4.24 Consider a cylinder fitted with a piston that contains 2 mol of H2O in a container at 1000 K. Calculate how much work is required to isothermally and reversibly compress this gas from 10 L to 1 L, in each of the following cases: (a) Use the ideal gas model for water. (b) Use the Redlich-Kwong equation to relate P, v, and T: RT а P = T/2v(v + b) where, a = 14.24[(JKV2m³)/mol²] and b = 2.11 × 10-³[m³/mol] (c) Use the Steam tables.

Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
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Consider a cylinder fitted with a piston that contains 2 mol of H2O in a container at 1000 K. Calculate how much work is required to isothermally and reversibly compress this gas from 10 L to 1 L, in each of the following cases: (a) Use the ideal gas model for water. (b) Use the Redlich–Kwong equation to relate P, v, and T: (c) Use the Steam tables.
4.24 Consider a cylinder fitted with a piston that contains 2 mol of H2O in a container at 1000 K.
Calculate how much work is required to isothermally and reversibly compress this gas from 10 L
to 1 L, in each of the following cases:
(a) Use the ideal gas model for water.
(b) Use the Redlich-Kwong equation to relate P, v, and T:
RT
а
P =
T/2v(v + b)
where,
a =
14.24[(JKV2m³)/mol²] and b = 2.11 × 10-³[m³/mol]
(c) Use the Steam tables.
Transcribed Image Text:4.24 Consider a cylinder fitted with a piston that contains 2 mol of H2O in a container at 1000 K. Calculate how much work is required to isothermally and reversibly compress this gas from 10 L to 1 L, in each of the following cases: (a) Use the ideal gas model for water. (b) Use the Redlich-Kwong equation to relate P, v, and T: RT а P = T/2v(v + b) where, a = 14.24[(JKV2m³)/mol²] and b = 2.11 × 10-³[m³/mol] (c) Use the Steam tables.
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