An ideal gas follows a process described by the equation $\mathrm{PV}^2=\mathrm{C}$ from the initial…
- If $\mathrm{P}_1>{ }_2$ then $\mathrm{T}_1 < \mathrm{T}_2$
- If $\mathrm{V}_2>\mathrm{V}_1$ then $\mathrm{T}_2>\mathrm{T}_1$
- If $\mathrm{V}_2>\mathrm{V}_1$ then $\mathrm{T}_2 < \mathrm{T}_1$
- If $\mathrm{P}_1>\mathrm{P}_2$ then $\mathrm{V}_1>\mathrm{V}_2$
Solution
$\mathrm{PV}^2=\mathrm{C}$
And by ideal gas equation, we have;
$\mathrm{PV}=n \mathrm{RT}$
Hence, $\left(\frac{n \mathrm{RT}}{\mathrm{V}}\right) \mathrm{V}^2=\mathrm{C}$
Hence, TV $=$ constant
$\mathrm{T} \propto \frac{1}{\mathrm{~V}} \therefore \mathrm{V}_2 > \mathrm{V}_1 \text { and } \mathrm{T}_1 > \mathrm{T}_2$ ~
Asked in: NEET 2022 (Phase 2)