Question 1 1.1 answer the following a. 230 BTUS are absorbed by a gas while the gas expands and perform 610 BTUS of work. Calculate the change in internal energy for this process b. A copper cylinder has a mass of 55.6 g and a specific heat of 0.092 cal/g- c. It is heated to 75.5 C and then put in 68.7 g of turpentine whose mass is 18.5 °C. The temperature of the mixture was measured to be 42.9 C. Calculate the specific heat of the turpentine c. A pot is filled with 9kg of water at 10 °C. Calculate how much heat energy would be needed to raise the temperature to 60 °C. [specific heat capacity of water = 4200J/kg °C] d. A refrigerator is used to cool 4 litres of soft drink from room temperature (23 °C) to 4 °C. If the density of the soft drink is 1015 kg/m³ (1 litre = 0.001 m³), how much heat must be removed if the specific heat of the soft drink is 4350 J/kg °C e. The chemical reaction presented below is not balanced. Balance it and calculate AH° and ASurr for this reaction at and 1 atm and 25 °C. CO(g) + H2(g) CH;OH(1)

Chemistry
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Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste
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Chapter1: Chemical Foundations
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Question 1
1.1 answer the following
a. 230 BTUS are absorbed by a gas while the gas expands and perform 610
BTUS of work. Calculate the change in internal energy for this process
b. A copper cylinder has a mass of 55.6 g and a specific heat of 0.092 çalg- C.
It is heated to 75.5 C and then put in 68.7 g of turpentine whose mass is 18.5
°C. The temperature of the mixture was measured to be 42.9 C. Calculate the
specific heat of the turpentine
c. A pot is filled with 9kg of water at 10 °C. Calculate how much heat energy
would be needed to raise the temperature to 60 °C. [specific heat capacity of
water = 4200J/kg °C]
d. A refrigerator is used to cool 4 litres of soft drink from room temperature (23
°C) to 4 °C. If the density of the soft drink is 1015 kg/m3 (1 litre = 0.001 m³),
how much heat must be removed if the specific heat of the soft drink is 4350
J/kg °C
e. The chemical reaction presented below is not balanced. Balance it and
calculate AH° and ASurr for this reaction at and 1 atm and 25 °C.
CO(g) + H2(g)
CH;OH(1)
Transcribed Image Text:Question 1 1.1 answer the following a. 230 BTUS are absorbed by a gas while the gas expands and perform 610 BTUS of work. Calculate the change in internal energy for this process b. A copper cylinder has a mass of 55.6 g and a specific heat of 0.092 çalg- C. It is heated to 75.5 C and then put in 68.7 g of turpentine whose mass is 18.5 °C. The temperature of the mixture was measured to be 42.9 C. Calculate the specific heat of the turpentine c. A pot is filled with 9kg of water at 10 °C. Calculate how much heat energy would be needed to raise the temperature to 60 °C. [specific heat capacity of water = 4200J/kg °C] d. A refrigerator is used to cool 4 litres of soft drink from room temperature (23 °C) to 4 °C. If the density of the soft drink is 1015 kg/m3 (1 litre = 0.001 m³), how much heat must be removed if the specific heat of the soft drink is 4350 J/kg °C e. The chemical reaction presented below is not balanced. Balance it and calculate AH° and ASurr for this reaction at and 1 atm and 25 °C. CO(g) + H2(g) CH;OH(1)
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