Twin-turbine heat and power cogeneration system and method based on aluminum water reaction
A technology of aluminum water reaction and cogeneration of heat and power, applied in circuits, fuel cells, electrical components, etc., can solve problems such as low energy efficiency, waste of energy resources, and non-use of reaction heat, and achieve high system efficiency
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specific Embodiment 1
[0052] Specific embodiment 1 ( figure 1 )
[0053] A certain amount of millimeter-scale (5-10mm) massive water-reactive metals (aluminum alloys are composed of 85% aluminum, 7% lithium, and 8% magnesium) in the reactor cavity 3, firstly, the reactor cavity 3 is pre-treated. After reaching 700°C, the booster pump 1 is started to pass water to the aluminum-water reactor. There are two paths of water, and one path enters the reactor cavity 3 as reaction water to react with the water-reactive metal to generate aluminum oxide and hydrogen, and release a large amount of heat. The other way, water as the working medium, enters the heat exchange component 2, absorbs part of the heat of reaction, and turns into superheated steam. When the temperature and pressure of the gas in the reactor cavity 3 reach a predetermined value, the outlet valve is opened. Hydrogen (2MPa, 600°C) flows out of the reactor cavity 3 and enters the hydrogen turbine 4 to drive the generator 5, which converts...
specific Embodiment 2
[0054] Specific embodiment 2 ( figure 2 ):
[0055] A certain amount of millimeter-scale (5-10mm) massive water-reactive metals (aluminum alloys are composed of 90% aluminum, 5% lithium, and 5% magnesium) in the reactor cavity 13, firstly, the reactor cavity 13 is pre-treated. After reaching 670°C, start the booster pump 11 to feed water to the aluminum-water reactor. There are two paths of water, and one path enters the reactor cavity 13 as reaction water to react with the water-reactive metal to generate aluminum oxide and hydrogen, and release a large amount of heat. The other way, water as the working medium, enters the heat exchange component 12, absorbs part of the heat of reaction, and turns into superheated steam. When the gas temperature and pressure in the reactor cavity 13 reach a predetermined value, the outlet valve is opened. Hydrogen (1MPa, 500°C) flows out of the reactor cavity 13 and enters the hydrogen turbine 14 to drive the generator 15, which converts ...
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