We can use the relation for the compressibility factor \( Z \) of a real gas: \[ Z = \frac{PV}{nRT}. \] Given the compressibility factor, we can modify the ideal gas equation: \[ V = \frac{ZnRT}{P}. \] For two different states of the gas, we can set up the following equation: \[ \frac{V_2}{V_1} = \frac{Z_2 P_1 T_1}{Z_1 P_2 T_2}. \] Given values:
Substitute these values into the equation: \[ V_2 = V_1 \times \frac{Z_2 P_1 T_1}{Z_1 P_2 T_2}. \] \[ V_2 = 0.15 \times \frac{1.4 \times 100 \times 500}{1.07 \times 300 \times 300}. \] \[ V_2 \approx 0.15 \times \frac{70000}{96300} \approx 0.1089 \, \text{dm}^3. \] \[ V_2 \approx 108.9 \times 10^{-3} \, \text{dm}^3. \] Thus, the volume of the gas at 300 atm and 300 K is approximately \( 108.9 \times 10^{-3} \, \text{dm}^3 \)
What will be the equilibrium constant of the given reaction carried out in a \(5 \,L\) vessel and having equilibrium amounts of \(A_2\) and \(A\) as \(0.5\) mole and \(2 \times 10^{-6}\) mole respectively?
The reaction : \(A_2 \rightleftharpoons 2A\)

Cobalt chloride when dissolved in water forms pink colored complex $X$ which has octahedral geometry. This solution on treating with cone $HCl$ forms deep blue complex, $\underline{Y}$ which has a $\underline{Z}$ geometry $X, Y$ and $Z$, respectively, are
What will be the equilibrium constant of the given reaction carried out in a \(5 \,L\) vessel and having equilibrium amounts of \(A_2\) and \(A\) as \(0.5\) mole and \(2 \times 10^{-6}\) mole respectively?
The reaction : \(A_2 \rightleftharpoons 2A\)
A black body is at a temperature of 2880 K. The energy of radiation emitted by this body with wavelength between 499 nm and 500 nm is U1, between 999 nm and 1000 nm is U2 and between 1499 nm and 1500 nm is U3. The Wien's constant, b = 2.88×106 nm-K. Then,