2. Hydrogen gas is produced by the reaction of steam with “water gas", an equimolar mixture of H2 and CO obtained by the reaction of steam with coal. A stream of "water gas" mixed with steam is passed over a catalyst to convert CO to CO2 by the reaction: H2O (g) + CÓ (g) → H2 (g) + CO2 (g) Subsequently, unreacted water is condensed and carbon dioxide is absorbed, leaving a product that is mostly hydrogen. The equilibrium conditions are 1 bar and 800 K. a. Is any advantage gained by carrying out the reaction at pressures above 1 bar? b. Would increasing the equilibrium temperature increase the conversion of CO? c. For the given equilibrium conditions, determine the molar ratio of steam to "water gas" (H2 + CO) required to produce a product gas containing only 2 mol% CO after cooling to 20 °C, where the unreacted H2O has been virtually all condensed.

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Chapter11: Chemical Kinetics
Section: Chapter Questions
Problem 11.97PAE
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Please solve part (a)

2. Hydrogen gas is produced by the reaction of steam with "water gas", an equimolar mixture of
H2 and CO obtained by the reaction of steam with coal. A stream of "water gas" mixed with
steam is passed over a catalyst to convert CO to CO2 by the reaction:
H2O (g) + CO (g) → H2 (g) + CO2 (g)
Subsequently, unreacted water is condensed and carbon dioxide is absorbed, leaving a product
that is mostly hydrogen. The equilibrium conditions are 1 bar and 800 K.
a. Is any advantage gained by carrying out the reaction at pressures above 1 bar?
b. Would increasing the equilibrium temperature increase the conversion of CO?
c. For the given equilibrium conditions, determine the molar ratio of steam to "water gas" (H2
+ CO) required to produce a product gas containing only 2 mol% CO after cooling to 20
°C, where the unreacted H2O has been virtually all condensed.
Transcribed Image Text:2. Hydrogen gas is produced by the reaction of steam with "water gas", an equimolar mixture of H2 and CO obtained by the reaction of steam with coal. A stream of "water gas" mixed with steam is passed over a catalyst to convert CO to CO2 by the reaction: H2O (g) + CO (g) → H2 (g) + CO2 (g) Subsequently, unreacted water is condensed and carbon dioxide is absorbed, leaving a product that is mostly hydrogen. The equilibrium conditions are 1 bar and 800 K. a. Is any advantage gained by carrying out the reaction at pressures above 1 bar? b. Would increasing the equilibrium temperature increase the conversion of CO? c. For the given equilibrium conditions, determine the molar ratio of steam to "water gas" (H2 + CO) required to produce a product gas containing only 2 mol% CO after cooling to 20 °C, where the unreacted H2O has been virtually all condensed.
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