Schaum's Outline of College Physics, Twelfth Edition (Schaum's Outlines)
12th Edition
ISBN: 9781259587399
Author: Eugene Hecht
Publisher: McGraw-Hill Education
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Chapter 20, Problem 43SP
The specific heat of air at constant volume is
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In a game of football outdoors on a cold day, a player will begin to feel exhausted after using approximately 8.0 x 10 J of internal
energy. (a) One player, dressed too lightly for the weather, has to leave the game after losing 7.0 x 10° Jof heat. How much work has he
done? (b) Another player, wearing clothes that offer better protection against heat loss, is able to remain in the game long enough to do
2.3x 105 J of work. What is the magnitude of the heat that he has lost?
(a) Number
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(b) Number
Units
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In a game of football outdoors on a cold day, a player will begin to feel exhausted after using approximately 8.0 × 105 J of internal
energy. (a) One player, dressed too lightly for the weather, has to leave the game after losing 6.7 x 105 J of heat. How much work has he
done? (b) Another player, wearing clothes that offer better protection against heat loss, is able to remain in the game long enough to do
2.1 x 105 J of work. What is the magnitude of the heat that he has lost?
(a) Number i
(b) Number i
Units
Units
In a game of football outdoors on a cold day, a player will begin to feel exhausted after using approximately 8.0 × 105 J of internal energy. (a) One player, dressed too lightly for the weather, has to leave the game after losing 6.7 × 105 J of heat. How much work has he done? (b) Another player, wearing clothes that offer better protection against heat loss, is able to remain in the game long enough to do 2.1 × 105 J of work. What is the magnitude of the heat that he has lost?
a:
b:
Chapter 20 Solutions
Schaum's Outline of College Physics, Twelfth Edition (Schaum's Outlines)
Ch. 20 - 21. A 2.0 kg metal block (c = 0.137 cal/g • °C) is...Ch. 20 - 22. By how much does the internal energy of 50 g...Ch. 20 - 23. A gas does 100.0 J of work while receiving...Ch. 20 - 24. A 10.0-kg block of lead is heated from 23.0 °C...Ch. 20 - Prob. 25SPCh. 20 - 20.26 [I] It is given that 1.000 g of water...Ch. 20 - 20.27 [I] With the previous problem in mind, what...Ch. 20 - 28. Molecular oxygen having a mass of 10.0 g is in...Ch. 20 - 20.29 [II] Molecular hydrogen gas having a mass of...Ch. 20 - 20.30 [I] A sealed chamber containing 32.5 g of...
Ch. 20 - 20.31 [II] A gas at a pressure of Pa occupies in...Ch. 20 - 32. An ideal heat engine operates between 405 K...Ch. 20 - 20.33 [II] A 70-g metal block moving at 200 cm/s...Ch. 20 - 34. If a certain mass of water falls a distance of...Ch. 20 - 20.35 [II] How many joules of heat per hour are...Ch. 20 - 20.36 [II] A 100-g bullet is initially at 20 °C....Ch. 20 - 20.37 [II] To determine the specific heat of an...Ch. 20 - 38. How much external work is done by an ideal gas...Ch. 20 - 20.39 [I] As 3.0 liters of ideal gas at 27 °C is...Ch. 20 - 20.40 [I] An ideal gas expands adiabatically to...Ch. 20 - 20.41 [I] An ideal gas expands at a constant...Ch. 20 - Prob. 42SPCh. 20 - 20.43 [II] The specific heat of air at constant...Ch. 20 - 20.44 [II] Water is boiled at 100 °C and 1.0 atm....Ch. 20 - 20.45 [II] The temperature of 3.0 kg of krypton...Ch. 20 - Prob. 46SPCh. 20 - 47. Compute the work done in an isothermal...Ch. 20 - 20.48 [II] Five moles of neon gas at 2.00 atm and...Ch. 20 - 20.50 [II] Find the net work output per cycle for...Ch. 20 - Prob. 51SPCh. 20 - 20.52 [II] Figure 20-6 is the diagram for 25.0 g...
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- When a gas undergoes an adiabatic expansion, which of the following statements is true? (a) The temperature of the gas does not change. (b) No work is done by the gas. (c) No energy is transferred to the gas by heat. (d) The internal energy of the gas does not change. (e) The pressure increases.arrow_forwardFor a temperature increase of 10 at constant volume, what is the heat absorbed by (a) 3.0 mol of a dilute monatomic gas; (b) 0.50 mol of a dilute diatomic gas; and (c) 15 mol of a dilute polyatomic gas?arrow_forwardThe insulated cylinder shown below is closed at both ends and contains an insulating piston that is flee to move on frictionless bearings. The piston divides the chamber into two compartments containing gases A and B. Originally, each compartment has a volume of 5.0102 m3 and contains a monatomic ideal gas at a temperature of and a pressure of 1.0 atm. (a) How many moles of gas are in each compartment? (b) Heat Q is slowly added to A so that it expands and B is compressed until the pressure of both gases is 3.0 atm. Use the fact that the compression of B is adiabatic to determine the final volume of both gases. (c) What are their final temperatures? (d) What is the value of Q?arrow_forward
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