1. | \(5 \alpha \) | 2. | \(\dfrac{3 \alpha}{5} \) |
3. | \(\dfrac{5 \alpha}{3} \) | 4. | \(15 \alpha\) |
1. | \(P\) to \(Q\). | heat would flow from
2. | \(Q\) to \(P\) . | heat would flow from
3. | \(P\) & \(Q\). | no flow of heat occurs between
4. | \(P\) & \(Q,\) varying with time. | flow of heat may occur back and forth between
1. | \(a\) | 2. | \(b\) |
3. | \(c\) | 4. | \(d\) |
1. | \({\Large\gamma}_L\theta\times{\large p}_0 ~\) |
2. | \({\Large\frac{\theta}{273}}{\large p}_0\) |
3. | \({\dfrac{{\Large\gamma}_L\theta}{273}}{\large p}_0\) |
4. | \(\Big({\Large\gamma}_L\theta+{\Large\frac{\theta}{273}}\Big){\large p}_0 \) |
1. | \(2\alpha\) | is
2. | \(4\alpha\) | is
3. | \(\alpha\) and \(3\alpha\) | can be any value between
4. | \(2\alpha\) and \(3\alpha\) | can be any value between
1. | \(l+\Delta l\) | 2. | \(l+\dfrac{\Delta l}{2}\) |
3. | \(l+\dfrac{\Delta l}{4}\) | 4. | \(l+\dfrac{3\Delta l}{4}\) |
1. | The graph is a straight line parallel to the time axis. |
2. | The heat capacity of the liquid is inversely proportional to the slope of the graph. |
3. | If some heat were lost at a constant rate to the surroundings during heating, the graph would be a straight line but with a larger slope. |
4. | The internal energy of the liquid increases quadratically with time. |