Abstract:
연소실로 연료를 분사하는 통형상의 연료 분사노즐, 연료 분사노즐을 다단으로 감싸되, 연료 분사노즐을 축심으로 하여 동심적으로 배열되어, 연소실로 공기를 공급하는 다단 공기공급부, 및 연료 분사노즐의 단부 영역과 결합되고, 연료분사구를 가진 예/혼합기;를 포함하며, 연료분사구와 다단 공기공급부는 연통되어 있으며, 연료 분사노즐을 통해서 제공되는 연료의 일부가 연료분사구를 통해서 다단 공기공급부 측으로 제공되는 것인, 질소산화물 저감용 공기 다단 연소기가 개시된다. 이로써, 화염 온도가 국부적으로 고온화되는 것을 억제시켜 질소산화물(NOx)의 발생을 저감시킬 수 있다.
Abstract:
PURPOSE: A compressed air storage generation system is provided to improve energy efficiency in a process of production of electricity using compressed air. CONSTITUTION: A compressed air storage generation system comprises: a first heat exchanger(20) exchanging thermally the compressed air through a compressor(10); an air separation unit(30) separating oxygen and nitrogen from the compressed air passed through the first heat exchanger; an oxygen storage tank(50) storing the oxygen separated from the air separation unit; a nitrogen storage tank(40) storing the nitrogen separated from the air separation unit; a burner(70) mixing the oxygen discharged from the oxygen storage tank with fuel, and then burning; a first turbine(80) operated by combustion gas discharged from the burner; and a second turbine(100) operated by nitrogen discharged from the nitrogen storage tank.
Abstract:
PURPOSE: A cogeneration system with a heat recovery system for the carbon dioxide enrichment of a greenhouse is provided to enable additional power generation when the heating of a greenhouse is not required by powering a steam turbine generator. CONSTITUTION: A cogeneration system with a heat recovery system for the carbon dioxide enrichment of a greenhouse comprises a combustion generator(110), an exhaust gas shift switch(130), first and second exhaust gas supply lines(L11,L12), first and second heat exchangers(130,135), a heating line(L21), a heat recovery line, a steam turbine generator(136), and first and second electrical lines(L31,L32). The combustion generator produces electricity using the combustion of a combustor. The exhaust gas shift switch switches the route of exhaust gas exhausted from the combustion generator. The first heat exchanger is coupled to the first exhaust gas supply line and heats heating water using the heat of the exhaust gas.
Abstract:
PURPOSE: A reformer using unreacted fuel discharged from a fuel cell stack, a fuel cell system, and a driving method thereof are provided to improve fuel efficiency by supplying stable heat to a reformer. CONSTITUTION: A reformer of a fuel cell stack comprises a reforming reaction unit(22) with a space in which flame is generated; a first heating pipe(28) in which a combustion catalyst is built in and unreacted fuel discharged from a fuel cell stack and air are flow in; and a heating unit(24) containing a mixing pipe(27) in which unreacted fuel heated in the first heating pipe and air.
Abstract:
A turbine blade and a turbine using the same are provided to prevent the fluid colliding with the front end from interrupting another fluid flowing toward the lateral side because the fluid having flowed to the front end of the turbine blade flows out to the outflow hole through the inflow hole. A turbine blade comprises an inflow hole(170) and an outflow hole(180). The front end(154) of the turbine blade is flat in relation to the inflow direction of the fluid. The inflow holes are successively formed in the plane of the front end thereof. The outflow hole is formed in the side of the turbine blade and is connected to the inflow hole. The outflow hole is formed in a suction surface(150) which is convex. The inflow or outflow hole is inclined.
Abstract:
A gas turbine system preventing overheating is provided to discharge air by extending an air passage to an air discharge port. A gas turbine system includes a rotational shaft(10), a body(20), a fixing chamber(30), a combustion chamber(40), a fuel supplying unit(50), a compressor(60), an air passage(65), a plurality of separators, an ignition part(70), a combustion gas passage(80), a turbine(90), and a cold air passage(100). The mixing chamber is provided at one side of the body. Fuel is introduced into the mixing chamber. An air compressed by the compressor is introduced into the mixing chamber through the air passage. The combustion chamber rotates with the rotational shaft.
Abstract:
An apparatus for uniform flow distribution is provided to distribute the flow of materials uniformly at a front end of a catalyst layer regardless of input direction of reactants, by disposing a plurality of porous plates such that the porous plates are distanced from each other without overlapping pores of adjacent porous plates. A catalyst reactor is composed of a reacting part(10) having a catalyst layer(11), an inputting part(20) installed at one end of the reacting unit, and an outputting unit(30) installed at the other end of the reacting unit. A plurality of porous plates(40) are disposed between the inputting unit and the catalyst layer within the reacting part. The porous plates are distanced from each other while pores of adjacent porous plates hardly overlap. The total area of all pores has 1-30 % of the area of the porous plate.
Abstract:
본 발명은 배기가스 재순환 산소연소기에 관한 것으로서, 연료를 공급하는 연료주입구;연료주입구의 일단에 결합되어 있고, 타단은 연소실 내부까지 관통된 상태에서, 연료주입구를 통해 연료를 연소실 내부의 화염지역 근방까지 분사하는 연료노즐;연소기 내부에 제 1 소정 공간을 형성하여 연소실 내부의 화염지역으로 산화제를 공급하는 제 1 챔버;제 1 챔버와 인접해 있고 격리되어, 연소실 내부의 화염지역으로 산화제 및 배기가스가 원활히 공급되도록 하는 제 2 챔버;제 1 챔버에 결합되어 외부로부터 산화제를 공급받는 제 1 산화제 공급관;제 1 챔버에 저장된 산화제를 연소실 내부로 분사하는 제 1 산화제 노즐;산화제 및 연소실 내부에서 생성되는 배기가스를 제 2 챔버로 공급하는 제 2 산화제 공급관;제 2 챔버에 저장된 산화제 및 배기가스를 연소실 내부로 분사하는 제 2 산화제 노즐;제 2 챔버의 일면과 결합되어 연소기를 지탱하는 결합플레이트;연료노즐을 통해 분사되는 연료를 점화시키는 점화장치; 및 연소실 내부에서 결합플레이트의 일면에 연료노즐과 수직하게 결합하여 연소실 내부의 화염에 의해 야기되는 연소기의 온도 상승을 저감시키고, 연소실 내부의 형성되는 화염을 안정화시키는 퀄; 을 포함한다. 산소연소기, 배기가스, 재순환, 퀄, 내화물