Friction nanometer power generation device based on flywheel structure

Abstract

The invention provides a friction nanometer power generation device based on a flywheel structure, and the device comprises a sea wave triggering device, a tourbillon mechanism and a rotating disc type friction nanometer power generator; the power output end of the sea wave triggering device is connected to the driving end of the tourbillon mechanism; the power output end of the tourbillon mechanism is connected to the driving end of the rotating disc type friction nanometer generator, and the power output end of the rotating disc type friction nanometer generator is connected to a storage battery or an electric appliance. The sea wave triggering device is used for converting wave kinetic energy generated by periodical fluctuation of seawater into driving force for rotation of the tourbillon mechanism; the tourbillon mechanism is used for applying the driving force to the rotating disc type friction nanometer generator through power transmission, so that a power generation film of the rotating disc type friction nanometer generator generates relative motion, and electric energy is generated. According to the invention, high voltage can be generated to achieve a high-voltage output effect, and low-frequency excitation in the nature can be converted into stable high-frequency output characteristics.

Description

technical field [0001] The invention relates to the field of power generation devices, in particular to a friction nano power generation device based on a flywheel structure. Background technique [0002] With the rapid consumption and use of fossil fuel energy and the slow development of battery technology, triboelectric nanogenerators based on the principle of triboelectric charge electrostatic induction have developed rapidly in recent years. Nanogenerators have become an important choice for collecting various environmental energies and converting them into electrical energy in the future. However, most of the existing triboelectric nanogenerators on the market cannot convert from low-frequency input excitation in nature to stable output current characteristics due to their structural limitations. How to convert from low-frequency excitation in the natural ocean to The current output with high frequency and high stability has become one of the most difficult problems. ...

AI Technical Summary

Problems solved by technology

However, most of the existing triboelectric nanogenerators on the market cannot convert from low-frequency input excitation in nature to stable output current characteristics due to their structural limitations. How to convert from low-frequency excitation in the natural ocean to Current output with high frequency and high stability has become one of its most difficult problems

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