146639 Heat energy of $184\mathrm{kJ}$ is given to ice of mass $600\mathrm{g}$ at $-{12}^{\circ }\mathrm{C}$. Specific heat of ice is $2222.3\mathrm{J}$ ${\mathrm{kg}}^{-1^{\circ }}{\mathrm{C}}^{-1}$ and latent heat of ice in $336\mathrm{kJ}/{\mathrm{kg}}^{-1}$

146640 The $H$ amount of thermal energy is developed by a resistor in $10\mathrm{s}$ when a current of $4\mathrm{A}$ is passed through it. If the current is increased to $16\mathrm{A}$, the thermal energy developed by the resistor in $10\mathrm{s}$ will be:

146641 Two identical system, with heat capacity at constant volume that varies as $C_v=b^3$ (where $b$ is a constant) are thermally isolated. Initially, one system is at a temperature $100\mathrm{K}$ and the other is at $200\mathrm{K}$. The system are then brought to thermal contact and the combined system is allowed to reach thermal equilibrium. The final temperature (in $\mathrm{K}$ ) of the combined system will be

146642 Initially a beaker has $100\mathrm{g}$ of water at temperature ${90}^{\circ }\mathrm{C}$ later another $600\mathrm{g}$ of water at temperature ${20}^{\circ }\mathrm{C}$ was poured into the beaker. The temperature $T$ of the water after mixing is

146643 A molecule of a gas has six degrees of freedom. Then, the molar specific heat of the gas at constant volume is

146639 Heat energy of $184\mathrm{kJ}$ is given to ice of mass $600\mathrm{g}$ at $-{12}^{\circ }\mathrm{C}$. Specific heat of ice is $2222.3\mathrm{J}$ ${\mathrm{kg}}^{-1^{\circ }}{\mathrm{C}}^{-1}$ and latent heat of ice in $336\mathrm{kJ}/{\mathrm{kg}}^{-1}$

146640 The $H$ amount of thermal energy is developed by a resistor in $10\mathrm{s}$ when a current of $4\mathrm{A}$ is passed through it. If the current is increased to $16\mathrm{A}$, the thermal energy developed by the resistor in $10\mathrm{s}$ will be:

146641 Two identical system, with heat capacity at constant volume that varies as $C_v=b^3$ (where $b$ is a constant) are thermally isolated. Initially, one system is at a temperature $100\mathrm{K}$ and the other is at $200\mathrm{K}$. The system are then brought to thermal contact and the combined system is allowed to reach thermal equilibrium. The final temperature (in $\mathrm{K}$ ) of the combined system will be

146642 Initially a beaker has $100\mathrm{g}$ of water at temperature ${90}^{\circ }\mathrm{C}$ later another $600\mathrm{g}$ of water at temperature ${20}^{\circ }\mathrm{C}$ was poured into the beaker. The temperature $T$ of the water after mixing is

146643 A molecule of a gas has six degrees of freedom. Then, the molar specific heat of the gas at constant volume is

146639 Heat energy of $184\mathrm{kJ}$ is given to ice of mass $600\mathrm{g}$ at $-{12}^{\circ }\mathrm{C}$. Specific heat of ice is $2222.3\mathrm{J}$ ${\mathrm{kg}}^{-1^{\circ }}{\mathrm{C}}^{-1}$ and latent heat of ice in $336\mathrm{kJ}/{\mathrm{kg}}^{-1}$

146640 The $H$ amount of thermal energy is developed by a resistor in $10\mathrm{s}$ when a current of $4\mathrm{A}$ is passed through it. If the current is increased to $16\mathrm{A}$, the thermal energy developed by the resistor in $10\mathrm{s}$ will be:

146641 Two identical system, with heat capacity at constant volume that varies as $C_v=b^3$ (where $b$ is a constant) are thermally isolated. Initially, one system is at a temperature $100\mathrm{K}$ and the other is at $200\mathrm{K}$. The system are then brought to thermal contact and the combined system is allowed to reach thermal equilibrium. The final temperature (in $\mathrm{K}$ ) of the combined system will be

146642 Initially a beaker has $100\mathrm{g}$ of water at temperature ${90}^{\circ }\mathrm{C}$ later another $600\mathrm{g}$ of water at temperature ${20}^{\circ }\mathrm{C}$ was poured into the beaker. The temperature $T$ of the water after mixing is

146643 A molecule of a gas has six degrees of freedom. Then, the molar specific heat of the gas at constant volume is

146639 Heat energy of $184\mathrm{kJ}$ is given to ice of mass $600\mathrm{g}$ at $-{12}^{\circ }\mathrm{C}$. Specific heat of ice is $2222.3\mathrm{J}$ ${\mathrm{kg}}^{-1^{\circ }}{\mathrm{C}}^{-1}$ and latent heat of ice in $336\mathrm{kJ}/{\mathrm{kg}}^{-1}$

146640 The $H$ amount of thermal energy is developed by a resistor in $10\mathrm{s}$ when a current of $4\mathrm{A}$ is passed through it. If the current is increased to $16\mathrm{A}$, the thermal energy developed by the resistor in $10\mathrm{s}$ will be:

146641 Two identical system, with heat capacity at constant volume that varies as $C_v=b^3$ (where $b$ is a constant) are thermally isolated. Initially, one system is at a temperature $100\mathrm{K}$ and the other is at $200\mathrm{K}$. The system are then brought to thermal contact and the combined system is allowed to reach thermal equilibrium. The final temperature (in $\mathrm{K}$ ) of the combined system will be

146642 Initially a beaker has $100\mathrm{g}$ of water at temperature ${90}^{\circ }\mathrm{C}$ later another $600\mathrm{g}$ of water at temperature ${20}^{\circ }\mathrm{C}$ was poured into the beaker. The temperature $T$ of the water after mixing is

146643 A molecule of a gas has six degrees of freedom. Then, the molar specific heat of the gas at constant volume is

146639 Heat energy of $184\mathrm{kJ}$ is given to ice of mass $600\mathrm{g}$ at $-{12}^{\circ }\mathrm{C}$. Specific heat of ice is $2222.3\mathrm{J}$ ${\mathrm{kg}}^{-1^{\circ }}{\mathrm{C}}^{-1}$ and latent heat of ice in $336\mathrm{kJ}/{\mathrm{kg}}^{-1}$

146640 The $H$ amount of thermal energy is developed by a resistor in $10\mathrm{s}$ when a current of $4\mathrm{A}$ is passed through it. If the current is increased to $16\mathrm{A}$, the thermal energy developed by the resistor in $10\mathrm{s}$ will be:

146641 Two identical system, with heat capacity at constant volume that varies as $C_v=b^3$ (where $b$ is a constant) are thermally isolated. Initially, one system is at a temperature $100\mathrm{K}$ and the other is at $200\mathrm{K}$. The system are then brought to thermal contact and the combined system is allowed to reach thermal equilibrium. The final temperature (in $\mathrm{K}$ ) of the combined system will be

146642 Initially a beaker has $100\mathrm{g}$ of water at temperature ${90}^{\circ }\mathrm{C}$ later another $600\mathrm{g}$ of water at temperature ${20}^{\circ }\mathrm{C}$ was poured into the beaker. The temperature $T$ of the water after mixing is

146643 A molecule of a gas has six degrees of freedom. Then, the molar specific heat of the gas at constant volume is