Chapter 6: Q8CP (page 233)
In the preceding example, what fraction of the original neutron’s rest energy was converted into kinetic energy?
Short Answer
Fraction of the original neutron's rest energy that was converted into kinetic energy is .
Chapter 6: Q8CP (page 233)
In the preceding example, what fraction of the original neutron’s rest energy was converted into kinetic energy?
Fraction of the original neutron's rest energy that was converted into kinetic energy is .
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Get started for freeFigure 6.76 shows the path of a comet orbiting a star.
(a) Rank-order the locations on the path in terms of the magnitude of the comet’s momentum at each location, starting with the location at which the magnitude of the momentum is the largest. (b) Rank-order the locations on the path in terms of the comet’s kinetic energy at each location, starting with the location at which the kinetic energy is the largest. (c) Rank-order the locations on the path in terms of the potential energy of the system at each location, largest first. (d) Rank-order the locations on the path in terms of the sum of the kinetic energy and the potential energy of the system at each location, largest first
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The point of this question is to compare rest energy and kinetic energy at high speeds. An alpha particle (a helium nucleus) is moving at a speed of times the speed of light. Its mass is (a) what is its rest energy? (b) Is it okay to calculate its kinetic energy using the expression?(c) What is its kinetic energy? (d) Which is true? A. the kinetic energy is approximately equal to the rest energy. B. The kinetic energy is much bigger than the rest energy. C. The kinetic energy is much smaller than the rest energy.
Jack & Jill are maneuvering a boat near a dock. Initially the boat’s position is and its speed is 1.3m/s . As the boat moves to position (4,0,2). Jack exerts a force (-400, 0, 200) N and Jill exert a force and Jill exert a force (150,0,300)N . (a) How much work does jack do? (b) How much work does Jill do? (c) Without doing any calculations, say what is the angle between the (vector) force that Jill exert, and the (vector) velocity of the boat. Explain briefly how you know this (d) Assuming that we can neglect the work done by the water on the boat, what is the final speed of the boat?
n electron is travelling at a speed of in an electron accelerator. An electric force of is applied in the direction of motion while the electron travels a distance of . What is the new speed of the electron?
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