H8. CO₂ (g) = CO₂ (aq)AfH°(CO₂(g)) = -393.51kJ. mol-1S°(CO₂(g)) = 213.785J. mol-¹. K-1AfH°(CO₂ (aq)) = -413.26kJ. mol-1S°(CO₂ (aq)) = 119.36J. mol-¹. K-1The partial pressure of CO₂ in atmosphere is 41 Pa.Find the concertation of CO₂ (aq) at roomtemperature.

First, we have to find standard Gibb's free energy, ∆Go value from the below equation: ∆Go = ∆Ho -…

CO₂ (g) CO₂ (aq) AƒH°(CO₂(g)) = −393.51kJ · mol-¹ S°(CO₂(g)) = 213.785J · mol−¹ . K−¹1 AfH°(CO₂(aq)) = -413.26kJ. mol-¹ S°(CO₂ (aq)) = 119.36J · mol−¹ . K−¹ The partial pressure of CO₂ in atmosphere is 41Pa Find the concertation of CO₂ (aq) at room temperature.

CO₂ (g) CO₂ (aq) AƒH°(CO₂(g)) = −393.51kJ · mol-¹ S°(CO₂(g)) = 213.785J · mol−¹ . K−¹1 AfH°(CO₂(aq)) = -413.26kJ. mol-¹ S°(CO₂ (aq)) = 119.36J · mol−¹ . K−¹ The partial pressure of CO₂ in atmosphere is 41Pa Find the concertation of CO₂ (aq) at room temperature.

Chemistry: An Atoms First Approach

2nd Edition

ISBN:9781305079243

Author:Steven S. Zumdahl, Susan A. Zumdahl

Publisher:Steven S. Zumdahl, Susan A. Zumdahl

Chapter7: Chemical Energy

Section: Chapter Questions

Problem 64E: Consider the reaction 2HCl(aq)+Ba(OH)2(aq)BaCl2(aq)+2H2O(l)H=118KJ Calculate the heat when 100.0 rnL...

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