well)?
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(Multiple Choice)
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E
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 wave function (x)versus x is shown.The value of quantum number n is:

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The wave function for an electron in a state with zero angular momentum:
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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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The binding energy of an electron in the ground state in a hydrogen atom is about:
(Multiple Choice)
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The figure shows the energy levels for an electron in a finite potential energy well.If the electron makes a transition from the n = 3 state to the ground state, what is the wavelength of the emitted photon? 

(Multiple Choice)
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Two one-dimensional traps have infinite potential energy at their walls.Trap A has width L and trap B has width 2L.For which value of the quantum number n does a particle in trap B have the same energy as a particle in the ground state of trap A?
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If the wave function is spherically symmetric then the radial probability density is given by:
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Identical particles are trapped in one-dimensional wells with infinite potential energy at the walls.The widths L of the traps and the quantum numbers n of the particles are
Rank them according to the kinetic energies of the particles, least to greatest.

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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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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.

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Take the potential energy of a hydrogen atom to be zero for infinite separation of the electron and proton.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 (the difference between the energy of the state and that of the ground state)is:
(Multiple Choice)
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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:
(Multiple Choice)
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Take the potential energy of a hydrogen atom to be zero for infinite separation of the electron and proton.Then, according to the quantum theory the energy En of a state with principal quantum number n is proportional to:
(Multiple Choice)
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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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An electron in an atom drops from an energy level at -1.1 *10-18 J to an energy level at -2.4 * 10-18 J.The wave associated with the emitted photon has a frequency of:
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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:
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