Application of solar-energy-phase-change heat storage technology and waste heat recovery technology to prefabricated concrete member maintenance process

Abstract

The invention provides application of a solar-energy-phase-change heat storage technology and a waste heat recovery technology to a prefabricated concrete member maintenance process and belongs to the field of application of renewable energy sources. A device comprises solar air collectors, a heating chamber, a constant-temperature chamber and a cooling chamber. Each solar air collector is provided with a supply air duct, a return air duct and a first fan. A first supply air opening and a first return air opening are formed in the constant-temperature chamber. A second supply air opening and a second return air opening are formed in the heating chamber. A return air opening, below prefabricated concrete members, in the heating chamber, a first return air duct, a second fan, a first supply air duct and a supply air opening, below the prefabricated concrete members, in the cooling chamber are sequentially connected. A suction hood, above the prefabricated concrete members, in the cooling chamber, a second return air duct in a waste heat recovery system, a third fan, a second supply air duct in the waste heat recovery system and a rotational flow air supply opening are sequentially connected, and the rotational flow air supply opening communicates with the heating chamber. By the adoption of the application of the solar-energy-phase-change heat storage technology and the waste heat recovery technology to the prefabricated concrete member maintenance process, the energy consumption of the prefabricated concrete member maintenance process is lowered, and carbon emission is reduced.

Description

technical field [0001] The invention relates to a high-efficiency energy-saving technology that comprehensively applies solar energy-phase change heat storage technology and waste heat recovery technology to the maintenance process of prefabricated concrete components, and belongs to the field of renewable energy applications. Background technique [0002] With the rapid development of urbanization in my country, housing industrialization has become a development trend, and it has also brought opportunities for the development of the precast concrete component production and processing industry. However, in the production process of precast concrete components, in order to achieve the required demoulding or prestressed tensile strength, it not only takes up to 10-18 hours of curing time, but also needs to provide a large amount of heat for the curing process, which is high energy consumption processing technology. The current maintenance process of precast concrete componen...

AI Technical Summary

Problems solved by technology

However, in the production process of precast concrete components, in order to achieve the required demoulding or prestressed tensile strength, it not only tak...

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