The Hydrogen Atom Identify the physical significance of each of the quantum numbers of the hydrogen atom.
Read more- Physics / University Physics, Volume 3 17 / Chapter 8 / Problem 56
Textbook Solutions for University Physics, Volume 3
Question
Electron Spin
For n = 2 write all the possible sets of quantum numbers (n, l, m, \(m_{s}\).
Text Transcription:
m_s
Solution
The first step in solving 8 problem number trying to solve the problem we have to refer to the textbook question: Electron SpinFor n = 2 write all the possible sets of quantum numbers (n, l, m, \(m_{s}\).Text Transcription:m_s
From the textbook chapter Atomic Structure you will find a few key concepts needed to solve this.
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full solution
?Electron SpinFor n = 2 write all the possible sets of quantum numbers (n, l, m
Chapter 8 textbook questions
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Chapter 8: Problem 1 University Physics, Volume 3 17 -
Chapter 8: Problem 2 University Physics, Volume 3 17The Hydrogen Atom Describe the ground state of hydrogen in terms of wave function, probability density, and atomic orbitals.
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Chapter 8: Problem 3 University Physics, Volume 3 17The Hydrogen Atom 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.
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Chapter 8: Problem 4 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Explain why spectral lines of the hydrogen atom are split by an external magnetic field. What determines the number and spacing of these lines?
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Chapter 8: Problem 5 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron A hydrogen atom is placed in a magnetic field. Which of the following quantities are affected? (a) total energy; (b) angular momentum; (c) zcomponent of angular momentum; (d) polar angle.
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Chapter 8: Problem 6 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron On what factors does the orbital magnetic dipole moment of an electron depend?
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Chapter 8: Problem 7 University Physics, Volume 3 17Electron Spin Explain how a hydrogen atom in the ground state (I = 0) can interact magnetically with an external magnetic field.
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Chapter 8: Problem 8 University Physics, Volume 3 17Electron Spin Compare orbital angular momentum with spin angular momentum of an electron in the hydrogen atom.
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Chapter 8: Problem 9 University Physics, Volume 3 17Electron Spin List all the possible values of s and for an electron. Are there particles for which these values are different?
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Chapter 8: Problem 10 University Physics, Volume 3 17Electron Spin Are the angular momentum vectors \(\overrightarrow{\mathbf{L}} \text { and } \overrightarrow{\mathbf{S}}\) necessarily aligned? Text Transcription: Over rightarrow L and Over rightarrow S
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Chapter 8: Problem 11 University Physics, Volume 3 17Electron Spin What is spin-orbit coupling?
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Chapter 8: Problem 25 University Physics, Volume 3 17The Hydrogen Atom The wave function is evaluated at rectangular coordinates (x, y, z) = (2, 1, 1) in arbitrary units. What are the spherical coordinates of this position?
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Chapter 8: Problem 26 University Physics, Volume 3 17The Hydrogen Atom If an atom has an electron in the n = 5 state with m = 3, what are the possible values of I?
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Chapter 8: Problem 27 University Physics, Volume 3 17The Hydrogen Atom What are the possible values of m for an electron in the n = 4 state?
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Chapter 8: Problem 28 University Physics, Volume 3 17The Hydrogen Atom What, if any, constraints does a value of m = 1 place on the other quantum numbers for an electron in an atom?
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Chapter 8: Problem 29 University Physics, Volume 3 17The Hydrogen Atom How many possible states are there for the l = 4 state?
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Chapter 8: Problem 30 University Physics, Volume 3 17The Hydrogen Atom (a) How many angles can L make with the z-axis for an l = 2 electron? (b) Calculate the value of the smallest angle.
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Chapter 8: Problem 31 University Physics, Volume 3 17The Hydrogen Atom The force on an electron is "negative the gradient of the potential energy function." Use this knowledge and Equation 8.1 to show that the force on the electron in a hydrogen atom is given by Coulomb's force law.
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Chapter 8: Problem 32 University Physics, Volume 3 17The Hydrogen Atom What is the total number of states with orbital angular momentum i = 0? (Ignore electron spin.)
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Chapter 8: Problem 33 University Physics, Volume 3 17The Hydrogen Atom The wave function is evaluated at spherical coordinates \((r, \theta, \phi)=\left(\sqrt{3}, 45^{\circ}, 45^{\circ}\right)\), where the value of the radial coordinate is given in arbitrary units. What are the rectangular coordinates of this position? Text Transcription: (r, theta, phi) = (sqrt 3, 45 degrees, 45 degrees)
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Chapter 8: Problem 34 University Physics, Volume 3 17The Hydrogen Atom Coulomb's force law states that the force between two charged particles is: \(F=k \frac{Q q}{r^{2}}\). Use this expression to determine the potential energy function. Text Transcription: F=k Qq/r^2
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Chapter 8: Problem 35 University Physics, Volume 3 17The Hydrogen Atom Write an expression for the total number of states with orbital angular momentum I.
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Chapter 8: Problem 36 University Physics, Volume 3 17The Hydrogen Atom Consider hydrogen in the ground state, \(\psi_{100}\) (a) Use the derivative to determine the radial position for which the probability density, P(r), is a maximum. (b) Use the integral concept to determine the average radial position. (This is called the expectation value of the electron's radial position.) Express your answers into terms of the Bohr radius, \(a_{0}\). Hint: The expectation value is the just average value. (c) Why are these values different? Text Transcription: psi=100 a_0
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Chapter 8: Problem 37 University Physics, Volume 3 17The Hydrogen Atom What is the probability that the 1s electron of a hydrogen atom is found outside the Bohr radius?
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Chapter 8: Problem 38 University Physics, Volume 3 17The Hydrogen Atom How many polar angles are possible for an electron in the l = 5 state?
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Chapter 8: Problem 39 University Physics, Volume 3 17The Hydrogen Atom What is the maximum number of orbital angular momentum electron states in the n = 2 shell of a hydrogen atom? (Ignore electron spin.)
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Chapter 8: Problem 40 University Physics, Volume 3 17The Hydrogen Atom What is the maximum number of orbital angular momentum electron states in the n = 3 shell of a hydrogen atom? (Ignore electron spin.)
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Chapter 8: Problem 41 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Find the magnitude of the orbital magnetic dipole moment of the electron in the 3 p state. (Express your answer in terms of \(\mu_{\mathrm{B}}\).) Text Transcription: mu B
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Chapter 8: Problem 42 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron A current of I = 2A flows through a square shaped wire with 2-cm side lengths. What is the magnetic moment of the wire?
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Chapter 8: Problem 43 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Estimate the ratio of the electron magnetic moment to the muon magnetic moment for the same state of orbital angular momentum. (Hint: \(m_{\mu}=105.7 \mathrm{MeV} / c^{2}\)) Text Transcription: m_mu=105.7 MeV/c^2
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Chapter 8: Problem 44 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Find the magnitude of the orbital magnetic dipole moment of the electron in in the 4d state. (Express your answer in terms of \(\mu_{\mathrm{B}}\).) Text Transcription: mu B
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Chapter 8: Problem 45 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron For a 3d electron in an external magnetic field of \(2.50 \times 10^{-3} \mathrm{~T}\), find (a) the current associated with the orbital angular momentum, and (b) the maximum torque. Text Transcription: 2.50 times 10^-3 T
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Chapter 8: Problem 46 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron An electron in a hydrogen atom is in the n = 5, I = 4 state. Find the smallest angle the magnetic moment makes with the z-axis. (Express your answer in terms of \(\mu_{\mathrm{B}}\).) Text Transcription: mu B
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Chapter 8: Problem 47 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Find the minimum torque magnitude \(|\vec{\tau}|\) that acts on the orbital magnetic dipole of a 3p electron in an external magnetic field of \(2.50 \times 10^{-3} \mathrm{~T}\). Text Transcription: 2.50 times 10^-3 T
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Chapter 8: Problem 48 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron An electron in a hydrogen atom is in 3p state. Find the smallest angle the magnetic moment makes with the z-axis. (Express your answer in terms of \(\mu_{\mathrm{B}}\).) Text Transcription: mu B
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Chapter 8: Problem 49 University Physics, Volume 3 17Orbital Magnetic Dipole Moment of the Electron Show that \(U=-\vec{\mu} \cdot \overrightarrow{\mathbf{B}}\) (Hint: An infinitesimal amount of work is done to align the magnetic moment with the external field. This work rotates the magnetic moment vector through an angle \(-d \theta\) (toward the positive z-direction), where \(d \theta\) is a positive angle change.) Text Transcription: U=-over rightarrow mu times over rightarrow B. -d theta d theta
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Chapter 8: Problem 50 University Physics, Volume 3 17Electron Spin What is the magnitude of the spin momentum of an electron? (Express you answer in terms of \(\hbar\).) Text Transcription: h bar
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Chapter 8: Problem 51 University Physics, Volume 3 17Electron Spin What are the possible polar orientations of the spin momentum vector for an electron?
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Chapter 8: Problem 52 University Physics, Volume 3 17Electron Spin For n = 1, write all the possible sets of quantum numbers (n, I, m, ms).
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Chapter 8: Problem 53 University Physics, Volume 3 17Electron Spin A hydrogen atom is placed in an external uniform magnetic field (B = 200 T). Calculate the wavelength of light produced in a transition from a spin up to spin down state.
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Chapter 8: Problem 54 University Physics, Volume 3 17Electron Spin If the magnetic field in the preceding problem is quadrupled, what happens to the wavelength of light produced in a transition from a spin up to spin down state?
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Chapter 8: Problem 85 University Physics, Volume 3 17For a hydrogen atom in an excited state with principal quantum number n, show that the smallest angle that the orbital angular momentum vector can make with respect to the \(z \text {-axis is } \theta=\cos ^{-1}\left(\sqrt{\frac{n-1}{n}}\right)\) Text Transcription: z-axis is theta=cos^-1 (sqrt n-1/n)
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Chapter 8: Problem 86 University Physics, Volume 3 17What is the probability that the 1s electron of a hydrogen atom is found between r = 0 and \(r=\infty\)? Text Transcription: r=infinity
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Chapter 8: Problem 87 University Physics, Volume 3 17Sketch the potential energy function of an electron in a hydrogen atom. (a) What is the value of this function at r = 0? in the limit that \(r=\infty\)? (b) What is unreasonable or inconsistent with the former result? Text Transcription: r=infinity
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Chapter 8: Problem 88 University Physics, Volume 3 17Find the value of I, the orbital angular momentum quantum number, for the Moon around Earth.
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Chapter 8: Problem 89 University Physics, Volume 3 17Show that the maximum number of orbital angular momentum electron states in the nth shell of an atom is \(n^{2}\) . (Ignore electron spin.) (Hint: Make a table of the total number of orbital angular momentum states for each shell and find the pattern.) Text Transcription: n^2
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Chapter 8: Problem 90 University Physics, Volume 3 17What is the magnitude of an electron magnetic moment?
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Chapter 8: Problem 91 University Physics, Volume 3 17What is the maximum number of electron states in the n = 5 shell?
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Chapter 8: Problem 92 University Physics, Volume 3 17A ground-state hydrogen atom is placed in a uniform magnetic field, and a photon is emitted in the transition from a spin-up to spin-down state. The wavelength of the photon is \(168 \mu \mathrm{m}\). What is the strength of the magnetic field? Text Transcription: 168 mu m
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Chapter 8: Problem 93 University Physics, Volume 3 17Show that the maximum number of electron states in the nth shell of an atom is \(2 n^{2}\). Text Transcription: 2n^2
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Chapter 8: Problem 12 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table What is Pauli’s exclusion principle? Explain the importance of this principle for the understanding of atomic structure and molecular bonding.
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Chapter 8: Problem 13 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Compare the electron configurations of the elements in the same column of the periodic table.
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Chapter 8: Problem 14 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Compare the electron configurations of the elements that belong in the same row of the periodic table of elements.
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Chapter 8: Problem 15 University Physics, Volume 3 17Atomic Spectra and X-rays Atomic and molecular spectra are discrete. What does discrete mean, and how are discrete spectra related to the quantization of energy and electron orbits in atoms and molecules?
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Chapter 8: Problem 16 University Physics, Volume 3 17Atomic Spectra and X-rays Discuss the process of the absorption of light by matter in terms of the atomic structure of the absorbing medium.
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Chapter 8: Problem 17 University Physics, Volume 3 17Atomic Spectra and X-rays NGC1763 is an emission nebula in the Large Magellanic Cloud just outside our Milky Way Galaxy. Ultraviolet light from hot stars ionize the hydrogen atoms in the nebula. As protons and electrons recombine, light in the visible range is emitted. Compare the energies of the photons involved in these two transitions.
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Chapter 8: Problem 18 University Physics, Volume 3 17Atomic Spectra and X-rays Why are X-rays emitted only for electron transitions to inner shells? What type of photon is emitted for transitions between outer shells?
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Chapter 8: Problem 19 University Physics, Volume 3 17Atomic Spectra and X-rays How do the allowed orbits for electrons in atoms differ from the allowed orbits for planets around the sun?
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Chapter 8: Problem 20 University Physics, Volume 3 17Lasers Distinguish between coherent and monochromatic light.
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Chapter 8: Problem 21 University Physics, Volume 3 17Lasers Why is a metastable state necessary for the production of laser light?
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Chapter 8: Problem 22 University Physics, Volume 3 17Lasers How does light from an incandescent light bulb differ from laser light?
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Chapter 8: Problem 23 University Physics, Volume 3 17Lasers How is a Blu-Ray player able to read more information that a CD player?
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Chapter 8: Problem 24 University Physics, Volume 3 17Lasers What are the similarities and differences between a CD player and a Blu-Ray player?
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Chapter 8: Problem 55 University Physics, Volume 3 17Electron Spin If the magnetic moment in the preceding problem is doubled, what happens to the frequency of light produced in a transition from a spin-up to spin-down state?
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Chapter 8: Problem 56 University Physics, Volume 3 17Electron Spin For n = 2 write all the possible sets of quantum numbers (n, l, m, \(m_{s}\). Text Transcription: m_s
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Chapter 8: Problem 57 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table (a) How many electrons can be in the n = 4 shell? (b) What are its subshells, and how many electrons can be in each?
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Chapter 8: Problem 58 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table (a) What is the minimum value of I for a subshell that contains 11 electrons? (b) If this subshell is in the n = 5 shell, what is the spectroscopic notation for this atom?
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Chapter 8: Problem 59 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Unreasonable result. Which of the following spectroscopic notations are not allowed? (a) \(5 s^{1}\) (b) \(1 d^{1}\) (c) \(4 s^{3}\) (d) \(3 p^{7}\) (e) \(5 g^{15}\) Text Transcription: 5s^1 1d^1 4s^3 3p^7 5g^15
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Chapter 8: Problem 60 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Write the electron configuration for potassium.
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Chapter 8: Problem 61 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Write the electron configuration for iron.
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Chapter 8: Problem 62 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table The valence electron of potassium is excited to a 5dstate. (a) What is the magnitude of the electron’s orbital angular momentum? (b) How many states are possible along a chosen direction?
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Chapter 8: Problem 63 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table (a) If one subshell of an atom has nine electrons in it, what is the minimum value of l? (b) What is the spectroscopic notation for this atom, if this subshell is part of the n = 3 shell?
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Chapter 8: Problem 64 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Write the electron configuration for magnesium.
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Chapter 8: Problem 65 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table Write the electron configuration for carbon.
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Chapter 8: Problem 66 University Physics, Volume 3 17The Exclusion Principle and the Periodic Table The magnitudes of the resultant spins of the electrons of the elements B through Ne when in the ground state are: \(\sqrt{3} \hbar / 2, \sqrt{2} \hbar, \sqrt{15} \hbar / 2, \sqrt{2} \hbar, \sqrt{3} \hbar / 2\), and 0, respectively. Argue that these spins are consistent with Hund’s rule. Text Transcription: Sqrt 3 hbar/2, sqrt 2 hbar, sqrt hbar/2, sqrt 2 hbar, sqrt 3 hbar/2
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Chapter 8: Problem 67 University Physics, Volume 3 17Atomic Spectra and X-rays What is the minimum frequency of a photon required to ionize: (a) a \(\mathrm{He}^{+}\) ion in its ground state? (b) A \(\mathrm{Li}^{2+}\) ion in its first excited state? Text Transcription: He^+ Li^2+
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Chapter 8: Problem 68 University Physics, Volume 3 17Atomic Spectra and X-rays The ion \(\mathrm{Li}^{2+}\) makes an atomic transition from an n = 4 state to an n = 2 state. (a) What is the energy of the photon emitted during the transition? (b) What is the wavelength of the photon? Text Transcription: Li^2+
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Chapter 8: Problem 69 University Physics, Volume 3 17Atomic Spectra and X-rays The red light emitted by a ruby laser has a wavelength of 694.3 nm. What is the difference in energy between the initial state and final state corresponding to the emission of the light?
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Chapter 8: Problem 70 University Physics, Volume 3 17Atomic Spectra and X-rays The yellow light from a sodium-vapor street lamp is produced by a transition of sodium atoms from a 3p state to a 3s state. If the difference in energies of those two states is 2.10 eV, what is the wavelength of the yellow light?
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Chapter 8: Problem 71 University Physics, Volume 3 17Atomic Spectra and X-rays Estimate the wavelength of the \(K_{\alpha}\) X-ray from calcium. Text Transcription: K_alpha
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Chapter 8: Problem 72 University Physics, Volume 3 17Atomic Spectra and X-rays Estimate the frequency of the \(K_{\alpha}\) X-ray from cesium. Text Transcription: K_alpha
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Chapter 8: Problem 73 University Physics, Volume 3 17Atomic Spectra and X-rays X-rays are produced by striking a target with a beam of electrons. Prior to striking the target, the electrons are accelerated by an electric field through a potential energy difference: \(\Delta U=-e \Delta V\), where e is the charge of an electron and \(\Delta V\) is the voltage difference. If \(\Delta V=15,000\) volts, what is the minimum wavelength of the emitted radiation? Text Transcription: Delta U=-e Delta V Delta V Delta V=15,000
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Chapter 8: Problem 74 University Physics, Volume 3 17Atomic Spectra and X-rays For the preceding problem, what happens to the minimum wavelength if the voltage across the X-ray tube is doubled?
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Chapter 8: Problem 75 University Physics, Volume 3 17Atomic Spectra and X-rays Suppose the experiment in the preceding problem is conducted with muons. What happens to the minimum wavelength?
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Chapter 8: Problem 76 University Physics, Volume 3 17Atomic Spectra and X-rays An X-ray tube accelerates an electron with an applied voltage of 50 kV toward a metal target. (a) What is the shortest-wavelength X-ray radiation generated at the target? (b) Calculate the photon energy in eV. (c) Explain the relationship of the photon energy to the applied voltage.
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Chapter 8: Problem 77 University Physics, Volume 3 17Atomic Spectra and X-rays A color television tube generates some X-rays when its electron beam strikes the screen. What is the shortest wavelength of these X-rays, if a 30.0-kV potential is used to accelerate the electrons? (Note that TVs have shielding to prevent these X-rays from exposing viewers.)
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Chapter 8: Problem 78 University Physics, Volume 3 17Atomic Spectra and X-rays An X-ray tube has an applied voltage of 100 kV. (a) What is the most energetic X-ray photon it can produce? Express your answer in electron volts and joules. (b) Find the wavelength of such an X-ray.
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Chapter 8: Problem 79 University Physics, Volume 3 17Atomic Spectra and X-rays The maximum characteristic X-ray photon energy comes from the capture of a free electron into a K shell vacancy. What is this photon energy in keV for tungsten, assuming that the free electron has no initial kinetic energy?
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Chapter 8: Problem 80 University Physics, Volume 3 17Atomic Spectra and X-rays What are the approximate energies of the \(K_{\alpha}\) and \(K_{\beta}\) X-rays for copper? Text Transcription: K_alpha K_beta
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Chapter 8: Problem 81 University Physics, Volume 3 17Atomic Spectra and X-rays Compare the X-ray photon wavelengths for copper and gold.
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Chapter 8: Problem 82 University Physics, Volume 3 17Atomic Spectra and X-rays The approximate energies of the \(K_{\alpha} \text { and } K_{\beta}\) X-rays for copper are \(E_{K_{\alpha}}=8.00 \mathrm{keV}\) and \(E_{K_{\beta}}=9.48 \mathrm{keV}\), respectively. Determine the ratio of X-ray frequencies of gold to copper, then use this value to estimate the corresponding energies of \(K_{\alpha} \text { and } K_{\beta}\) X-rays for gold. Text Transcription: K_alpha and K_beta E_K_alpha=8.00 keV E_K_beta=9.48 keV
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Chapter 8: Problem 83 University Physics, Volume 3 17Lasers A carbon dioxide laser used in surgery emits infrared radiation with a wavelength of \(10.6 \mu \mathrm{m}\). In 1.00 ms, this laser raised the temperature of \(1.00 \mathrm{~cm}^{3}\) of flesh to \(100^{\circ} \mathrm{C}\) and evaporated it. (a) How many photons were required? You may assume that flesh has the same heat of vaporization as water. (b) What was the minimum power output during the flash? Text Transcription: 10.6 mu m 1.00 cm^3 100 degrees C
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Chapter 8: Problem 84 University Physics, Volume 3 17Lasers An excimer laser used for vision correction emits UV radiation with a wavelength of 193 nm. (a) Calculate the photon energy in eV. (b) These photons are used to evaporate corneal tissue, which is very similar to water in its properties. Calculate the amount of energy needed per molecule of water to make the phase change from liquid to gas. That is, divide the heat of vaporization in kJ/kg by the number of water molecules in a kilogram. (c) Convert this to eV and compare to the photon energy. Discuss the implications.
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Chapter 8: Problem 94 University Physics, Volume 3 17The valence electron of chlorine is excited to a 3pstate. (a) What is the magnitude of the electron’s orbital angular momentum? (b) What are possible values for the z-component of angular measurement?
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Chapter 8: Problem 95 University Physics, Volume 3 17Which of the following notations are allowed (that is, which violate none of the rules regarding values of quantum numbers)? (a) \(1 s^{1}\) (b) \(1 d^{3}\) (c) \(4 s^{2}\) (d) \(3 p^{7}\) (e) \(6 h^{20}\) Text Transcription: 1s^1 1d^3 4s^2 3p^7 6h^20
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Chapter 8: Problem 96 University Physics, Volume 3 17The ion \(\mathrm{Be}^{3+}\) makes an atomic transition from an n = 3 state to an n = 2 state. (a) What is the energy of the photon emitted during the transition? (b) What is the wavelength of the photon? Text Transcription: Be^3+
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Chapter 8: Problem 97 University Physics, Volume 3 17The maximum characteristic X-ray photon energy comes from the capture of a free electron into a K shell vacancy. What is this photon frequency for tungsten, assuming that the free electron has no initial kinetic energy?
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Chapter 8: Problem 98 University Physics, Volume 3 17Derive an expression for the ratio of X-ray photon frequency for two elements with atomic numbers \(Z_{1} \text { and } Z_{2}\). Text Transcription: Z_1 and Z_2
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Chapter 8: Problem 99 University Physics, Volume 3 17Compare the X-ray photon wavelengths for copper and silver.
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Chapter 8: Problem 100 University Physics, Volume 3 17(a) What voltage must be applied to an X-ray tube to obtain 0.0100-fm-wavelength X-rays for use in exploring the details of nuclei? (b) What is unreasonable about this result? (c) Which assumptions are unreasonable or inconsistent?
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Chapter 8: Problem 101 University Physics, Volume 3 17A student in a physics laboratory observes a hydrogen spectrum with a diffraction grating for the purpose of measuring the wavelengths of the emitted radiation. In the spectrum, she observes a yellow line and finds its wavelength to be 589 nm. (a) Assuming that this is part of the Balmer series, determine \(n_{i}\) the principal quantum number of the initial state. (b) What is unreasonable about this result? (c) Which assumptions are unreasonable or Inconsistent? Text Transcription: n_i
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