초록 ▼

In an intake-air refrigeration system of intake-air cooling type gas turbine power equipment, heat discharged to the atmosphere heretofore is recovered for further utilization. A refrigerant vapor discharged from and evaporator (05) of the refrigeration system is compressed by a refrigerant compress

In an intake-air refrigeration system of intake-air cooling type gas turbine power equipment, heat discharged to the atmosphere heretofore is recovered for further utilization. A refrigerant vapor discharged from and evaporator (05) of the refrigeration system is compressed by a refrigerant compressor (02) to be transformed to pressurized refrigerant vapor. Heat carried by the pressurized refrigerant vapor is supplied to a heat utilization system (80) to be recovered therein.

대표청구항 ▼

1. An intake-air cooling type gas turbine power equipment, comprising: a refrigeration system including an evaporator and a refrigerant compressor; an intake-air cooling chamber for cooling air taken in from the atmosphere by said evaporator of said refrigeration system; an intake air heating s

1. An intake-air cooling type gas turbine power equipment, comprising: a refrigeration system including an evaporator and a refrigerant compressor; an intake-air cooling chamber for cooling air taken in from the atmosphere by said evaporator of said refrigeration system; an intake air heating system that heats the cooled air to thereby obtain dry, low temperature air; an air compressor for compressing the dry, low temperature air to thereby produce compressed air; a combustor for burning a fuel supplied from an external system with the compressed air produced by said air compressor to thereby produce a combustion gas; a gas turbine driven rotationally under the action of said combustion gas produced by said combustor; and an electric generator operatively coupled to a rotor shaft of said gas turbine for generating electric energy, being driven through rotation of said rotor shaft; wherein the refrigerant vapor leaving said evaporator of said refrigeration system is compressed by said refrigerant compressor to be transformed to a pressurized refrigerant vapor, and wherein heat carried by said pressurized refrigerant vapor is supplied to the intake air heating system. 2. The intake-air cooling type gas turbine power equipment according to claim 1, wherein said pressurized refrigerant vapor that leaves said refrigerant compressor is circulated through said intake air heating system so that the heat carried by said pressurized refrigerant vapor is supplied to said intake air heating system for recovery. 3. The intake-air cooling type gas turbine power equipment according to claim 1, wherein said air intake heating system includes a heater for heating and drying the air cooled by said intake-air cooling chamber, wherein the heater is disposed within said intake-air cooling chamber at a cooled-air outlet side thereof, and wherein heat carried by said pressurized refrigerant vapor leaving said refrigerant compressor is utilized as a source of heat for said heater. 4. The intake-air cooling type gas turbine power equipment according to claim 1, wherein said intake air heating system includes a heater. 5. A method of operating gas turbine power equipment comprising the steps of: providing gas turbine power equipment comprising an evaporator, a refrigerant compressor, an intake air cooling chamber, an intake air heating system, an air compressor, a combustor, a gas turbine and an electric generator; cooling air taken in from the atmosphere by the evaporator in the intake air cooling chamber; heating the cooled air to thereby obtain dry low temperature air; compressing the dry low temperature air in the air compressor to thereby produce compressed air; burning a fuel with the compressed air to thereby produce a combustion gas; rotationally driving the gas turbine under the action of the combustion gas; and generating electric energy by the electric generator being driven through rotation of a rotor shaft of the gas turbine coupled to the electric generator; wherein refrigerant vapor leaving said evaporator is compressed by said refrigerant compressor to be transformed to a pressurized refrigerant vapor, and wherein, in the intake heating system, heat carried by said pressurized refrigerant vapor the cooled air to obtain the dry, low temperature air.