8) The following reaction is carried out at constant temperature and pressure. Use the given data for the reaction to answer parts a) through e). Assume that the reaction begins with 1 mole of P4(g). (50%) P4(g) 5 2P2(g) : AG:m = 225400 + 7.9TINT – 209.4T J a) Express the equilibrium constant (K) or reaction quotient (Q) in terms of the reaction extend (§). b) Calculate the extend of reaction when equilibrium is reached at 1300 K and 1 bar of total pressure.

Introduction to Chemical Engineering Thermodynamics
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ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
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8) The following reaction is carried out at constant temperature and pressure. Use the given data for the
reaction to answer parts a) through e). Assume that the reaction begins with 1 mole of P4(g). (50%)
P4(g) 5 2P2(g)
AGgxn = 225400 + 7.9TlnT – 209.4T J
a) Express the equilibrium constant (K) or reaction quotient (Q) in terms of the reaction extend (}).
b) Calculate the extend of reaction when equilibrium is reached at 1300 K and 1 bar of total pressure.
c) Calculate the Gibbs free energy change (AGRXN) at 1300 K and 1 bar for = 0.5.
d) Determine in which direction the reaction will proceed in c) to reach equilibrium.
e) Calculate the partial pressures of P4 and P2 in equilibrium at 1300 K and 10 bars of total pressure.
Transcribed Image Text:8) The following reaction is carried out at constant temperature and pressure. Use the given data for the reaction to answer parts a) through e). Assume that the reaction begins with 1 mole of P4(g). (50%) P4(g) 5 2P2(g) AGgxn = 225400 + 7.9TlnT – 209.4T J a) Express the equilibrium constant (K) or reaction quotient (Q) in terms of the reaction extend (}). b) Calculate the extend of reaction when equilibrium is reached at 1300 K and 1 bar of total pressure. c) Calculate the Gibbs free energy change (AGRXN) at 1300 K and 1 bar for = 0.5. d) Determine in which direction the reaction will proceed in c) to reach equilibrium. e) Calculate the partial pressures of P4 and P2 in equilibrium at 1300 K and 10 bars of total pressure.
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