FIELD: power industry.
SUBSTANCE: method for obtaining electric energy on the basis of transformation of kinetic energy of air masses movement consists in the fact that intake of air masses is performed from the environment; potential energy of air masses is increased by means of their energy excitation using external energy; air masses are accumulated and heated in accumulator-radiator; heated air masses are supplied to isolated air pipeline for movement of air masses with intensity of power field in it; intensity of power field in air pipeline is created and increased artificially by conversion of solar energy to temperature difference in air pipeline, as well as by formation of pressure and temperature difference of air masses on opposite ends of air pipeline due to level difference of air pipeline; air masses move with acceleration in isolated air pipeline at the outlet of which air masses rotate the turbine generator in order to generate electric energy. According to the invention, air masses are heated in accumulator-radiator by means of heating elements as well; outer side of air pipeline is made of unit of solar photovoltaic arrays, and air masses are cooled in cooling radiator for air masses at the air pipeline outlet. Device designed for method's implementation includes accumulator-radiator of air masses, air pipeline and electric current turbine generator. According to the invention, accumulator-radiator for heating of air masses includes heating elements, and device also includes the first thermal solar collector, air mass cooling radiator, unit of solar photovoltaic arrays, electric energy accumulator, electric converter, control unit, the second thermal solar collector, cooling converter of air masses; at that, outlet of the first thermal solar collector is connected to the first inlet of accumulator-radiator for heating of air masses, the outlet of which is connected to the first inlet of air pipeline, air pipeline is formed of unit of solar photovoltaic arrays, the outlet of which is connected to the first electric energy accumulator inlet, the outlet of which is connected to the first inlet of electric converter, and outlet of air pipeline is connected to the first inlet of air mass cooling radiator the outlet of which is connected to the first inlet of turbine generator the first outlet of which is the first outlet of device, and the second inlet of turbine generator is connected to outlet of control unit the outlet of which is connected to inlet of the first thermal solar collector, the second inlet of accumulator-radiator for heating of air masses, the second inlet of air pipeline, inlet of unit of solar photovoltaic arrays, the second inlet of electric energy accumulator, the second inlet of the second thermal solar collector, the second inlet of converter-cooler of air masses, the second inlet of cooling radiator of air masses, the second inlet of electric converter the first outlet of which is connected to the third inlet of accumulator-radiator for heating of air masses, the first inlet of the second thermal solar collector, the third inlet of cooling radiator of air masses the fourth inlet of which is connected to outlet of converter-cooler of air masses, the first inlet of which is connected to outlet of the second thermal solar collector, and the second outlet of electric converter is the second outlet of the device, the second outlet of turbine generator is the third outlet of the device, and the fourth inlet of accumulator-radiator for heating of air masses is the device inlet.
EFFECT: increase and maintenance of thrust is performed owing to transformation of heat and light solar energy and special resonant selection of parameters of the device and parameters of air masses in air pipeline in order to obtain electric energy.
2 cl, 1 dwg
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Authors
Dates
2012-03-27—Published
2010-02-25—Filed