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(a) What are the units of molar heat capacity? (b) What are the units of specific heat? (c) If you know the specific heat of copper, what additional information do you need to calculate the heat capacity of a particular piece of copper pipe?

Short Answer

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(a) The units of molar heat capacity are \(\frac{Joules}{mole \cdot °C}\). (b) The units of specific heat are \(\frac{Joules}{gram \cdot °C}\). (c) To calculate the heat capacity of a particular piece of copper pipe, given the specific heat of copper, we need the mass of the copper pipe. The heat capacity can be calculated using the formula: Heat Capacity = Specific Heat × Mass.

Step by step solution

01

Find the units of molar heat capacity.

Molar heat capacity is the amount of heat required to raise the temperature of 1 mole of a substance by 1 degree Celsius. The unit of heat is Joule (J), temperature is measured in Celsius (°C), and the amount of substance is measured in moles (mol). Therefore, the units of molar heat capacity are \(\frac{Joules}{mole \cdot °C}\).
02

Find the units of specific heat.

Specific heat is the amount of heat required to raise the temperature of 1 gram of a substance by 1 degree Celsius. The unit of heat is Joule (J), temperature is measured in Celsius (°C), and mass is measured in grams (g). Therefore, the units of specific heat are \(\frac{Joules}{gram \cdot °C}\).
03

Identify additional information needed to calculate heat capacity.

If we know the specific heat of copper, to calculate the heat capacity of a particular piece of copper pipe, we also need to know the mass of the copper pipe. Heat capacity is the product of specific heat and mass, so with both of these pieces of information, the heat capacity can be calculated using the following formula: Heat Capacity = Specific Heat × Mass Hence, the additional information needed is the mass of the copper pipe.

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Most popular questions from this chapter

(a) Why are tables of standard enthalpies of formation so useful? (b) What is the value of the standard enthalpy of formation of an element in its most stable form? (c) Write the chemical equation for the reaction whose enthalpy change is the standard enthalpy of formation of sucrose (table sugar), \(\mathrm{C}_{12} \mathrm{H}_{22} \mathrm{O}_{11}(s), \Delta H_{f}^{\circ}\left[\mathrm{C}_{12} \mathrm{H}_{22} \mathrm{O}_{11}\right]\).

(a) What is meant by the term standard conditions with reference to enthalpy changes? (b) What is meant by the term enthalpy of formation? (c) What is meant by the term standard enthalpy of formation?

Indicate which of the following is independent of the path by which a change occurs: (a) the change in potential energy when a book is transferred from table to shelf, (b) the heat evolved when a cube of sugar is oxidized to \(\mathrm{CO}_{2}(g)\) and \(\mathrm{H}_{2} \mathrm{O}(g)\), (c) the work accomplished in burning a gallon of gasoline.

(a) Why is the change in enthalpy usually easier to measure than the change in internal energy? (b) \(H\) is a state function, but \(q\) is not a state function. Explain. (c) For a given process at constant pressure, \(\Delta H\) is positive. Is the process endothermic or exothermic?

Suppose you toss a tennis ball upward. (a) Does the kinetic energy of the ball increase or decrease as it moves higher? (b) What happens to the potential energy of the ball as it moves higher? (c) If the same amount of energy were imparted to a ball the same size as a tennis ball but of twice the mass, how high would the ball go in comparison to the tennis ball? Explain your answers.

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