In the following P-V diagram two adiabatics cut two isothermals at temperature `T_(1) and T_(2)` (fig). The value of `V_(a)/V_(d)` will be

In the following P–V diagram of an ideal gas, two adiabates cut two isotherms at T_1 and T_2 The value of V_B // V_C is :

Two different adiabatic parts for the same gas intersect two isothermals at T_(1) "and" ^ T_2 as shown in P-V diagram . Then the ratio of (V_(a))/(V_(b)) will be

Two different adiabatic curves for the same gas intersect two isothermals at T_(1), and T_(2) as shown in P-V diagram, (figure). How does the ratio (V_(a)//V_(d)) compare with the ratio (V_(b)//V_(c)) ?

Two different adiabatic curves for the same gas intersect two isothermals at T_(1), and T_(2) as shown in P-V diagram, (figure). How does the ratio (V_(a)//V_(d)) compare with the ratio (V_(b)//V_(c)) ?

Two different adiabatic curves for the same gas intersect two isothermals at T_(1), and T_(2) as shown in P-V diagram, (figure). How does the ratio (V_(a)//V_(d)) compare with the ratio (V_(b)//V_(c)) ?

In the P - V diagram, the point B and C correspond to temperatures T _(1) and T_(2) respectively. State relationship between T_(1) and T_(2).

The current (I) and voltage (V) graphs for a given metallic wire at two different temperature (T_(1)) and (T_(2)) are shown in fig. It is concluded that