Chapter 18: Problem 52
Prove that the slope of an adiabat at a given point in a \(p V\) diagram is \(\gamma\) times the slope of the isotherm passing through the same point.
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Chapter 18: Problem 52
Prove that the slope of an adiabat at a given point in a \(p V\) diagram is \(\gamma\) times the slope of the isotherm passing through the same point.
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A \(3.50-\mathrm{mol}\) sample of ideal gas with molar specific heat \(C_{V}=\frac{5}{2} R\) is initially at \(255 \mathrm{~K}\) and \(101 \mathrm{kPa}\) pressure. Determine the final temperature and the work done by the gas when \(1.75 \mathrm{~kJ}\) of heat are added to the gas (a) isothermally, (b) at constant volume, and (c) isobarically.
By what factor must the volume of a gas with \(\gamma=1.4\) be changed in an adiabatic process if the pressure is to double?
A power plant extracts thermal energy from its fuel at the rate of \(3810 \mathrm{MW}\) and produces electrical energy at the rate of \(1250 \mathrm{MW}\). There's a proposal to use the waste heat from this plant to heat nearby homes. If the average home requires \(43.2 \mathrm{GJ}\) of energy in a winter month, how many homes could be served if \(100 \%\) of the waste heat from the power plant were available for home heating?
A research balloon is prepared for launch by pumping into it \(1.75 \times 10^{3} \mathrm{~m}^{3}\) of helium gas at \(12^{\circ} \mathrm{C}\) and \(1.00\) atm pressure. It rises high into the atmosphere to where the pressure is only \(0.340 \mathrm{~atm}\). Assuming the balloon doesn't exchange significant heat with its surroundings, find (a) its volume and (b) its temperature at the higher altitude.
It takes 0.8 kJ to compress a gas isothermally to half its original volume. How much work would it take to compress it by a factor of 15 starting from its original volume?
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