I Review IC▼Part AA container holds 9 g of neon at a pressure of5.0 atm and a temperature of 15 °C.How much work must be done on the gas to reduce the volume by 50% in a constant-pressure process?Express your answer with the appropriate units.W, = ValueUnitsSubmitRequest AnswerPart BHow much work must be done on the gas to reduce the volume by 50% in a constant-temperature process?Express your answer with the appropriate units.HA

Review I C- Part A A container holds 9 g of neon at a pressure of 5.0 atm and a temperature of 15 °C. How much work must be done on the gas to reduce the volume by 50% in a constant-pressure process? Express your answer with the appropriate units. Wp = Value Units Submit Request Answer Part B How much work must be done on the gas to reduce the volume by 50% in a constant-temperature process? Express your answer with the appropriate units. HA

Review I C- Part A A container holds 9 g of neon at a pressure of 5.0 atm and a temperature of 15 °C. How much work must be done on the gas to reduce the volume by 50% in a constant-pressure process? Express your answer with the appropriate units. Wp = Value Units Submit Request Answer Part B How much work must be done on the gas to reduce the volume by 50% in a constant-temperature process? Express your answer with the appropriate units. HA

University Physics Volume 2

18th Edition

ISBN:9781938168161

Author:OpenStax

Publisher:OpenStax

Chapter3: The First Law Of Thermodynamics

Section: Chapter Questions

Problem 76P: (a) An ideal gas expands adiabatically from a volume of 2.0103 m3 to 2.5103 m3. If the initial...

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A sample of a monatomic ideal gas occupies 5.00 L at atmospheric pressure and 300 K (point A in Fig. P17.68). It is warmed at constant volume to 3.00 atm (point B). Then it is allowed to expand isothermally to 1.00 atm (point C) and at last compressed isobarically to its original state. (a) Find the number of moles in the sample. Find (b) the temperature at point B, (c) the temperature at point C, and (d) the volume at point C. (e) Now consider the processes A B, B C, and C A. Describe how to carry out each process experimentally. (f) Find Q, W, and Eint for each of the processes. (g) For the whole cycle A B C A, find Q, W, and Eint. Figure P17.68
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A sample of a monatomic ideal gas occupies 5.00 L at atmospheric pressure and 300 K (point A in Fig. P21.65). It is warmed at constant volume to 3.00 atm (point B). Then it is allowed to expand isothermally to 1.00 atm (point C) and at last compressed isobarically to its original state, (a) Find the number of moles in the sample. Find (b) the temperature at point B, (c) the temperature at point C, and (d) the volume at point C. (e) Now consider the processes A B, B C, and C A. Describe how to carry out each process experimentally, (f) Find Q, W, and Eint for each of the processes, (g) For the whole cycle A B C A, find Q, W, and Eint.
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(a) An ideal gas expands adiabatically from a volume of 2.0103 m3 to 2.5103 m3. If the initial pressure and temperature 5.0105 Pa and 300 K, respectively, what are the final pressure and temperature of the gas? Use =5/3 for the gas. (b) In an isothermal process, an ideal gas expands from a of 2.0103 m3 to 2.5103 m3. If the initial pressure and temperature were 5.0105 Pa and 300 K, respectively, what are the final pressure and temperature of the gas?
A metallic container of fixed volume of 2.5103 m3 immersed in a large tank of temperature 27 contains two compartments separated by a freely movable wall. Initially, the wall is kept in place by a stopper so that there are 0.02 mol of the nitrogen gas on one side and 0.03 mol of the oxygen gas on the other side, each occupying half the volume. When the stopper is removed, the wall moves and comes to a final position. The movement of the wall is controlled so that the wall moves in infinitesimal quasi-static steps. (a) Find the final volumes of the two sides assuming the ideal gas behavior for the two gases. (b) How much work does each gas do on the other? (c) What is the change in the internal energy of each gas? (d) Find the amount of heat that enters or leaves each gas.