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Isomerization reaction is the chemical process by which a compound is transformed into any of its isomeric forms with the same chemical composition but with different structure or configuration and, hence, generally with different physical and chemical properties. For an example, propene or propylene can be converted into cyclopropane in an isomerization reaction. Assume 255 g of propenc (propylene) are converted into cyclopropane at 25 °C as shown below: C:H(g. propylene) –→ C;H«(g, cyclopropanc) Calculate the change in enthalpy by showing each step by using the related enthalpy of combustion and formation also with the Hess's law for the above mentioned condition by using the data given below: 3C(s) + 3H2(g) → CH, (g,propylene) AH° = +20.42 kJ/ mol C(s) + 02(9) → CO2(9) AH° = -393.51 kJ/ mol H;(9) + 02(9) → H,0(1) AH° = -285.83 kJ/ mol C3H,(g, cyclopropane) + 4 0,(g) → 3C0,(g) + 3H,0(1) AH° = -2091.00 kJ/ mol

Isomerization reaction is the chemical process by which a compound is transformed into any of its isomeric forms with the same chemical composition but with different structure or configuration and, hence, generally with different physical and chemical properties. For an example, propene or propylene can be converted into cyclopropane in an isomerization reaction. Assume 255 g of propenc (propylene) are converted into cyclopropane at 25 °C as shown below: C:H(g. propylene) –→ C;H«(g, cyclopropanc) Calculate the change in enthalpy by showing each step by using the related enthalpy of combustion and formation also with the Hess's law for the above mentioned condition by using the data given below: 3C(s) + 3H2(g) → CH, (g,propylene) AH° = +20.42 kJ/ mol C(s) + 02(9) → CO2(9) AH° = -393.51 kJ/ mol H;(9) + 02(9) → H,0(1) AH° = -285.83 kJ/ mol C3H,(g, cyclopropane) + 4 0,(g) → 3C0,(g) + 3H,0(1) AH° = -2091.00 kJ/ mol

Introduction to Chemical Engineering Thermodynamics
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
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
Section: Chapter Questions
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Isomerization reaction is the chemical process by which a compound is transformed into any of its isomeric forms with the same chemical composition but with different structure or configuration and, hence, generally with different physical and chemical properties. For an example, propene or propylene can be converted into cyclopropane in an isomerization reaction. Assume 255 g of propene (propylene) are converted into cyclopropane at 25 °C as shown below: C:H«(g, propylene) – C:H<(g, cyclopropane) Calculate the change in enthalpy by showing each step by using the related enthalpy of combustion and formation also with the Hess's law for the above mentioned condition by using the data given below: 3C(s) + 3H¿(g) → C3H6 (g,propylene) AH° = +20.42 kJ/ mol C(s) + 02(g) → CO2(g) AH° = -393.51 kJ/ mol H;(g) + 02(9) → H,0(1I) AH° = -285.83 kJ/ mol C3H.(g,cyclopropane) + 4 0,(g) → 3C0,(g) + 3H,0(1) AH° = -2091.00 kJ/ mol
Transcribed Image Text:Isomerization reaction is the chemical process by which a compound is transformed into any of its isomeric forms with the same chemical composition but with different structure or configuration and, hence, generally with different physical and chemical properties. For an example, propene or propylene can be converted into cyclopropane in an isomerization reaction. Assume 255 g of propene (propylene) are converted into cyclopropane at 25 °C as shown below: C:H«(g, propylene) – C:H<(g, cyclopropane) Calculate the change in enthalpy by showing each step by using the related enthalpy of combustion and formation also with the Hess's law for the above mentioned condition by using the data given below: 3C(s) + 3H¿(g) → C3H6 (g,propylene) AH° = +20.42 kJ/ mol C(s) + 02(g) → CO2(g) AH° = -393.51 kJ/ mol H;(g) + 02(9) → H,0(1I) AH° = -285.83 kJ/ mol C3H.(g,cyclopropane) + 4 0,(g) → 3C0,(g) + 3H,0(1) AH° = -2091.00 kJ/ mol
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