29results about How to "Increase power generation capacity" patented technology

The present application relates to the technical field of photovoltaic equipment, and particularly relates to a photovoltaic module waterless cleaning device and system thereof, which comprises a mounting plate frame and photovoltaic panels uniformly mounted on the top of the mounting plate frame, and further comprises a waterless cleaning device arranged on the mounting plate frame, wherein the waterless cleaning device comprises: a smart driving assembly comprising a mounting frame, a controller, a double-shaft motor and a reciprocating conveying mechanism; and a waterless cleaning assembly comprising a mounting roller, a dust thickness detection mechanism, a pressurized air blowing mechanism, a hot spot detection mechanism and a marking mechanism. The present application has a reasonable structure, and the waterless cleaning device is ingeniously driven by the self-generated power of the photovoltaic panels. Through the advanced pressurized air blowing technology, the traditional mechanical water washing and manual wiping methods are efficiently and safely replaced, and the waterless and efficient cleaning of the photovoltaic module is realized. This design not only significantly improves the power generation efficiency of the photovoltaic power station, effectively prolongs the service life of the photovoltaic module, but also greatly reduces the cost and time input of the cleaning operation.

The application discloses a multi-degree-of-freedom wave energy recovery device and a modeling method thereof, and belongs to the field of ocean energy recovery.The application designs a multi-degree-of-freedom wave energy recovery device for recovering wave energy in the directions of heave, surge and sway according to the characteristics of wave motion.The wave energy recovery device is fixed near the coast, wave energy is absorbed by a floater, and the wave energy is converted into mechanical energy of the floater; and the mechanical energy of the floater is converted into electric energy by an energy recovery mechanism.Based on a seawater motion model and equivalent damping analysis of the wave energy recovery device, a modeling method of the multi-degree-of-freedom wave energy recovery device is provided, a mathematical model of the wave energy recovery device is established, conversion efficiency of the wave energy recovery device is calculated, and the feasibility of the model is verified.Compared with the prior art, the application has the advantages of multiple degrees of freedom, high energy conversion efficiency, convenient installation, compact structure, strong applicability and the like.

The invention belongs to the technical field of solar photovoltaic power generation, and discloses a static concentrating photovoltaic system and a synergistic cover plate assembly. The system comprises a structural multi-stage condensation link assembly, a photo-thermal branch path decoupling structure, a light guide cavity or light mixing cavity return filling structure and a three-dimensional light receiving structure, so that incident light is converted from plane one-way light receiving into a light receiving mode that the incident light is guided into the three-dimensional light receiving structure after being returned, returned and reused for multiple times in a fixed shape. Solar energy utilization is converted from a plane to a three-dimensional mode, a light receiving area folding relation is formed, the light receiving surface space utilization rate, the light energy utilization rate and the light receiving uniformity are improved, and heat recharge is relieved. The system can also integrate a multi-spectrum LED light supplementing assembly in the same cavity, and light supplementing compensation is provided under the working condition of weak light. The synergistic cover plate assembly is arranged above the existing planar photovoltaic assembly, and in-situ synergistic transformation is achieved through the structural multi-stage condensation link assembly, the transparent light and heat conduction component, the light mixing cavity, the heat conduction and flow guide structural component and the natural convection heat exchange channel.

The present application relates to the technical field of power grid peak shaving and comprehensive energy utilization, in particular to a heat pump coupled energy storage peak shaving system and method. The system comprises a low-parameter heat source unit, a heat pump temperature raising unit, a heat storage unit and a high-parameter power generation unit. The low-parameter heat source unit outputs heat source medium carrying heat; the heat pump temperature raising unit is in heat exchange connection with the low-parameter heat source unit, absorbs the heat of the heat source medium output by the low-parameter heat source unit and heats it; the heat storage unit is in heat exchange connection with the heat pump temperature raising unit, absorbs and stores the heat output by the heat pump temperature raising unit; and the high-parameter power generation unit is in heat exchange connection with the heat storage unit, absorbs the heat released by the heat storage unit and generates power. The system can effectively improve the power generation capacity of the high-parameter power generation unit, realize efficient energy conversion and utilization across time periods, and thus has flexible peak shaving capacity.

The application provides a self-powered intelligent forklift weighing system based on vibration energy collection, and relates to the fields of forklift weighing and energy collection.The system is mainly composed of an intelligent forklift weighing device, a vibration energy collection module and an energy storage module.The weighing device is connected with a shaft pin type tension sensor through front and rear hanging plates and a guide connecting assembly, so as to collect the horizontal force at the top of the vertical part of the fork, and realize accurate detection of the weight of goods;the vibration energy collection module is internally provided with a high-energy-density magnet array and an induction coil, the mechanical vibration of the forklift is used to drive the magnet to limit reciprocating motion, the induction voltage is generated by cutting the magnetic induction line, the nonlinear magnetic kinetic energy conversion model is introduced to dynamically tune the resonant frequency, and the energy collection efficiency is improved;the energy storage module is provided with an integrated rectification and voltage stabilization circuit, and relies on an EMCS intelligent control algorithm to adaptively switch three power supply modes of Buck-Boost, straight-through and energy storage priority.The forklift mechanical vibration is converted into electric energy, and the problem of power supply for the sensor of the forklift weighing system is effectively solved.

This invention relates to the design and fabrication method of a stretchable and shapeable thermoelectric device based on high-performance thin-film materials. First, a regular "paper-cut structure" array pattern is cut into a substrate thin-film material. Then, high-performance p-type and n-type thermoelectric materials are deposited sequentially on the substrate. Finally, electrode materials are deposited to connect the p-type and n-type thermoelectric materials in series. The thin-film thermoelectric device based on the paper-cut structure of this invention can transform from a two-dimensional planar structure to a three-dimensional structure under external force, changing the heat conduction within the device from a planar direction to a vertical direction, maximizing the utilization of the temperature difference between the heat source and the environment, and improving the device's power generation performance. Due to the three-dimensional network structure of the device itself, the cold end of the device can effectively exchange heat with the environment without the need for an additional heat dissipation module. The device structure of this invention is ingeniously designed, with strong compatibility in the fabrication process, and has significant application prospects in the field of wearable self-powered devices.

The present application relates to a kind of low-frequency environment suitable for many kinds of wobble power generation device, belong to new energy field.By shell, lid, outer wheel shaft, rocker, frequency modulation spring, frequency modulation block, circuit board, rotor, PZT vibrator and coil are constituted, the wire frame is equipped on the two side walls of shell, another two side walls are equipped with slot;Outer wheel shaft is constituted by outer shaft, outer small wheel and outer large wheel;Rocker is constituted by swing axle, swing disc and swing rod, swing axle is equipped with shaft plane;Rotor is constituted by magnetic cylinder and inner wheel shaft, and inner wheel is equipped on inner wheel shaft;Lid is installed on shell, and the plugboard of lid is implanted in slot and is formed with shell installation hole;Coil is installed on wire frame, and rotor is installed in wire frame cavity;Outer shaft and swing axle are installed on shell side wall, and outer small wheel and swing disc constitute outer transmission pair, and outer large wheel and inner wheel constitute inner transmission pair;Frequency modulation block is installed on rocker, and frequency modulation spring is arranged between rocker and shell;PZT vibrator is arranged between shell and lid and rocker;When rocker swings, coil cuts magnetic line to generate electricity, and PZT vibrator is bent to generate electricity.

The utility model discloses a river channel hydroelectric generation system which comprises a river channel with a fall, an artificial water channel is arranged on one side of the river channel, an inlet and an outlet of the artificial water channel are communicated with the river channel, a main water gate is arranged at the inlet of the artificial water channel, a plurality of turbine generator sets are sequentially arranged on the artificial river channel, and each turbine generator set comprises a shell. A turbine shaft is vertically installed in the shell, turbine blades are installed on the turbine shaft, the upper end of the turbine shaft extends out of the top of the shell and is connected with the power generation assembly, a water inlet is formed in the front side of the shell, a water outlet is formed in the rear side of the shell, a flow velocity sensor and a water level sensor are arranged on the front side of the water inlet, and the inner side of the shell is flush with the side wall of the artificial water channel and hinged to an adjusting cover. The adjusting cover is connected with a telescopic rod of an air cylinder installed on the side wall of the artificial water channel, a groove is formed in the position, corresponding to the turbine generator set, of the other side wall of the artificial water channel, and the outer side of the shell is arranged in the groove. The utility model has the advantages of strong stability, high power generation efficiency, long service life, convenience in repair and maintenance and the like.

This application discloses a method and apparatus for determining the structure of a wind turbine, a storage medium, and an electronic device. The method includes: determining a first radius of the front rotor of the wind turbine unit based on preset rated operating parameters and a target wind energy utilization efficiency; determining an initial second radius of the rear rotor of the wind turbine unit based on a preset proportional relationship and the first radius, wherein the front rotor and the rear rotor of the wind turbine unit rotate coaxially, with the front rotor located on the side of the rear rotor closer to the windward direction; performing flow field analysis on the front rotor and the rear rotor based on the first radius of the front rotor and the initial second radius of the rear rotor to determine the hollowed-out area of ​​the blades of the front rotor that ensures no interference between the flow fields of the front rotor and the rear rotor; replacing the blades in the hollowed-out area of ​​the front rotor with a hollow structure to obtain the target front rotor, wherein the wind turbine unit's rotor structure includes the target front rotor and the rear rotor. This improves the overall performance of the wind turbine unit and enables higher wind energy utilization.

The present application relates to the technical field of functional thin film material preparation; in particular, it relates to a friction power generation flexible cilium film and a preparation method thereof. The preparation method comprises the following steps: adhering a high-temperature adhesive tape to one side of a hole plate to prepare a cilium template; mixing metal particles with an organic solution to prepare a homogeneous mixed solution; coating the homogeneous mixed solution on the side of the cilium template without the high-temperature adhesive tape, performing vacuum perfusion and heating solidification, and then taking off the flexible cilium film; laying the taken-off flexible cilium film flat, spraying a polytetrafluoroethylene solution on the cilium array surface of the flexible cilium film, and drying to obtain the flexible cilium film. The friction power generation flexible cilium film provided by the present application is a bendable flexible polymer film, the cilium film has the characteristics of high flexibility, high elasticity and low cost, and can coordinate and take into account the friction power generation performance and durability of the material, and has a good application prospect in the field of friction power generation.

The invention relates to the technical field of new energy collection, and particularly discloses a communication signal tower integrating new energy collection and storage, unmanned aerial vehicle operation and maintenance and electric vehicle charging, the communication signal tower comprises a signal tower base, and the bottom of the side face of the signal tower base is fixedly connected with an automobile charging platform; the position, located above the automobile charging platform, of the side face of the signal tower base is fixedly connected with an unmanned aerial vehicle platform, the deflection assembly comprises a second telescopic rod, a driving shaft of the second telescopic rod is fixedly connected with a rotating seat, and deflection fan blades are rotationally connected to the side face of the rotating seat. The side faces of the deflection fan blades are rotationally connected with one ends of adjusting pull rods, and the ends, away from the deflection fan blades, of the adjusting pull rods are rotationally connected with the side faces of the fixed ends of the second telescopic rods. The purpose of facilitating photovoltaic collection and utilization and unmanned aerial vehicle maintenance is achieved.

This application discloses a method, apparatus, and photovoltaic system for controlling the support structure of a photovoltaic array, belonging to the field of photovoltaic systems. The method includes: controlling a target support structure to adjust a random angle from its initial posture towards a direction corresponding to a first target angle; controlling other supports to adjust random angles from their initial postures towards a direction corresponding to a second target angle, obtaining the adjusted maximum power generation performance index; determining a third target angle based on the adjusted maximum power generation performance index and the maximum initial power generation performance index of the photovoltaic array in its initial posture; controlling each support structure to adjust a random angle towards the direction corresponding to the third target angle and obtaining the power generation performance index corresponding to each photovoltaic string; updating the third target angle based on the angle of the photovoltaic string corresponding to the maximum value between the current maximum power generation performance index and the maximum power generation performance index corresponding to the previous adjustment; and controlling each support structure to adjust to the third target angle when the number of adjustments for each support structure reaches a target number.

The invention relates to the technical field of solar cells, and discloses a back contact laminated solar cell and a cell module. The cell comprises a substrate layer, a first carrier transport layer, a second carrier transport layer, a first light absorption layer and / or a second light absorption layer, a first electrode and a second electrode, wherein the substrate layer comprises a light receiving surface and a backlight surface; the first carrier transport layer is arranged in the first area of the backlight surface; the second carrier transport layer is arranged in the second region; the first light absorption layer with the band gap width larger than that of the substrate layer is arranged on the light receiving surface; the second light absorption layer with the band gap width smaller than that of the substrate layer is arranged on the backlight face, the first electrode is connected with the first carrier transmission layer, and the second electrode is connected with the second carrier transmission layer. The first light absorption layer and the second light absorption layer can be arranged on the light receiving face and the backlight face respectively, band gaps are gradually decreased from top to bottom, absorption of light of different wave bands can be enhanced, and the photoelectric conversion efficiency and the power generation performance are improved.

The utility model provides a photovoltaic thermal insulation integrated plate, which belongs to the technical field of photovoltaic thermal insulation plates and comprises photovoltaic glass, a thermal insulation plate, a metal plate, a junction box and a through hole. The photovoltaic glass is located on the outermost layer of the integrated plate, the heat preservation plate is located on the inner layer of the integrated plate, and the metal plate is arranged between the photovoltaic glass and the heat preservation plate. The junction box is arranged on one side of the photovoltaic glass and is electrically connected with the photovoltaic glass, the metal plate is of a wavy, concave-convex or flat-plate-shaped plate body structure, wave crests or protrusions of the metal plate are close to one side of the photovoltaic glass, wave troughs or recesses of the metal plate are close to one side of the heat preservation plate, and the heat preservation plate further comprises a pressing plate. According to the photovoltaic heat preservation integrated plate, the defect that the construction period of on-site layered installation of a traditional photovoltaic heat preservation integrated plate is long is overcome, and the construction efficiency is improved.

The invention provides a reservoir area floating type photovoltaic array anchoring system coupled with ecological water purification. The reservoir area floating type photovoltaic array anchoring system comprises floating type photovoltaic array units, a net-shaped main cable system, a multifunctional ecological anchor chain unit and multiple demersal fixing devices. The floating photovoltaic array unit is arranged on the water surface of a reservoir and serves as a power generation main body of the system; the net-shaped main cable system is connected below the floating photovoltaic array units to form a flexible connection and global load transmission network; the upper end of the multifunctional ecological anchor chain unit is connected to the net-shaped main cable system, and the multifunctional ecological anchor chain unit is internally integrated with a porous columnar carrier and is filled with a slow-release ecological mineral material; the benthic fixing device provides final anchoring force for the system. According to the invention, an anchoring solution which is high in reliability and adapts to a complex hydrodynamic environment is provided for floating photovoltaic in a reservoir area, multifunctional coupling of photovoltaic power generation, efficient utilization of a water surface space and ecological purification of a reservoir water body is synchronously realized, and comprehensive benefits and environmental friendliness of the system are remarkably improved.

The present application relates to a kind of self-powered buoy based on wind-light-wave multi-energy complementation and its power generation method, belong to power generation buoy technical field, the buoy includes oscillating water column float, oscillating water column float is provided with wave energy power generation module, the top of oscillating water column float is provided with photovoltaic power generation module and wind power generation module, the bottom of oscillating water column float is provided with anchoring lifting module;Wherein, wave energy power generation module includes mechanical wave energy power generation unit and pneumatic wave energy power generation unit, improves the energy capture efficiency and power generation performance of wave energy power generation module in complex sea state, to further improve the total power output value.The present application is powered by wind, light, wave three kinds of energy multi-energy complementary power generation, solves the problems, such as single power supply mode, unstable output power, limited energy density of traditional marine renewable energy power generation device.

This invention discloses an air-cooled fuel cell based on a series flow field, comprising: a fuel cell stack with an installation end face; a series flow field structure integrated on the fuel cell stack, including independently connected cooling channels, a flow splitter assembly, and a cathode reaction channel; wherein, the independently connected cooling channels have an independent cooling channel inlet and an independent cooling channel outlet, both disposed on the installation end face; the cathode reaction channel has a cathode reaction channel inlet and a cathode reaction channel outlet, both disposed on the installation end face; the flow splitter assembly is disposed on the outer side of the installation end face and connects the outlet of the independently connected cooling channels to the inlet of the cathode reaction channel; and a fan is disposed on the installation end face and connected to the inlet of the independently connected cooling channels. This invention enables a single fan to supply air to both the independently connected cooling channels and the cathode reaction channel, while simultaneously decoupling the flow rates of the two channels, thereby improving the power generation performance and operational reliability of the air-cooled fuel cell.

A device for wind turbine primary frequency modulation, including machine side converter and grid side converter, one side of the machine side converter is electrically connected with the grid side converter, the other side of the machine side converter is electrically connected with the permanent magnet synchronous generator, the input shaft of the permanent magnet synchronous generator is connected with the rotating shaft of the wind turbine, the air pressure energy storage unit includes energy storage side converter, air compressor, small steam turbine generator and gas tank. Through the cooperation between the power grid, servo motor, piston, rotating disc and energy storage side converter, the current of wind power is transmitted to the power grid through the machine side converter, and the current generated by high pressure gas energy storage is transmitted to the power grid through the energy storage side converter, so as to realize the frequency modulation process, effectively avoid the problem that the current flywheel energy storage technology is not very mature, and the flywheel is usually made of carbon fiber material, which is not suitable for the large range and large quantity of wind turbine use requirements from the processing difficulty and cost.

The utility model discloses a kind of counter-rotating ducted current power generation devices, belong to marine engineering technical field, it includes power generation structure, the power generation structure is counter-rotating power generation structure, the counter-rotating power generation structure includes first power generation impeller, second power generation impeller and double-rotor generator, the first power generation impeller and the second power generation impeller are sequentially installed and rotate in opposite directions under the action of sea current, the first power generation impeller is connected with the rotating shaft of the inner rotor of double-rotor generator by first power generation input shaft, the second power generation impeller is connected with the rotating shaft of the outer rotor of double-rotor generator by second power generation input shaft. The utility model not only can improve wide flow rate adaptability, increase sea current power generation efficiency, but also can improve the capture efficiency of multidirectional sea current.

The application provides a dynamic diode power generation device and a preparation method thereof, a generator and a vehicle, and belongs to the technical field of vehicle parts. The dynamic diode power generation device comprises a first structural layer, an insulating layer and a second structural layer. The insulating layer and the first structural layer are stacked along a first direction, and the second structural layer is arranged on a side of the insulating layer away from the first structural layer, and the second structural layer is adapted to contact and slide on the surface of the insulating layer. The first structural layer and the second structural layer are adapted to form a heterojunction. The dynamic diode power generation device provided in the application embodiment can reduce carrier recombination and the formation of dark current, thereby forming stable and sustainable current and improving electrical performance.

The utility model relates to the technical field of new energy assemblies, and discloses a condensation structure of a solar assembly, which comprises a frame, extension frames are connected to four corners of the frame, support rods are connected to the top ends of the two extension frames at the rear, and a light capture plate is rotatably arranged at the top ends of the support rods. The bottom end of the light capturing plate is connected with a plurality of sets of light collecting units, and the periphery of the light capturing plate is connected with refraction frames. According to the utility model, through the arrangement of the refraction frame and the reflection layer, the light gathering effect of the light gathering plate can be improved, so that the refraction intensity of the light gathering unit is improved, light rays at more angles can be emitted from the front surface of the photovoltaic panel, the photoelectric conversion effect is improved, the light receiving duration of the photovoltaic panel is effectively prolonged, and the service life of the photovoltaic panel is prolonged. And through the arrangement of a gas storage tank, an electric push rod and a second piston at the lower part, the driving consumption can be reduced as much as possible by utilizing the principle that gas expands when heated.

A catalyst layer for fuel cells has at least a substrate, a carbon carrier, and a catalyst metal. The specific surface area of the carbon carrier is 1000 to 1500 m 2 / g. The thickness reduction rate A of the catalyst layer represented by formula (I) is 45% or less. The deformation rate B of the catalyst layer represented by formula (II) is 50% or less. A = (1 - T1 / T0) x 100... (I); B = D i / T0 x 100... (II), T0 is the initial thickness of the catalyst layer. T1 is the thickness of the catalyst layer after durability treatment. D i is the deformation amount obtained as an inflection point in a load variation curve obtained by a micro-pressure collapse test of the catalyst layer. The durability treatment is performed under the conditions described in the specification or the claimed scope.

The application discloses a wind turbine control method and system based on wake velocity field, and relates to the technical field of wind power generation, comprising the following steps: S1, collecting wind speed, wind direction and turbulence intensity data of the downstream wake core area through the upstream unit cabin laser radar, collecting SCADA operation data of each wind turbine at the same time, and performing outlier rejection and timestamp alignment processing on the two types of data. The wind turbine control method and system of the application dynamically corrects the wake model through the real-time collected wake velocity field measured data, breaks through the application limitation of the traditional static wake model, can accurately adapt to the dynamic evolution process of the wake field under complex wind conditions, greatly improves the accuracy of wake characteristic prediction, provides reliable technical support for the development of wake regulation strategy, guarantees the long-term stable operation of the wind turbine, effectively improves the adaptability of the scheme and the existing wind turbine control system, and reduces the landing threshold of engineering application.

A wave energy power generation device utilizing high-pressure airflow to transfer energy belongs to the field of wave energy power generation technology. To address the common problem of insufficient inlet pressure in wave energy power generation devices under conditions of small waves and gentle water flow, the invention includes a fixed structure. The inner wall of the fixed structure is threaded with a fastening structure, and the inner cavity of the fixed structure is rotatably connected to a power generation structure. A water flow detector is fixedly installed on the inner wall of the fixed structure. This invention uses a swinging structure composed of torsion springs and wave-beating plates on both sides of the water inlet chamber. After the waves recede, the torsion springs drive the swinging plates to quickly return to their original position, creating periodic water level fluctuations in the inlet area. This transforms the stable, continuous water flow into a pulsating, impacting water flow. This pulsating characteristic better matches the working characteristics of an air turbine, making the high-pressure airflow output more regular. This effectively improves the shortcomings of existing wave energy devices, such as large power generation fluctuations and low efficiency under low wave conditions, thus enhancing the overall power generation performance of the device.

This application relates to a method for filling a perovskite solar cell module slot, comprising: filling the slot with a first filler having a first preset viscosity, such that the first filler covers the bottom and at least part of the sidewalls of the slot; filling the slot with a second filler having a second preset viscosity, such that the second filler covers the first filler and a preset area of ​​the edge of the slot; the second preset viscosity is greater than the first preset viscosity. This method achieves precise and reliable sealing of the slot and its preset edge area, effectively improving problems such as residual debris, electrical defects, and moisture migration in the slot, thereby increasing the yield, power generation performance, and long-term reliability of the perovskite solar cell module.

The application relates to a solar photovoltaic panel supporting device and belongs to the technical field of supporting devices. The device comprises a water storage base used for storing circulating water and supporting and installing the whole device; a water tank is arranged on the top outer wall of the water storage base, water in the water storage base is circulated through the water tank through a water conveying mechanism, and in the process of water circulation, the water in the water tank is slowly accumulated and increased through a flow rate difference, and the water tank is slowly and automatically moved downwards. The water storage base and the water tank are arranged, water is gradually accumulated in the water tank through water circulation, the overall weight of the water tank is increased, the water tank is moved downwards, the whole mounting frame and the solar photovoltaic panel body can be driven to slowly rotate along with the movement of the sun, the light of the sun can be received in the whole process, the power generation effect is greatly improved, and the automatic cleaning function of the surface of the solar photovoltaic panel body can be realized, and the power generation effect is further improved.

The invention discloses a fan yaw error self-correction control method, and relates to the technical field of wind power generation intelligent control, and the method comprises the following steps: S1, collecting a fan blade aerodynamic noise signal and fan operation data, and carrying out filtering, time synchronization calibration and blind source separation on an original signal to obtain a preprocessed aerodynamic noise signal; s2, based on the preprocessed aerodynamic noise signals, sound pressure level effective values of the windward side blades and the leeward side blades are extracted, and a noise symmetry coefficient is constructed; the method is based on an airport-end acoustic array. According to the wind turbine yaw error self-correction control method, the real inflow direction of a wind wheel is directly mapped through the spatial distribution characteristics of aerodynamic noise of the blades, the logic limitation of traditional indirect representation errors is broken through, high-precision perception and quick response of yaw errors are achieved, the wind energy capture efficiency and the power generation performance are effectively improved, and the wind turbine yaw error self-correction control method is suitable for large-scale popularization and application. The equipment service life is prolonged; the failure rate is reduced; and the system reliability is improved.

The application discloses a wind farm power distribution method and device, equipment, storage medium and product, relates to the wind power generation technical field, and is applied to a wind farm power distribution system, the wind farm power distribution system comprises a plurality of power distribution units, and the method comprises the following steps: acquiring operation collection parameters of each power distribution unit in response to a power distribution demand, wherein the operation collection parameters comprise environmental sensing data and power generation operation data; for each power distribution unit, determining distribution control data of the power distribution unit according to the environmental sensing data and the power generation operation data, and determining a theoretical power distribution instruction according to the distribution control data of each power distribution unit and the power distribution demand; and determining an actual power distribution instruction according to the theoretical power distribution instruction, the environmental sensing data and the distribution control data of each power distribution unit, so as to distribute power to each power distribution unit based on the actual power distribution instruction, and improve the power generation effect of the wind turbine in the wind farm.