Table 2.3 Standard enthalpies of fusion and vaporization at the transition temperature, AusH/(kJ mol-¹)Tb/KVaporizationT₁/KElementsAgArBr₂Cl₂F₂H₂HeHg1₂N₂Na0₂XeKTf/K123483.81265.9172.153.613.963.5234.3386.863.15371.054.36161336.4Inorganic compoundsCCIA250.3Fusion11.301.18810.576.410.260.1170.0212.29215.520.7192.6010.4442.302.352.47Data: AIP; s denotes sublimation.243687.29332.4239.185.020.384.22629.7458.477.35115690.181651031349.9250.66.50629.4520.413.160.9160.08459.3041.805.58698.016.82012.680.2330.00CO₂CS₂H₂OH₂SH₂SO4NH3C₂H6CHOrganic compoundsCHACCIC6H14C10H8CH,OH217.0161.2273.15C₂H,OH187.6283.5195.490.68250.389.85278.61178354175.2158.7Fusion8.334.396.0082.3772.565.6520.9412.52.8610.5913.0818.803.164.60Tb/K194.6319.4373.15212.8239.7111.7350184.6353.2342.1490.9337.2352Vaporization25.23 s26.7440.65644.016 at 298 K18.6723.358.1830.014.730.828.8551.5135.2737.99 at 298 K43.5 [P1] Calculate the amount of energy associated with transforming 1.5 kg of carbon disulfide from 50 degree Celsius to -115 degreeCelsius. Use the following heat capacities:Jmol KJmol KJCCp (solid)p (liquid)= 42=78CP (gas)=57-mol KUsing Table 2.3 of Appendix 1 - Physical Chemistry by Atkins, how much heat is associated with the entire process?-665682 J-864700 J-250906 J-250707 JAdditional contentDrag and drop files here or click to add text.

Given amount of CS2 = 1.5 kg The initial temperature = 500C = T1 = 273 + 50 = 323 KThe final…

[P1] Calculate the amount of energy associated with transforming 1.5 kg of carbon disulfide from 50 degree Celsius to -115 degree Celsius. Use the following heat capacities: J mol K J C p(solid) C p (liquid) C p (gas) = 42 A =78 <=57 mol K J mol K Using Table 2.3 of Appendix 1 - Physical Chemistry by Atkins, how much heat is associated with the entire process? -665682 J B) -864700J C) -250906 J -250707 J

[P1] Calculate the amount of energy associated with transforming 1.5 kg of carbon disulfide from 50 degree Celsius to -115 degree Celsius. Use the following heat capacities: J mol K J C p(solid) C p (liquid) C p (gas) = 42 A =78 <=57 mol K J mol K Using Table 2.3 of Appendix 1 - Physical Chemistry by Atkins, how much heat is associated with the entire process? -665682 J B) -864700J C) -250906 J -250707 J

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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