
Answer:
The value is  [tex]V_2  =  0.246 \  m^3/h[/tex] Â
Explanation:
From the question we are told that
 The temperature at which the gas enters the compressor is Â
     [tex]T_i = 298 \  K[/tex]
 The pressure  at which the gas enters the compressor is Â
    [tex]P_I =  1.0 \ atm[/tex]
 The volumetric rate at which the gas enters the compressor is
   [tex]V  =  127 m^3/h[/tex]
  The temperature to which the gas is compressed to is Â
   [tex]T_f  =  358 \ K[/tex]
 The pressure  to which the gas is compressed to is Â
   [tex]P_f=  1000 \  atm[/tex]
Generally the volumetric flow rate of compressed oxygen is evaluated from the compressibility-factor equation of state as
  [tex]V_2  =  V_1 *\frac{z_2}{z_1} * \frac{T_2}{T_1} * \frac{P_1}{P_2}[/tex]
Here [tex]z_1[/tex] is the inflow compressibility factor with value [tex]z_1 = 1[/tex]
Here [tex]z_1[/tex] is the outflow compressibility factor with value [tex]z_2 = 1.61[/tex]
So
  [tex]V_2  =  127*\frac{1.61}{1} * \frac{358}{298} * \frac{1}{1000}[/tex] Â
  [tex]V_2  =  0.246 \  m^3/h[/tex] Â
 Â