초록 ▼

A waste-heat gas driven cogeneration having a micro gas turbine, driving portions including high-temperature-side hydrogen storage alloy containers respectively and operated by heat exchange between waste-heat gas generated from the turbine and a cooling heat medium, and cold-heat generating portion

A waste-heat gas driven cogeneration having a micro gas turbine, driving portions including high-temperature-side hydrogen storage alloy containers respectively and operated by heat exchange between waste-heat gas generated from the turbine and a cooling heat medium, and cold-heat generating portions including low-temperature-side hydrogen storage alloy containers respectively to absorb and release hydrogen into/from the containers to generate cold heat and supply the cold heat.

대표청구항 ▼

1. A cogeneration system using micro gas turbine waste-heat gas, comprising: a micro gas turbine; a driving portion comprising a high-temperature-side hydrogen storage alloy container and for absorbing hydrogen through heat exchange between said high-temperature-side hydrogen storage alloy conta

1. A cogeneration system using micro gas turbine waste-heat gas, comprising: a micro gas turbine; a driving portion comprising a high-temperature-side hydrogen storage alloy container and for absorbing hydrogen through heat exchange between said high-temperature-side hydrogen storage alloy container and a cold-heat heat medium, said driving portion being capable of releasing hydrogen through heat exchange between said high-temperature-side hydrogen storage alloy container and waste-heat gas from said micro gas turbine; and a cold heat output portion, connected to said driving portion so that hydrogen can move therebetween, comprising a low-temperature-side hydrogen storage alloy container and being capable of absorbing and releasing hydrogen by use of said low-temperature-side hydrogen storage alloy container in accordance with the operation of said driving portion to generate cold heat, and transmit said cold heat to a cooling heat medium to thereby externally supply said cold heat through said cooling heat medium, wherein said heat exchange between said high-temperature-side hydrogen storage alloy container and said waste-heat gas from said micro gas turbine is a direct heat exchange. 2. A cogeneration system using micro gas turbine waste-heat gas according to claim 1, wherein an additional heat exchange is performed between said waste-heat gas from said micro gas turbine and an additional high-temperature-side container indirectly through steam generated by heat of said waste-heat gas. 3. A cogeneration system using micro gas turbine waste-heat gas according to claim 1, wherein said driving portion and said cold heat generating portions are provided multistageously respectively so that waste-heat gas subjected to heat exchange in a pre-stage driving portion is further subjected to heat exchange in a post-stage driving portion. 4. A cogeneration system using micro gas turbine waste-heat gas according to claim 3, wherein a first heat exchange is performed between said waste-heat gas from said micro gas turbine and said pre-stage high-temperature-side container indirectly through steam generated by heat of said waste-heat gas, and further heat exchange is performed directly between said waste-heat gas, after said first heat exchange, and a high-temperature-side container in said post stage. 5. A cogeneration system using micro gas turbine waste-heat gas according to claim 1, further comprising a hot water generator for generating hot water by performing heat exchange between water of said hot water generator and said waste-heat gas after said waste-heat gas is subjected to the heat exchange in said driving portion. 6. A cogeneration system using micro gas turbine waste-heat gas according to claim 1, wherein said cooling heat medium is a liquid refrigerant.