Please use the values in the resources listed below instead of the textbook values.Calculate the approximate value of A Sº for the reaction below.14N₂(g) + 15N₂(g) → 2 14N15N(g)-Assume that differences in molar masses, moments of inertia, and vibrational frequencies are negligible.Arsº .6806X J.K-¹.mol-1 formulaKCIO3(s)KCIO4(s)KF(s)KI(S)KMnO4(s)KNO₂ (s)KNO3(s)KOH(s)KO₂ (s)K₂CO3(s)K₂O₂ (s)Kr(g)Li(g)Li(s)LiBr(s)LiCl(s)Lif(s)Lil(s)LiOH(s)Li₂O(s)Mg(g)Mg(s)MgBr₂(s)MgCO3(s)MgCl₂(s)Mg0(s)Mn(g)Mn(s)MnCl₂ (s)Mn0(s)MnO₂ (s)N(g)NH,CH,CO,H(s)NH3(g)AH (kJ/mol)-397.7-432.8-567.3-327.9-837.2-369.8-494.6-424.8-284.9-1150.2-494.10159.30-351.2-408.6-616.0-270.4-487.2-597.9147.10-524.3-1095.8-641.3-601.8280.70-481.3-385.2-520.0470.7-527.5-46.3Sº (J/mol-K)143.1151.066.6106.3171.7152.1133.178.9116.7155.4102.1164.1138.828.0374.359.335.786.850.2137.6148.632.68117.265.789.6226.78173.732.0118.259.753.1153.3103.5192.5Standard State Thermodynamic DataAG (kJ/mol)formulaNH₂Cl(s)-296.3-477.8NH4NO3(s)-587.2NO(g)-359.6NOCI(g)-888.4NO₂(g)-415.1N₂(g)-394.9N₂H₂(g)-379.1N₂H4(g)-319.7N₂H4(1)-1196.5N₂H4(1)-524.5N₂O(g)0N₂O3(g)117.9N₂04(g)0N₂O4(1)-373.4Na(g)-426.3Na(s)-626.6NaBr(s)-296.3NaCl(s)-443.9NaClO3(s)-609.1NaClO4(s)102.8NaF(s)0NaHCO3(s)-559.2Nal(s)-1012.1NaNO₂ (s)-591.8NaNO3(s)-569.6NaOH(s)228.9NaO₂ (s)-9.5Na₂CO3(s)-516.5Na₂0(s)-403.0Na₂O₂ (s)-535.8Na₂S(s)455.5Na₂SO3(s)-558.4Na₂SO4(s)-16.6Ne(g)AH (kJ/mol)-314.4-365.690.451.733.9095.495.4050.6350.681.5686.69.7-19.5107.50-361.06-411.2-365.8-383.3-576.6-947.7-287.8-358.7-467.9-425.6-260.2-1130.9-414.2-510.9-364.8-1100.8-1387.10Sº (J/mol-K)94.6151.1210.6261.7240.5191.6238.5149.4220.0314.7304.3209.2153.751.2186.8272.13123.4142.351.1102.198.53103.8116.564.46115.9135.9875.195.083.7145.9149.6146.3AG (kJ/mol)-202.87-410.786.7-26.351.84-57.124.3149.4103.6-7.298.397.577.00-348.98-384.1-402.6-425.7-546.3-851.9-286.1-389.6-502.6-379.5-294.8-1047.7-436.6-539.2-389.8-1144.3-1431.70

The correct solution is given below

Please use the values in the resources listed below instead of the textbook values. Calculate the approximate value of A Sº for the reaction below. 14N₂(g) + 15N₂(g) → 2 14N15N(g) - Assume that differences in molar masses, moments of inertia, and vibrational frequencies are negligible. Arsº .6806 X J.K-¹.mol-1

Please use the values in the resources listed below instead of the textbook values. Calculate the approximate value of A Sº for the reaction below. 14N₂(g) + 15N₂(g) → 2 14N15N(g) - Assume that differences in molar masses, moments of inertia, and vibrational frequencies are negligible. Arsº .6806 X J.K-¹.mol-1

Chemistry

10th Edition

ISBN:9781305957404

Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste

Publisher:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste

Chapter1: Chemical Foundations

Section: Chapter Questions

Problem 1RQ: Define and explain the differences between the following terms. a. law and theory b. theory and...

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