초록 ▼

A cogeneration system in which cold is generated by recovering exhaust heat of a gas turbine for driving a generator to drive a refrigerating machine, and the cold is used for cooling intake air for the gas turbine and as a cold heat source for an air conditioner, wherein there are provided a therma

A cogeneration system in which cold is generated by recovering exhaust heat of a gas turbine for driving a generator to drive a refrigerating machine, and the cold is used for cooling intake air for the gas turbine and as a cold heat source for an air conditioner, wherein there are provided a thermal storage tank for storing the cold generated by the refrigerating machine and an electric energy storage equipment for storing electric energy generated by the generator; and cooling of the intake air for the gas turbine, thermal storage, and electric energy storage are controlled in relation to the load of the air conditioner and the electric power load of the generator.

대표청구항 ▼

A cogeneration system in which cold is generated by recovering exhaust heat of a gas turbine for driving a generator to drive a refrigerating machine, and the cold is used for cooling intake air for the gas turbine and as a cold heat source for an air conditioner, wherein there are provided a therma

A cogeneration system in which cold is generated by recovering exhaust heat of a gas turbine for driving a generator to drive a refrigerating machine, and the cold is used for cooling intake air for the gas turbine and as a cold heat source for an air conditioner, wherein there are provided a thermal storage tank for storing the cold generated by the refrigerating machine and an electric energy storage equipment for storing electric energy generated by the generator; and cooling of the intake air for the gas turbine, thermal storage, and electric energy storage are controlled in relation to the load of the air conditioner and the electric power load of the generator. it is circumferentially offset from the other obturators (20) in about 90°. 10. Device, as in claim 9, characterized in that the tubular case (10) is formed by two semi-cylindrical tubular portions, to be affixed to each other and around to the shaft (30) and the obturators (20) mounted thereon. 11. Device, as in claim 1, characterized in that it comprises, for each air flow heating environment (1, 2, 4), a hollow body (11) defining, internally, a chamber, in which are provided respective inlet and outlet nozzles (12, 13) and inside which is mounted a respective obturator (20). 12. Device, as in claim 11, characterized in that the hollow bodies (11) define a tubular case (10). 13. Device, as in claim 12, characterized in that the hollow bodies (11) are provided longitudinally adjacent to each other, each two adjacent hollow bodies (11) being separated by a common transversal wall (14). 14. Device, as in claim 11, characterize in that each obturator (20) has a longitudinal extension substantially corresponding to that of the respective hollow body (11) and a radial extension which is determined in order to be sufficient to block, in a closing position, at least one of the inlet and outlet nozzles (12, 13) of the respective hollow body (11).