By analyzing the working principle of wind-hydrogen coupled power generation system and key equipment

the wind power generation model

basic electrolyzer model

compressor hydrogen storage tank model and proton exchange membrane fuel cell model are established. The influences of the working temperature of the basic electrolyzer on its output voltage

current and power

and the influences of the working temperature of the proton exchange membrane fuel cell and the gas pressure at the anode and cathode on its output voltage and power

are studied. Thus

the influences of the working performance of the hydrogen production module and the power generation module on the performance of the wind hydrogen coupled power generation system are analyzed. The influences of wind speed

working temperature of basic electrolyzer and working temperature of proton exchange membrane fuel cell on power generation of the system are studied through simulation. The results show that

properly increasing the working temperature of the basic electrolyzer can increase its working current

thus to increase the hydrogen production capacity of the hydrogen production module. Increasing the working temperature and gas pressure at the anode and cathode can increase the output voltage and power of the proton exchange membrane fuel cell

thus to improve the power generation capacity of the power generation module and enhance the working performance of the wind hydrogen coupled power generation system.