Superheated steam at 18 MPa, 560 degree Celsius, enters the turbine of a vapor power plant. The pressure at the exit of the turbine is 0.06 bar, and the liquid leaves the condenser at 0.045 bar, 26 degree Celsius. The pressure is increased to 18.2 MPa across the pump. The turbine and pump have isentropic efficiencies of 82% and 77%, respectively. For the cycle, determine the (a) net work per unit mass of steam flow, in kJ/kg, (b) the heat transfer to steam passing through the boiler, in kJ per kg of steam flowing, (c) the thermal efficiency,
Superheated steam at 18 MPa, 560 degree Celsius, enters the turbine of a vapor power plant. The pressure at the exit of the turbine is 0.06 bar, and the liquid leaves the condenser at 0.045 bar, 26 degree Celsius. The pressure is increased to 18.2 MPa across the pump. The turbine and pump have isentropic efficiencies of 82% and 77%, respectively. For the cycle, determine the (a) net work per unit mass of steam flow, in kJ/kg, (b) the heat transfer to steam passing through the boiler, in kJ per kg of steam flowing, (c) the thermal efficiency,
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Superheated steam at 18 MPa, 560 degree Celsius, enters the turbine of a vapor power plant. The pressure at the exit of the turbine is 0.06 bar, and the liquid leaves the condenser at 0.045 bar, 26 degree Celsius. The pressure is increased to 18.2 MPa across the pump. The turbine and pump have isentropic efficiencies of 82% and 77%, respectively. For the cycle, determine the (a) net work per unit mass of steam flow, in kJ/kg, (b) the heat transfer to steam passing through the boiler, in kJ per kg of steam flowing, (c) the thermal efficiency, (d) the heat transfer to cooling water passing through the condenser, in kJ per kg of steam condensed
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