4.3 Article

Cooling, heating and power system

Journal

Publisher

OXFORD UNIV PRESS
DOI: 10.1093/ijlct/ctac122

Keywords

environmental analysis; linear parabolic collector; heating and power system; combined cooling; thermal analysis

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Systems of cogeneration of cooling, heating and electric power with renewable energy sources are an effective solution for reducing dependence on fossil fuels and minimizing environmental pollution. This research utilized an internal combustion engine, a boiler, and a linear parabolic concentrating collector to generate both electrical and thermal energy. The internal combustion engine produced electric power, which was used to generate thermal energy through the concentrated linear collector with the boiler and heat exchanger. A thermal storage tank was employed to store the thermal energy produced by the solar collector and boiler, allowing for supply during required periods. The results demonstrate that the proposed thermal power plant with fossil fuel has lower total costs of final products ($69.3 and $63.5) compared to the fossil system during the hottest month of summer, and also lower total costs ($31.6 and $28.5) during the coldest month of winter.
Systems of cogeneration of cooling, heating and electric power with renewable energy sources are a very suitable solution for the independency of fossil fuels and reducing the emission of environmental pollutants. In this research, an internal combustion engine with a boiler and a linear parabolic concentrating collector has been used to realize the production of electrical and thermal energy. That the internal combustion engine is responsible for the production of electric power, which is responsible for the thermal energy by the concentrated linear collector with the boiler and the heat exchanger. Due to the need for thermal energy at different times, a thermal storage tank has been used in such a way that the thermal energy produced by the solar collector and boiler is stored in the tank to supply the load at the required times. The results show that the total cost of final products for one day of the hottest month of summer in the proposed thermal power plant with fossil fuel will be $69.3 and $63.5, respectively, and for 1 day of the coldest month of winter, the total cost of producing final products in the proposed and fossil system will be $31.6 and $28.5, respectively.

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