Guangdong Ocean University

Qing Xu

Haowei Li

Shengxian Xian

Weijun Feng

Xinxiang Pan

Yingpeng Cai

Weibin Xu

Xiaojia Fang

Yingchen Su

Shenwei Zhang

Yujian Wu

Yuanxing Mao

Jiakun Liu

Caisheng Li

Jianyao Chen

Yaokang Zhang

Shishi Li

Qianxi Zhang

Peng Zhang

Denghui Li

Jin Yan

Tengqing Liu

Xiaopeng Luo

Yan Liu

Jiayi Shao

Zijie Yin

Zhisi Yang

Dongxue Yao

Ye Xie

A system for peak shaving with coupled surplus energy utilization and solid waste treatment is provided. The system includes a solar concentrating tower provided with a heat absorber, a gasifier, a gas storage tank, a tar storage mechanism, and a microwave pyrolysis device. The heat absorber configured to supply heat to the gasifier. The gasifier is configured to pyrolyze solid waste into primary combustible gas, pyrolysis oil, and pyrolysis char. The gas storage tank is in fluid communication with the gasifier and configured to collect the primary combustible gas. The tar storage mechanism is in fluid communication with the gasifier and configured to store the pyrolysis oil and the pyrolysis char. The microwave pyrolysis device is powered by a thermal power generation unit. The microwave pyrolysis device is configured to pyrolyze the pyrolysis oil and the pyrolysis char into secondary combustible gas, which is collected into the gas storage tank.

Systems for peak shaving with coupled surplus energy utilization and solid waste treatment

A turbulence-enhanced liquid-solid friction nano power generation device is provided, including multiple power generation cores connected in parallel. Each of the power generation cores includes an outer tube, a friction liquid, external friction electrodes, internal turbulators and internal friction electrodes. When the power generation cores undergo a swing motion, the friction liquid inside the outer tube rubs against an inner wall of the outer tube and an outer membrane of each of the internal turbulators to generate charges; and the charges are transferred based on the external friction electrodes and the internal friction electrodes, and an alternating current is generated and is led out through an external wire.

Turbulence-enhanced liquid-solid friction nano power generation device

An efficient thermal control system for microcircuits based on liquid metal coolant is provided, including a cooling water system, a liquid metal supply system and a cooling system. The liquid metal supply system is used for supplying liquid metal to the cooling system to achieve heat exchange with a chip through the liquid metal, and the cooling water system is used for cooling the liquid metal. The cooling system includes a cooling capacity distribution unit used for distributing the liquid metal; cabinets provided with chip cooling platforms, which are connected to the cooling capacity distribution unit through a pipe, and are provided with the chip; a temperature measuring component used for measuring temperature of the chips; and a control unit, and cooling capacity distribution unit and the temperature measuring component are electrically connected to the control unit.

Efficient thermal control system for microcircuit based on liquid metal coolant

A heat-collecting forage drying system with wind-solar complementary energy supply includes a drying storehouse, an energy supply device and a drying system. The energy supply device includes a solar photovoltaic power generation plate, a wind turbine and a storage battery. The drying system includes an air-heat drying device and a hydrothermal drying device. The air-heat drying device includes a first solar collector, an air collector tube, an air blower and a standby electric auxiliary heater. The drying storehouse is provided with a flow equalizing plate. The flow equalizing plate separates the drying storehouse into an air inlet chamber and a storage chamber. The hydrothermal drying device includes a second solar collector, a water flow collector tube, a circulating water pump and a heat exchanger. The heat exchanger is mounted on the forage placing station, and the heat exchanger is in communication with the circulating water pump.

Heat-collecting forage drying system with wind-solar complementary energy supply

A wave energy pressure amplification device includes a transmission chamber, a compression chamber, an oil storage chamber and a buoy. The transmission chamber is filled with hydraulic oil, a first slider is arranged on the hydraulic oil and connected to the buoy, and the buoy is used to drive the first slider to move in the transmission chamber. The transmission chamber is connected to the compression chamber via a first pipeline, and the oil storage chamber is filled with hydraulic oil and connected to the transmission chamber via a second pipeline. The compression chamber is connected to an air pipeline, and the air pipeline is provided with an air outlet one-way valve. The transmission chamber is driven by the buoy to drive the compression chamber to compress by hydraulic oil, and the pressure is continuously increased to reach the set value and discharged from the air outlet.

Wave energy pressure amplification device and marine ranching feeding system and method

A power generation unit and a power generation device are provided, belonging to the field of wave power generation. The power generation unit includes a housing, a magnet and an elastic assembly; the magnet is arranged inside the housing, the elastic assembly is arranged between the housing and the magnet, and the magnet and an inner wall of the housing are spaced apart. The housing includes an outer housing and an inner housing which are spaced apart, and the outer housing surrounds the inner housing, and an inner wall of the inner housing is circumferentially surrounded by an electromagnetic coil. The outer housing includes a first connection layer and a second connection layer which are laminated, and the inner housing includes a third connection layer and a fourth connection layer which are laminated.

Power generation unit and power generation device

Provided is a marine current energy generating device for a deep sea cage. The marine current energy generating device includes a vortex vibration generating portion, where the vortex vibration generating portion is used for generating vortex vibration on a side facing away from a marine current; power generating portions, where several nano friction generators are arranged in the power generating portions, and the several nano friction generators generate power by using the vortex vibration generated by the vortex vibration generating portion and are electrically connected to each other; a guide portion, where the guide portion is used for making the vortex vibration generating portion perpendicular to a direction of the marine current all the time; and corrosion protection assemblies, where the corrosion protection assemblies are arranged at joints of the vortex vibration generating portion to the power generating portions and the guide portion.

Marine current energy generating device for deep sea cage

Growing community of inventors

Zhanjiang, China

Qing Xu