CompoundsAgBr(s) -100.4 Cacl2(s) -795.8H2O(g)-241.8 NH4NO3(s)-365.6AgCl(s)-127.1 Caco3(s) -1206.9H2O(1)|-285.8NO(g)+90.2Agl(s)-61.8 Cao(S)-635.1H2O2(1)-187.8NO2(g)+33.2AGNO3(s) -124.4 Ca(OH)2(s) -986.1H25(g)-20.6 N204(g)+9.2Ag20(s)-31.0 CasO4(s) |-1434.1 H2S04() -814.0Nacl(s)-411.2Al203(s) |-1675.7 Cdcl2(s) -391.5HgO(s)-90.8NaF(s)-573.6Bacl2(s) -858.6 cdo(s) -258.2KBr(s)|-393.8 NaOH(s) |-425.6BaCO3(s) -1216.3 Cr203(s) -1139.7KCI(s)-436.7NIO(s)|-239.7BaO(s) -553.5CuO(s)-157.3KCIO3(s)-397.7PbBr2(s) -278.7BaSO4(s) |-1473.2 Cu20(s) -168.6 KCIO4(s)-432.8 PbCl2(s) -359.4CC14(1) |-135.4Cus(s)KNO3(s)PbO(s)|-219.0-53.1-494.6CHCI3(I) -134.5 Cu2s(s)-79.5MgCl2(s) -641.3PbO2(s) -277.4CH4(g)-74.8 Cuso4(s) -771.4 MgCO3(5) -1095.8 PCI3(g)|-287.0C2H2(g) +226.7 Fe(OH)3(s) -823.0Mgo(s)-601.7PCI5(9) -374.9C2H4(g) +52.3 Fe203(s) -824.2 Mg(OH)2(5) -924.5SIO2(s)-910.9C2H6(g) -84.7 Fe304(s) |-1118.4 MgSO4(s) |-1284.9 Sno2(s) -580.7C3H8(g) |-103.8 HBr(g)-36.4MnO(s)SO2(g) -296.8-385.2|снзон(-238.7HCl(g)-92.3MnO2(s)-520.0SO3(g)-395.7C2H5OH() -277.7HF(g)-271.1NH3(g)-46.1Znl2(s)|-208.0Colg)-110.5HI(g)+26.5N2H4(1)+50.6ZnO(s)|-348.3CO2(g) -393.5 HNO3() -174.1NH4Cl(s)-314.4ZnS(s)-206.0CationsAnionsAg+(aq) +105.6 Hg2+(aq) +171.1Br2(aq)-121.6НРО4|-1292.1Al3+(ag) -531.0K+(aq)|-252.4| CO32-(aq) -677.1 HSO4-(aq) -887.3Ba2+(aq) -537.6 Mg2+(aq) -466.8Cl-(aq)-167.2I-(aq)-55.2Ca2+(ag) -542.8 Mn2+(aq) -220.8 ClO3-(aq) -104.0 Mn04-(aq) -541.4Cd2+(ag) -75.9Na+(aq) -240.1 Cl04-(aq) -129.3 NO2-(aq) |-104.6Cu+(aq)+71.7 NH4+(ag) -132.5 Cro42-(ag) -881.2 NO3-(ag) -205.0Cu2+(aq) +64.8 Ni2+(aq) -54.0 Cr2072-(ag) -1490.3 OH2(aq) -230.0Fe2+(aq) -89.1 Pb2+(aq)-1.7F-(aq)-332.6 PO43-(ag) |-1277.4Fe3+(ag) -48.5Sn2+(aq)-8.8нсо3-(aq) |-692.0S2-(aq)+33.1H+(aq)0.0Zn2+(ag) -153.9 H2PO4-(ag|-1296.3 SO42-(ag) -909.3 34. Use Hess's law to calculate AH for the decomposition of CS2(1) to itselements.CS;(1) –C(s) + 2S(s)Use Table 8.3 and the following thermochemical equations:(1) formation of CO, from its elements at 25°C(2) formation of SO, from its elements at 25°C(3) CO,(g) + 2S0,(g) CS,(1) + 3 O2(g)AH = +1103.9 kJ

Use Hess’s law to calculate to calculate delatH for the decomposition of CS2 to its elements. Hess’s…

34. Use Hess's law to calculate AH for the decomposition of CS2(1) to its elements. CS:(1) → C(s) + 2S(s) Use Table 8.3 and the following thermochemical equations: (1) formation of CO, from its elements at 25°C (2) formation of SO, from its elements at 25°C (3) CO.e) + 2S0(e) → CS.(1) + 30,(0) AH = +1103.9 kl

34. Use Hess's law to calculate AH for the decomposition of CS2(1) to its elements. CS:(1) → C(s) + 2S(s) Use Table 8.3 and the following thermochemical equations: (1) formation of CO, from its elements at 25°C (2) formation of SO, from its elements at 25°C (3) CO.e) + 2S0(e) → CS.(1) + 30,(0) AH = +1103.9 kl

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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