At the microscopic level heat conduction is a chain of collisions by particles of different kinetic energies. Suppose a heat interaction occurs between a hot object of 80 °C and a cool object of 10 °C, and the primary energy transfer mechanism is heat conduction. If the interaction continues long enough, how will the average kinetic energy of the particles in the (initially) hot object compare to the average kinetic energy of the particles in the (initially) cool object? a. The average KE of the hot object particles will be greater than the average KE of the cool object particles. b. The average KE of the hot object particles will be the same as the average KE of the cool object particles. c. There is no way to determine the correct answer.

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At the microscopic level heat conduction is a chain of collisions by
particles of different kinetic energies. Suppose a heat interaction
occurs between a hot object of 80 °C and a cool object of 10 °C,
and the primary energy transfer mechanism is heat conduction. If
the interaction continues long enough, how will the average
kinetic energy of the particles in the (initially) hot object compare
to the average kinetic energy of the particles in the (initially) cool
object?
a. The average KE of the hot object particles will be greater than
the average KE of the cool object particles.
b. The average KE of the hot object particles will be the same as
the average KE of the cool object particles.
c. There is no way to determine the correct answer.
Transcribed Image Text:At the microscopic level heat conduction is a chain of collisions by particles of different kinetic energies. Suppose a heat interaction occurs between a hot object of 80 °C and a cool object of 10 °C, and the primary energy transfer mechanism is heat conduction. If the interaction continues long enough, how will the average kinetic energy of the particles in the (initially) hot object compare to the average kinetic energy of the particles in the (initially) cool object? a. The average KE of the hot object particles will be greater than the average KE of the cool object particles. b. The average KE of the hot object particles will be the same as the average KE of the cool object particles. c. There is no way to determine the correct answer.
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