Energy conversion system based on metal microporous pipe network

Abstract

The invention belongs to the field of energy conversion systems, and particularly relates to an energy conversion system based on a metal microporous pipeline network. The energy conversion system comprises a cold medium heat exchange assembly (1), a hydraulic pump (5), a heat exchanger (6) and a power turbine (8). A pipeline port of a liquid distributor (102) of the cold medium heat exchange assembly (1) is connected with the heat exchange input port of the heat exchanger (6) through the hydraulic pump (5). The heat exchange output port of the heat exchanger (6) is connected with the inlet of the power turbine (8). The outlet of the power turbine (8) is connected with a gas distributor (103) of the cold medium heat exchange assembly (1). The heat exchanger (6) is of a cold medium heat transfer capillary structure. The power turbine (8) transmits power outwards through a turbine output shaft (801). The energy conversion system is low in cost, high in energy efficiency ratio, high in compatibility, remarkable in energy conservation and environment protection effect and wide in application range.

Description

Technical field [0001] The invention belongs to the field of energy conversion systems, and particularly relates to an energy conversion system based on a metal microporous pipe network. This system is suitable for the waste heat conversion of ships, cars, and aircraft, as well as building heating, cooling, power generation systems, power plant exhaust steam agricultural soil heating, and turbine dynamic (electric) power conversion systems. Background technique [0002] With the improvement of human living standards and the popularization of heating and cooling equipment, their carbon emissions have accounted for nearly one-third of the world’s energy consumption. The current power and heat efficiency of power plants, ships, cars, and airplanes is around 33-40%. Carbon emissions are overwhelmed. The maximum efficiency rate based on the thermodynamics of the Rankine cycle: Wmax=Q (T 1 -T 2 ) / T 1 Although there are countless inventions of waste heat power (power generation), with...

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Problems solved by technology

Based on the Rankine cycle thermodynamic maximum efficiency: Wmax=Q (T 1 -T 2 ) / T 1 , although there are countless inventions of waste heat power (power generation), but without the development of the most important low-temperature, low-cost heat dissipation components, the energy conversion efficiency is currently unable to achieve the expected indicators

How to solve the problems of poor comprehensive application efficiency, high production cost and low cost performance of power equipment has been widely concerned by people in the industry

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