V-T graph for a given mass of an ideal gas is shown in the figure. Then the corresponding P-V graph would be ( BC and DA are vertical lines, CD is horizontal line)

Question

V-T graph for a given mass of an ideal gas is shown in the figure. Then the corresponding P-V graph would be Question

( BC and DA are vertical lines, CD is horizontal line) (A) Option 1

(B)

(C)

(D)

Tardigrade Admin · Accepted Answer

For A arrow B, V propto T, so P=constant For B arrow C, T= constant, so PV is hyperbola For C arrow D, T decrease at constant V , so P decreases For D arrow A, T= constant, so PV is hyperbola

Q. $V - T$ graph for a given mass of an ideal gas is shown in the figure. Then the corresponding $P - V$ graph would be

( $BC$ and $D A$ are vertical lines, $C D$ is horizontal line)

$F or A \to B, V \propto T, so P = co n s t an t$
For $B \to C, T =$ constant, so $P V$ is hyperbola
For $C \to D, T$ decrease at constant $V$ , so $P$ decreases
For $D \to A, T =$ constant, so $P V$ is hyperbola

Q. V−T graph for a given mass of an ideal gas is shown in the figure. Then the corresponding P−V graph would be ( BC and DA are vertical lines, CD is horizontal line)

ForA→B,V∝T,soP=constant For B→C,T= constant, so PV is hyperbola For C→D,T decrease at constant V , so P decreases For D→A,T= constant, so PV is hyperbola

Q. $V - T$ graph for a given mass of an ideal gas is shown in the figure. Then the corresponding $P - V$ graph would be

( $BC$ and $D A$ are vertical lines, $C D$ is horizontal line)

$F or A \to B, V \propto T, so P = co n s t an t$
For $B \to C, T =$ constant, so $P V$ is hyperbola
For $C \to D, T$ decrease at constant $V$ , so $P$ decreases
For $D \to A, T =$ constant, so $P V$ is hyperbola