“…the design, simulation, and experimental testing of a 24 kHz, 100 kW electromagnetic thermal storage system. 22–25 The system mainly includes a power generation system, rectifier circuit, DC/DC converter, filter circuit, inverter circuit, controller, electromagnetic induction heating, cold water supply, and hot water storage. This paper mainly studies the influence of Q235 steel, double sleeve induction heating structure, and composite resonant full-bridge inverter on the performance of energy storage systems.Figure 1.The electromagnetic energy storage system.…”
Based on the principle of electromagnetic induction, this paper proposes a new sleeve structure of electromagnetic induction heating energy storage system, which converts the electrical energy that cannot be consumed by wind power, solar power and other power grids into heat energy. The electromagnetic induction heating model of the eddy current field is established by Ansoft/Maxwell, and the magnetic induction intensity, current penetration depth and current frequency are analyzed. The three-dimensional fluid temperature field and its corresponding temperature characteristics of the system are analyzed by Ansys/Fluent. The temperature field cloud diagram of the sleeve is analyzed. It is concluded that with the increase of air thickness, the loss of the internal iron pipe increases, and the loss of the middle iron pipe decreases. The characteristic curve of the resonant circuit of the electromagnetic induction heating power supply is simulated and analyzed to determine the optimal parameters of the resonant circuit of the induction heating. A 100 kW electromagnetic energy storage system is developed, and the effectiveness and practicability of the method are verified, which can be applied to high power thermal energy storage.
“…the design, simulation, and experimental testing of a 24 kHz, 100 kW electromagnetic thermal storage system. 22–25 The system mainly includes a power generation system, rectifier circuit, DC/DC converter, filter circuit, inverter circuit, controller, electromagnetic induction heating, cold water supply, and hot water storage. This paper mainly studies the influence of Q235 steel, double sleeve induction heating structure, and composite resonant full-bridge inverter on the performance of energy storage systems.Figure 1.The electromagnetic energy storage system.…”
Based on the principle of electromagnetic induction, this paper proposes a new sleeve structure of electromagnetic induction heating energy storage system, which converts the electrical energy that cannot be consumed by wind power, solar power and other power grids into heat energy. The electromagnetic induction heating model of the eddy current field is established by Ansoft/Maxwell, and the magnetic induction intensity, current penetration depth and current frequency are analyzed. The three-dimensional fluid temperature field and its corresponding temperature characteristics of the system are analyzed by Ansys/Fluent. The temperature field cloud diagram of the sleeve is analyzed. It is concluded that with the increase of air thickness, the loss of the internal iron pipe increases, and the loss of the middle iron pipe decreases. The characteristic curve of the resonant circuit of the electromagnetic induction heating power supply is simulated and analyzed to determine the optimal parameters of the resonant circuit of the induction heating. A 100 kW electromagnetic energy storage system is developed, and the effectiveness and practicability of the method are verified, which can be applied to high power thermal energy storage.
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