A steam power plant is based on the Rankine cycle with reheat (refer to the figure below). Steam is produced by the boiler/superheater (H1) at 100 bar and 600C at a rate of 2.5kgs1. This is expanded to 10 bar in the turbine T1 and then reheated to 600C in heater H2. The steam is then expanded in turbine T2 to a pressure of 0.1 bar. The steam is then condensed in condenser (C-1) which operates at 0.1 bar. The liquid water leaving the condenser may be assumed to be saturated. The condensate is returned, via pump P-1, to the boiler as feed. Turbines T-1 and T-2 have 90% efficiencies. The power required for pump P-1 may be assumed to be negligible. Calculate i) the power (kW) produced in each turbine (T-1, T-2) ii) the duty (kJhr1) of each heater (H1,H2) iii) the duty (kJhr1) of the condenser (C1), and iv) the thermal cycle efficiency. Is the steam leaving turbine T-2 wet or dry? Note: The enthalpy of saturated liquid water at 0.1 bar is 191.81kJkg1. A steam power plant is based on the Rankine cycle with reheat (refer to the figure below). Steam is produced by the boiler/superheater (H1) at 100 bar and 600C at a rate of 2.5kgs1. This is expanded to 10 bar in the turbine T1 and then reheated to 600C in heater H2. The steam is then expanded in turbine T2 to a pressure of 0.1 bar. The steam is then condensed in condenser (C-1) which operates at 0.1 bar. The liquid water leaving the condenser may be assumed to be saturated. The condensate is returned, via pump P-1, to the boiler as feed. Turbines T-1 and T-2 have 90% efficiencies. The power required for pump P-1 may be assumed to be negligible. Calculate i) the power (kW) produced in each turbine (T-1, T-2) ii) the duty (kJhr1) of each heater (H1,H2) iii) the duty (kJhr1) of the condenser (C1), and iv) the thermal cycle efficiency. Is the steam leaving turbine T-2 wet or dry? Note: The enthalpy of saturated liquid water at 0.1 bar is 191.81kJkg1