The molar specific heat of an ideal gas at constant pressure and constant volume is $C_p$ and $C_v$ respectively. If $R$ is the universal gas constant and the ratio of $C_p$ to $C_v$ is $\gamma$,then $C_v$ is equal to:

  • A
    $\frac{\gamma-1}{R}$
  • B
    $\frac{1-\gamma}{1+\gamma}$
  • C
    $\frac{1+\gamma}{1-\gamma}$
  • D
    $\frac{R}{\gamma-1}$

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Similar Questions

Match the $\frac{C_{P}}{C_{v}}$ ratio for ideal gases with different types of molecules:
Molecule type $\frac{C_{P}}{C_{v}}$
$A$. Monoatomic $I$. $\frac{7}{5}$
$B$. Diatomic rigid molecules $II$. $\frac{9}{7}$
$C$. Diatomic non-rigid molecules $III$. $\frac{4}{3}$
$D$. Triatomic rigid molecules $IV$. $\frac{5}{3}$

Which of the following statements is correct regarding the molar specific heat of $1$ mole of an ideal gas at constant pressure $(C_P)$ and constant volume $(C_V)$?

For a monoatomic ideal gas,the universal gas constant $R$ is $n$ times the molar heat capacity at constant pressure $C_P$. Here,$n$ is ......

Which of the following statements is correct?

$C_v$ and $C_p$ denote the molar specific heat capacities of a gas at constant volume and constant pressure,respectively. Then

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