Deck 32: Ionizing Radiation, Nuclear Energy, and Elementary Particles

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Question
A 75-kg worker is accidentally exposed to a 44-rad dose of gamma radiation. How much energy does the worker absorb?

A)25 J
B)17 J
C)74 J
D)59 J
E)33 J
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Question
A biological tissue is irradiated with neutrons. The biologically equivalent dose of the neutrons is 2.6 × 102 rem. Determine the RBE of the neutrons if the absorbed dose is 130 rd.

A)0.5
B)2.0
C)4.0
D)5.0
E)25
Question
A particular nuclear fission reaction produces 1.50 × 102 MeV per fission. How many fissions per second are required to generate 3.00 × 108 W of power?

A)2.00 × 1016
B)5.25 × 1017
C)3.20 × 1018
D)1.25 × 1019
E)6.02 × 1023
Question
Which source of radiation contributes most to the average biological equivalent dose received by a United States resident?

A)radon gas
B)cosmic rays
C)consumer products
D)medical diagnostics
E)internal radioactive nuclei
Question
Complete the following statement: The average biologically equivalent dose of radiation from consumer products received by a resident of the United States is about

A)10 mrem/yr.
B)15 mrem/yr.
C)20 mrem/yr.
D)50 mrem/yr.
E)200 mrem/yr.
Question
What radiation absorbed dose of slow neutrons (RBE = 2.5) is equivalent to a dose of 35.0 rad of fast neutrons (RBE = 9.0)?

A)9.7 rad
B)130 rad
C)160 rad
D)260 rad
E)320 rad
Question
Which one of the following quantities is not necessarily conserved in nuclear reactions?

A)electric charge
B)number of protons
C)linear momentum
D)angular momentum
E)number of protons and neutrons
Question
Determine the atomic number Z and the nucleon number A in the following reaction: <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> . <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
What is the importance of thermal neutrons in nuclear processes?

A)Thermal neutron capture results in uranium fission.
B)Thermal neutrons are released in radioactive decay.
C)Thermal neutrons are necessary in the fusion of deuterium.
D)Thermal neutrons are commonly released in fusion reactions.
E)Thermal neutrons are sources of gamma rays.
Question
A radiologist absorbs 4.0 × 10-5 J of radiation. Determine the absorbed dose if his mass is 74.0 kg.

A)3.8 × 10-7 Gy
B)6.3 × 10-7 Gy
C)5.4 × 10-7 Gy
D)4.6 × 10-7 Gy
E)5.1 × 10-7 Gy
Question
The first induced nuclear reaction,  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV <div style=padding-top: 35px>  , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV <div style=padding-top: 35px>  = 14.003 074 u,  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV <div style=padding-top: 35px>  = 16.999 133 u, α\alpha = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.

A)1.193 MeV
B)3.338 MeV
C)6.603 MeV
D)15.08 MeV
E)27.91 MeV
Question
Complete the following statement: The term ionizing radiation does not apply to

A)alpha particles.
B)electrons.
C)X-ray photons.
D)positrons.
E)radio photons.
Question
What absorbed dose of protons with an RBE of 17 will cause the same damage to biological tissue as a 200 rd dose of neutrons that have an RBE of 2.6?

A)3.8 rd
B)12 rd
C)26 rd
D)52 rd
E)520 rd
Question
A beam of 4.5-MeV neutrons is directed at a 0.030-kg tissue sample. Each second, 1.5 × 106 neutrons strike the sample. If the relative biological effectiveness of these neutrons is 7.0, what biologically equivalent dose (in rem) is received by the sample in 65 seconds?

A)0.23 rem
B)0.55 rem
C)1.6 rem
D)19 rem
E)33 rem
Question
A physicist wishes to measure the exposure of a beam of gamma rays. The beam is passed through 2.00 × 10-2 kg of dry air at STP. The beam produces positive ions in the air which have a total charge of 3.87 × 10-6 C. What is the exposure (in roentgens) of the beam?

A)7.74 × 10-8 R
B)1.94 × 10-4 R
C)3.25 × 10-2 R
D)0.750 R
E)1.25 R
Question
A medical researcher wishes to compare the tissue damage produced by slow neutrons, which have a relative biological effectiveness (RBE) of 2.2, to that produced by fast neutrons with an RBE of 8.8. For the slow neutrons, the absorbed dose is 560 rd. What absorbed dose (in rd) of fast neutrons will produce the same biologically equivalent dose (in rem) as that for the slow neutrons?

A)140 rd
B)29 rd
C)560 rd
D)310 rd
E)2240 rd
Question
In the induced nuclear reaction, <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?
<strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Which one of the following processes causes the explosion of a nuclear bomb?

A)beta decay
B)alpha decay
C)moderation
D)photon absorption
E)chain reaction
Question
Which one of the following energy values would be characteristic of a thermal neutron?

A)0.03 eV
B)0.4 eV
C)3 eV
D)100 eV
E)0.04 MeV
Question
A single, whole-body dose of 450 rem is considered a lethal dose for approximately fifty percent of all individuals receiving such a dose. If a 62-kg person were exposed to such a dose of radiation that has an RBE of 0.845, how much energy has the person absorbed?

A)480 J
B)5.3 J
C)75 J
D)120 J
E)330 J
Question
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV <div style=padding-top: 35px> where <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV <div style=padding-top: 35px> = 4.002 603 u and <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV <div style=padding-top: 35px> = 12.000 000 u.

A)2.27 MeV
B)3.01 MeV
C)3.73 MeV
D)4.37 MeV
E)7.27 MeV
Question
Note the forces:
(1) weak nuclear force
(2) strong nuclear force
(3) gravitational force
(4) electromagnetic force
Through which force(s) can leptons interact?

A)only 1
B)only 2
C)only 1 and 2
D)only 2, 3 and 4
E)only 1, 3, and 4
Question
How many members are in the photon family?

A)1
B)2
C)3
D)4
E)5
Question
Which one of the following particles is not a baryon?

A)proton
B)neutron
C)pion
D)sigma particle
E)lambda particle
Question
Which one of the following statements is true concerning the proton?

A)The proton cannot be further subdivided.
B)The proton is composed of two up quarks and a down quark.
C)The proton is composed of two down quarks and an up quark.
D)The proton is composed of a down quark and an up antiquark.
E)The proton is composed of an up quark and a down antiquark.
Question
Which one of the following particles is not composed of quarks?

A)neutron
B)muon
C)pion
D)kaon
E)proton
Question
Which one of the following statements concerning pions is true?

A)They are stable particles.
B)They belong to the lepton family.
C)They are composed of three quarks.
D)They only exist in two charge states.
E)They interact with protons via the strong interaction.
Question
Which one of the following names is not one that is used to name quarks?

A)charm
B)top
C)strange
D)exotic
E)down
Question
What is the function of the moderator in a fission reactor?

A)The moderator absorbs gamma rays.
B)The moderator absorbs slow neutrons.
C)The moderator decreases the speeds of fast neutrons.
D)The moderator prevents heat loss from the reactor core.
E)The moderator prevents the reactor from reaching a critical state.
Question
What is the antiparticle of an electron?

A) π\pi +
B)v+
C)electron (self)
D)photon
E) β\beta +
Question
Which one of the following statements is true concerning the reaction <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. <div style=padding-top: 35px> where <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. <div style=padding-top: 35px> has a mass of 2.014 u; <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. <div style=padding-top: 35px> has a mass of 4.003 u; <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. <div style=padding-top: 35px> has a mass of 6.015 u; and 1 u = 931.5 MeV?

A)The reaction releases 14 MeV.
B)The reaction releases 21 MeV.
C)The reaction releases 36 MeV.
D)The reaction requires 14 MeV to occur.
E)The reaction requires 21 MeV to occur.
Question
One of the nuclear fusion reactions that occurs in stars is: <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV <div style=padding-top: 35px> where the masses are <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV <div style=padding-top: 35px> = 20.993 849 u; <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV <div style=padding-top: 35px> = 4.002 603 u; <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV <div style=padding-top: 35px> = 23.985 042 u; and <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV <div style=padding-top: 35px> = 1.008 665 u. How much energy is released in this reaction?

A)2.557 MeV
B)4.572 MeV
C)6.452 MeV
D)8.493 MeV
E)9.370 MeV
Question
A nuclear reactor continuously generates 150 MW of power through the fissioning of uranium. Suppose that each fission releases 190 MeV. If one mole of uranium (6.023 × 1023 nuclei) has a mass of 0.235 kg, what mass of uranium has undergone fission in a 4.0 day period?

A)0.33 kg
B)0.67 kg
C)1.3 kg
D)2.6 kg
E)5.2 kg
Question
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV <div style=padding-top: 35px> . Use the following information for your calculation: <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV <div style=padding-top: 35px> has a mass of 2.014 102 u, <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV <div style=padding-top: 35px> has a mass of 4.002 603 u, and 1 u = 931.5 MeV.

A)0.20 MeV
B)11.9 MeV
C)23.8 MeV
D)257 MeV
E)7480 MeV
Question
How many neutrons are produced in the following reaction: <strong>How many neutrons are produced in the following reaction:  </strong> A)11 B)12 C)22 D)24 E)48 <div style=padding-top: 35px>

A)11
B)12
C)22
D)24
E)48
Question
Which one of the following statements is the best explanation as to why nuclear fusion is not at present used to generate electric power?

A)Fusion produces too much radiation.
B)Fusion requires isotopes that are scarce.
C)Fusion processes can result in nuclear explosions.
D)Fusion results in large amounts of radioactive waste.
E)Fusion requires very high temperatures that are difficult to contain.
Question
In the medical diagnostic technique known as positron emission tomography (PET), a positron and an electron annihilate each other and two γ\gamma -ray photons are emitted. What is the angle between the momentum vectors of the two photons?

A)zero degrees
B)45°
C)90°
D)180°
E)Any angle is possible.
Question
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   where the masses are  </strong> A)2.02 eV B)4.03 eV C)2.02 MeV D)4.03 MeV E)8.00 MeV <div style=padding-top: 35px> where the masses are <strong>Determine the amount of energy released in the following reaction:   where the masses are  </strong> A)2.02 eV B)4.03 eV C)2.02 MeV D)4.03 MeV E)8.00 MeV <div style=padding-top: 35px>

A)2.02 eV
B)4.03 eV
C)2.02 MeV
D)4.03 MeV
E)8.00 MeV
Question
How many kilowatt . hours of energy are released from 25 g of deuterium <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh <div style=padding-top: 35px> fuel in the fusion reaction: <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh <div style=padding-top: 35px> where the masses are <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh <div style=padding-top: 35px> = 2.014 102 u and <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh <div style=padding-top: 35px> = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray.
Conversion factors: 1 kWh = 3.600 × 106 J; 1 eV = 1.602 × 10-19 J.

A)1 × 106 kWh
B)2 × 106 kWh
C)3 × 106 kWh
D)4 × 106 kWh
E)5 × 106 kWh
Question
Which one of the following particles is not a member of the hadron family?

A)pion
B)neutron
C)muon
D)kaon
E)proton
Question
Consider the nuclear reaction <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u <div style=padding-top: 35px> and the masses: <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u <div style=padding-top: 35px> = 235.0439 u; <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u <div style=padding-top: 35px> = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.

A)38.970 u
B)39.962 u
C)40.962 u
D)84.589 u
E)139.905 u
Question
Which one of the following statements about the standard model is false?

A)The weak nuclear force and the electromagnetic force are manifestations of a more fundamental interaction called the electroweak interaction.
B)The strong nuclear force between quarks is described in terms of the concept of color.
C)The standard model provides an explanation for the strong nuclear and weak nuclear forces.
D)The gravitational force and the strong nuclear force are manifestations of a more fundamental interaction called the quark interaction.
E)Nucleons are composed of quarks.
Question
Astronomers studying the light from calcium atoms located in a galaxy in the constellation Boötes find that the spectral lines are shifted toward the red end of the spectrum. The redshift indicates that the galaxy is moving away at a speed of 3.9 × 106 m/s. What is the distance (in light . years) to the galaxy?

A)4.7 × 109 light . years
B)2.3 × 108 light .years
C)1.1 × 107 light . years
D)8.4 × 106 light . years
E)6.6 × 104 light . years
Question
Which one of the following statements concerning the standard cosmological model is false?

A)Shortly after the Big Bang, all of the fundamental forces behaved as a single force.
B)About 0.5 million years after the Big Bang, hydrogen and helium atoms began to form.
C)The first distinguishable particles in existence after the Big Bang were quarks and leptons.
D)The Grand Unified Theory describes the universe immediately before and shortly after the Big Bang.
E)At 10-43 s after the Big Bang, the gravitational force was distinguishable from the other fundamental forces.
Question
Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct? <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
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Deck 32: Ionizing Radiation, Nuclear Energy, and Elementary Particles
1
A 75-kg worker is accidentally exposed to a 44-rad dose of gamma radiation. How much energy does the worker absorb?

A)25 J
B)17 J
C)74 J
D)59 J
E)33 J
33 J
2
A biological tissue is irradiated with neutrons. The biologically equivalent dose of the neutrons is 2.6 × 102 rem. Determine the RBE of the neutrons if the absorbed dose is 130 rd.

A)0.5
B)2.0
C)4.0
D)5.0
E)25
2.0
3
A particular nuclear fission reaction produces 1.50 × 102 MeV per fission. How many fissions per second are required to generate 3.00 × 108 W of power?

A)2.00 × 1016
B)5.25 × 1017
C)3.20 × 1018
D)1.25 × 1019
E)6.02 × 1023
1.25 × 1019
4
Which source of radiation contributes most to the average biological equivalent dose received by a United States resident?

A)radon gas
B)cosmic rays
C)consumer products
D)medical diagnostics
E)internal radioactive nuclei
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5
Complete the following statement: The average biologically equivalent dose of radiation from consumer products received by a resident of the United States is about

A)10 mrem/yr.
B)15 mrem/yr.
C)20 mrem/yr.
D)50 mrem/yr.
E)200 mrem/yr.
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6
What radiation absorbed dose of slow neutrons (RBE = 2.5) is equivalent to a dose of 35.0 rad of fast neutrons (RBE = 9.0)?

A)9.7 rad
B)130 rad
C)160 rad
D)260 rad
E)320 rad
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7
Which one of the following quantities is not necessarily conserved in nuclear reactions?

A)electric charge
B)number of protons
C)linear momentum
D)angular momentum
E)number of protons and neutrons
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8
Determine the atomic number Z and the nucleon number A in the following reaction: <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)   . <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)

A) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)
B) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)
C) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)
D) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)
E) <strong>Determine the atomic number Z and the nucleon number A in the following reaction:   .  </strong> A)   B)   C)   D)   E)
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9
What is the importance of thermal neutrons in nuclear processes?

A)Thermal neutron capture results in uranium fission.
B)Thermal neutrons are released in radioactive decay.
C)Thermal neutrons are necessary in the fusion of deuterium.
D)Thermal neutrons are commonly released in fusion reactions.
E)Thermal neutrons are sources of gamma rays.
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10
A radiologist absorbs 4.0 × 10-5 J of radiation. Determine the absorbed dose if his mass is 74.0 kg.

A)3.8 × 10-7 Gy
B)6.3 × 10-7 Gy
C)5.4 × 10-7 Gy
D)4.6 × 10-7 Gy
E)5.1 × 10-7 Gy
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11
The first induced nuclear reaction,  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV  , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV  = 14.003 074 u,  <strong>The first induced nuclear reaction,   , in a laboratory was studied by Rutherford in 1919. How much energy is absorbed in this reaction if the atomic masses are:   = 14.003 074 u,   = 16.999 133 u,  \alpha  = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.</strong> A)1.193 MeV B)3.338 MeV C)6.603 MeV D)15.08 MeV E)27.91 MeV  = 16.999 133 u, α\alpha = 4.002 603 u, and p = 1.007 825 u? Note: 1 u = 931.5 MeV.

A)1.193 MeV
B)3.338 MeV
C)6.603 MeV
D)15.08 MeV
E)27.91 MeV
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12
Complete the following statement: The term ionizing radiation does not apply to

A)alpha particles.
B)electrons.
C)X-ray photons.
D)positrons.
E)radio photons.
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13
What absorbed dose of protons with an RBE of 17 will cause the same damage to biological tissue as a 200 rd dose of neutrons that have an RBE of 2.6?

A)3.8 rd
B)12 rd
C)26 rd
D)52 rd
E)520 rd
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14
A beam of 4.5-MeV neutrons is directed at a 0.030-kg tissue sample. Each second, 1.5 × 106 neutrons strike the sample. If the relative biological effectiveness of these neutrons is 7.0, what biologically equivalent dose (in rem) is received by the sample in 65 seconds?

A)0.23 rem
B)0.55 rem
C)1.6 rem
D)19 rem
E)33 rem
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15
A physicist wishes to measure the exposure of a beam of gamma rays. The beam is passed through 2.00 × 10-2 kg of dry air at STP. The beam produces positive ions in the air which have a total charge of 3.87 × 10-6 C. What is the exposure (in roentgens) of the beam?

A)7.74 × 10-8 R
B)1.94 × 10-4 R
C)3.25 × 10-2 R
D)0.750 R
E)1.25 R
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16
A medical researcher wishes to compare the tissue damage produced by slow neutrons, which have a relative biological effectiveness (RBE) of 2.2, to that produced by fast neutrons with an RBE of 8.8. For the slow neutrons, the absorbed dose is 560 rd. What absorbed dose (in rd) of fast neutrons will produce the same biologically equivalent dose (in rem) as that for the slow neutrons?

A)140 rd
B)29 rd
C)560 rd
D)310 rd
E)2240 rd
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17
In the induced nuclear reaction, <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?
<strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)

A) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)
B) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)
C) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)
D) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)
E) <strong>In the induced nuclear reaction,   , the reaction produces neon in an excited state, which subsequently decays into a nucleus X and a particle Y. Which one of the following X and Y pairs is not possible?  </strong> A)   B)   C)   D)   E)
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18
Which one of the following processes causes the explosion of a nuclear bomb?

A)beta decay
B)alpha decay
C)moderation
D)photon absorption
E)chain reaction
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19
Which one of the following energy values would be characteristic of a thermal neutron?

A)0.03 eV
B)0.4 eV
C)3 eV
D)100 eV
E)0.04 MeV
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20
A single, whole-body dose of 450 rem is considered a lethal dose for approximately fifty percent of all individuals receiving such a dose. If a 62-kg person were exposed to such a dose of radiation that has an RBE of 0.845, how much energy has the person absorbed?

A)480 J
B)5.3 J
C)75 J
D)120 J
E)330 J
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21
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV where <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV = 4.002 603 u and <strong>Determine the amount of energy released in the following reaction:   where   = 4.002 603 u and   = 12.000 000 u.</strong> A)2.27 MeV B)3.01 MeV C)3.73 MeV D)4.37 MeV E)7.27 MeV = 12.000 000 u.

A)2.27 MeV
B)3.01 MeV
C)3.73 MeV
D)4.37 MeV
E)7.27 MeV
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22
Note the forces:
(1) weak nuclear force
(2) strong nuclear force
(3) gravitational force
(4) electromagnetic force
Through which force(s) can leptons interact?

A)only 1
B)only 2
C)only 1 and 2
D)only 2, 3 and 4
E)only 1, 3, and 4
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23
How many members are in the photon family?

A)1
B)2
C)3
D)4
E)5
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24
Which one of the following particles is not a baryon?

A)proton
B)neutron
C)pion
D)sigma particle
E)lambda particle
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25
Which one of the following statements is true concerning the proton?

A)The proton cannot be further subdivided.
B)The proton is composed of two up quarks and a down quark.
C)The proton is composed of two down quarks and an up quark.
D)The proton is composed of a down quark and an up antiquark.
E)The proton is composed of an up quark and a down antiquark.
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26
Which one of the following particles is not composed of quarks?

A)neutron
B)muon
C)pion
D)kaon
E)proton
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27
Which one of the following statements concerning pions is true?

A)They are stable particles.
B)They belong to the lepton family.
C)They are composed of three quarks.
D)They only exist in two charge states.
E)They interact with protons via the strong interaction.
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28
Which one of the following names is not one that is used to name quarks?

A)charm
B)top
C)strange
D)exotic
E)down
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29
What is the function of the moderator in a fission reactor?

A)The moderator absorbs gamma rays.
B)The moderator absorbs slow neutrons.
C)The moderator decreases the speeds of fast neutrons.
D)The moderator prevents heat loss from the reactor core.
E)The moderator prevents the reactor from reaching a critical state.
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30
What is the antiparticle of an electron?

A) π\pi +
B)v+
C)electron (self)
D)photon
E) β\beta +
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31
Which one of the following statements is true concerning the reaction <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. where <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. has a mass of 2.014 u; <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. has a mass of 4.003 u; <strong>Which one of the following statements is true concerning the reaction   where   has a mass of 2.014 u;   has a mass of 4.003 u;   has a mass of 6.015 u; and 1 u = 931.5 MeV?</strong> A)The reaction releases 14 MeV. B)The reaction releases 21 MeV. C)The reaction releases 36 MeV. D)The reaction requires 14 MeV to occur. E)The reaction requires 21 MeV to occur. has a mass of 6.015 u; and 1 u = 931.5 MeV?

A)The reaction releases 14 MeV.
B)The reaction releases 21 MeV.
C)The reaction releases 36 MeV.
D)The reaction requires 14 MeV to occur.
E)The reaction requires 21 MeV to occur.
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32
One of the nuclear fusion reactions that occurs in stars is: <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV where the masses are <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV = 20.993 849 u; <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV = 4.002 603 u; <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV = 23.985 042 u; and <strong>One of the nuclear fusion reactions that occurs in stars is:   where the masses are   = 20.993 849 u;   = 4.002 603 u;   = 23.985 042 u; and   = 1.008 665 u. How much energy is released in this reaction?</strong> A)2.557 MeV B)4.572 MeV C)6.452 MeV D)8.493 MeV E)9.370 MeV = 1.008 665 u. How much energy is released in this reaction?

A)2.557 MeV
B)4.572 MeV
C)6.452 MeV
D)8.493 MeV
E)9.370 MeV
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33
A nuclear reactor continuously generates 150 MW of power through the fissioning of uranium. Suppose that each fission releases 190 MeV. If one mole of uranium (6.023 × 1023 nuclei) has a mass of 0.235 kg, what mass of uranium has undergone fission in a 4.0 day period?

A)0.33 kg
B)0.67 kg
C)1.3 kg
D)2.6 kg
E)5.2 kg
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34
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV . Use the following information for your calculation: <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV has a mass of 2.014 102 u, <strong>Determine the amount of energy released in the following reaction:   . Use the following information for your calculation:   has a mass of 2.014 102 u,   has a mass of 4.002 603 u, and 1 u = 931.5 MeV.</strong> A)0.20 MeV B)11.9 MeV C)23.8 MeV D)257 MeV E)7480 MeV has a mass of 4.002 603 u, and 1 u = 931.5 MeV.

A)0.20 MeV
B)11.9 MeV
C)23.8 MeV
D)257 MeV
E)7480 MeV
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35
How many neutrons are produced in the following reaction: <strong>How many neutrons are produced in the following reaction:  </strong> A)11 B)12 C)22 D)24 E)48

A)11
B)12
C)22
D)24
E)48
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36
Which one of the following statements is the best explanation as to why nuclear fusion is not at present used to generate electric power?

A)Fusion produces too much radiation.
B)Fusion requires isotopes that are scarce.
C)Fusion processes can result in nuclear explosions.
D)Fusion results in large amounts of radioactive waste.
E)Fusion requires very high temperatures that are difficult to contain.
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37
In the medical diagnostic technique known as positron emission tomography (PET), a positron and an electron annihilate each other and two γ\gamma -ray photons are emitted. What is the angle between the momentum vectors of the two photons?

A)zero degrees
B)45°
C)90°
D)180°
E)Any angle is possible.
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38
Determine the amount of energy released in the following reaction: <strong>Determine the amount of energy released in the following reaction:   where the masses are  </strong> A)2.02 eV B)4.03 eV C)2.02 MeV D)4.03 MeV E)8.00 MeV where the masses are <strong>Determine the amount of energy released in the following reaction:   where the masses are  </strong> A)2.02 eV B)4.03 eV C)2.02 MeV D)4.03 MeV E)8.00 MeV

A)2.02 eV
B)4.03 eV
C)2.02 MeV
D)4.03 MeV
E)8.00 MeV
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39
How many kilowatt . hours of energy are released from 25 g of deuterium <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh fuel in the fusion reaction: <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh where the masses are <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh = 2.014 102 u and <strong>How many kilowatt . hours of energy are released from 25 g of deuterium   fuel in the fusion reaction:   where the masses are   = 2.014 102 u and   = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray. Conversion factors: 1 kWh = 3.600 × 10<sup>6</sup> J; 1 eV = 1.602 × 10<sup>-</sup><sup>19</sup> J.</strong> A)1 × 10<sup>6</sup> kWh B)2 × 10<sup>6</sup> kWh C)3 × 10<sup>6</sup> kWh D)4 × 10<sup>6</sup> kWh E)5 × 10<sup>6</sup> kWh = 4.002 603 u. Notes: Ignore the energy carried off by the gamma ray.
Conversion factors: 1 kWh = 3.600 × 106 J; 1 eV = 1.602 × 10-19 J.

A)1 × 106 kWh
B)2 × 106 kWh
C)3 × 106 kWh
D)4 × 106 kWh
E)5 × 106 kWh
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40
Which one of the following particles is not a member of the hadron family?

A)pion
B)neutron
C)muon
D)kaon
E)proton
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41
Consider the nuclear reaction <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u and the masses: <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u = 235.0439 u; <strong>Consider the nuclear reaction   and the masses:   = 235.0439 u;   = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.</strong> A)38.970 u B)39.962 u C)40.962 u D)84.589 u E)139.905 u = 93.9063 u; n = 1.008 67 u. If 208.66 MeV of energy is released in this reaction, determine the mass of X.

A)38.970 u
B)39.962 u
C)40.962 u
D)84.589 u
E)139.905 u
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42
Which one of the following statements about the standard model is false?

A)The weak nuclear force and the electromagnetic force are manifestations of a more fundamental interaction called the electroweak interaction.
B)The strong nuclear force between quarks is described in terms of the concept of color.
C)The standard model provides an explanation for the strong nuclear and weak nuclear forces.
D)The gravitational force and the strong nuclear force are manifestations of a more fundamental interaction called the quark interaction.
E)Nucleons are composed of quarks.
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43
Astronomers studying the light from calcium atoms located in a galaxy in the constellation Boötes find that the spectral lines are shifted toward the red end of the spectrum. The redshift indicates that the galaxy is moving away at a speed of 3.9 × 106 m/s. What is the distance (in light . years) to the galaxy?

A)4.7 × 109 light . years
B)2.3 × 108 light .years
C)1.1 × 107 light . years
D)8.4 × 106 light . years
E)6.6 × 104 light . years
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44
Which one of the following statements concerning the standard cosmological model is false?

A)Shortly after the Big Bang, all of the fundamental forces behaved as a single force.
B)About 0.5 million years after the Big Bang, hydrogen and helium atoms began to form.
C)The first distinguishable particles in existence after the Big Bang were quarks and leptons.
D)The Grand Unified Theory describes the universe immediately before and shortly after the Big Bang.
E)At 10-43 s after the Big Bang, the gravitational force was distinguishable from the other fundamental forces.
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45
Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct? <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)

A) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)
B) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)
C) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)
D) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)
E) <strong>Nucleus A has Z protons and N neutrons. Nucleus B has 2Z protons and 2N neutrons. Nucleus A has a smaller binding energy per nucleon than B. Which entry in the table below is correct?  </strong> A)   B)   C)   D)   E)
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