(a) How much heat transfer occurs from 20.0 kg of 9 0.0 ° C water placed in contact with 20.0 kg of 1 0.0 ° C water, producing a final temperature of 5 0.0 ° C ? (b) How much work could a Carnot engine do with this heat transfer, assuming it operates between two reservoirs at constant temperatures of 9 0.0 ° C and 1 0.0 ° C ? (c) What increase in entropy is produced by mixing 20.0 kg of 9 0.0 ° C water with 20.0 kg of 1 0.0 ° C water? (d) Calculate the amount of work made unavailable by this mixing using a low temperature of 1 0.0 ° C , and compare it with the work done by the Garnet engine. Explicitly show how you follow the steps in the Problem-Solving Strategies for Entropy. (e) Discuss how everyday processes make increasingly more energy unavailable to do work, as implied by this problem.
(a) How much heat transfer occurs from 20.0 kg of 9 0.0 ° C water placed in contact with 20.0 kg of 1 0.0 ° C water, producing a final temperature of 5 0.0 ° C ? (b) How much work could a Carnot engine do with this heat transfer, assuming it operates between two reservoirs at constant temperatures of 9 0.0 ° C and 1 0.0 ° C ? (c) What increase in entropy is produced by mixing 20.0 kg of 9 0.0 ° C water with 20.0 kg of 1 0.0 ° C water? (d) Calculate the amount of work made unavailable by this mixing using a low temperature of 1 0.0 ° C , and compare it with the work done by the Garnet engine. Explicitly show how you follow the steps in the Problem-Solving Strategies for Entropy. (e) Discuss how everyday processes make increasingly more energy unavailable to do work, as implied by this problem.
(a) How much heat transfer occurs from 20.0 kg of
9
0.0
°
C
water placed in contact with 20.0 kg of
1
0.0
°
C
water, producing a final temperature of
5
0.0
°
C
? (b) How much work could a Carnot engine do with this heat transfer, assuming it operates between two reservoirs at constant temperatures of
9
0.0
°
C
and
1
0.0
°
C
? (c) What increase in entropy is produced by mixing 20.0 kg of
9
0.0
°
C
water with 20.0 kg of
1
0.0
°
C
water? (d) Calculate the amount of work made unavailable by this mixing using a low temperature of
1
0.0
°
C
, and compare it with the work done by the Garnet engine. Explicitly show how you follow the steps in the Problem-Solving Strategies for Entropy. (e) Discuss how everyday processes make increasingly more energy unavailable to do work, as implied by this problem.
Describe the development of rational choice theory in sociology.
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A-E please
A 11.8 L gas tank containing 3.90 moles of ideal
He gas at 26.0°C is placed inside a completely
evacuated insulated bell jar of volume 39.0 L .A
small hole in the tank allows the He to leak out into
the jar until the gas reaches a final equilibrium state
with no more leakage.
Part A
What is the change in entropy of this system due to the leaking of the gas?
■
ΜΕ ΑΣΦ
AS =
?
J/K
Submit
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Part B
Is the process reversible or irreversible?
Physics for Scientists and Engineers: A Strategic Approach, Vol. 1 (Chs 1-21) (4th Edition)
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The Second Law of Thermodynamics: Heat Flow, Entropy, and Microstates; Author: Professor Dave Explains;https://www.youtube.com/watch?v=MrwW4w2nAMc;License: Standard YouTube License, CC-BY