148239 In the indicator diagram shown in figure the net amount of work done is

148240 In an isothermal expansion the work done in increasing the volume of one mole of a gas by $10 \%$ at a temperature of $100 \mathrm{~K}$ is

148241 When a system is taken from state $i$ to state $f$ along the path iaf, it is found that $Q=50$ cal and $W=20$ cal. Along the path ibf $Q=36$ cal. $W$ along the path ibf is

148242 Which of the following $p-V$ diagrams best represents an isothermal process?

1

2

3

4

148246 Initial pressure and volume of gas are $p$ and $V$ respectively. First it's volume is expanded to $4 \mathrm{~V}$ isothermally and then again it's volume makes to be $V$ adiabatically. Then it's final pressure is $(\gamma=1.5)$

148239 In the indicator diagram shown in figure the net amount of work done is

148240 In an isothermal expansion the work done in increasing the volume of one mole of a gas by $10 \%$ at a temperature of $100 \mathrm{~K}$ is

148241 When a system is taken from state $i$ to state $f$ along the path iaf, it is found that $Q=50$ cal and $W=20$ cal. Along the path ibf $Q=36$ cal. $W$ along the path ibf is

148242 Which of the following $p-V$ diagrams best represents an isothermal process?

1

2

3

4

148246 Initial pressure and volume of gas are $p$ and $V$ respectively. First it's volume is expanded to $4 \mathrm{~V}$ isothermally and then again it's volume makes to be $V$ adiabatically. Then it's final pressure is $(\gamma=1.5)$

148239 In the indicator diagram shown in figure the net amount of work done is

148240 In an isothermal expansion the work done in increasing the volume of one mole of a gas by $10 \%$ at a temperature of $100 \mathrm{~K}$ is

148241 When a system is taken from state $i$ to state $f$ along the path iaf, it is found that $Q=50$ cal and $W=20$ cal. Along the path ibf $Q=36$ cal. $W$ along the path ibf is

148242 Which of the following $p-V$ diagrams best represents an isothermal process?

1

2

3

4

148246 Initial pressure and volume of gas are $p$ and $V$ respectively. First it's volume is expanded to $4 \mathrm{~V}$ isothermally and then again it's volume makes to be $V$ adiabatically. Then it's final pressure is $(\gamma=1.5)$

148239 In the indicator diagram shown in figure the net amount of work done is

148240 In an isothermal expansion the work done in increasing the volume of one mole of a gas by $10 \%$ at a temperature of $100 \mathrm{~K}$ is

148241 When a system is taken from state $i$ to state $f$ along the path iaf, it is found that $Q=50$ cal and $W=20$ cal. Along the path ibf $Q=36$ cal. $W$ along the path ibf is

148242 Which of the following $p-V$ diagrams best represents an isothermal process?

1

2

3

4

148246 Initial pressure and volume of gas are $p$ and $V$ respectively. First it's volume is expanded to $4 \mathrm{~V}$ isothermally and then again it's volume makes to be $V$ adiabatically. Then it's final pressure is $(\gamma=1.5)$

148239 In the indicator diagram shown in figure the net amount of work done is

148240 In an isothermal expansion the work done in increasing the volume of one mole of a gas by $10 \%$ at a temperature of $100 \mathrm{~K}$ is

148241 When a system is taken from state $i$ to state $f$ along the path iaf, it is found that $Q=50$ cal and $W=20$ cal. Along the path ibf $Q=36$ cal. $W$ along the path ibf is

148242 Which of the following $p-V$ diagrams best represents an isothermal process?

1

2

3

4

148246 Initial pressure and volume of gas are $p$ and $V$ respectively. First it's volume is expanded to $4 \mathrm{~V}$ isothermally and then again it's volume makes to be $V$ adiabatically. Then it's final pressure is $(\gamma=1.5)$