Novel wind-gathering wind power generation equipment

Abstract

The invention discloses novel wind-gathering wind power generation equipment, relates to the technical field of wind power generation, and solves the technical problems of low wind energy utilization efficiency, huge structure and limited application scene in the existing technical scheme. The novel wind-gathering wind power generation equipment comprises a main base, a stand column is arranged on the upper wall surface of the main base, and a wind gathering barrel is arranged on the stand column; according to the wind power generation device, the wind gathering cover and the wind gathering barrel with the input end area far larger than the output end area are arranged, incoming flow air can be effectively gathered and accelerated, the wind speed acting on the wind power fan blades is remarkably increased, and the wind power generation device has the advantages that the wind power generation device is high in wind power generation efficiency; the utilization rate of wind energy resources is greatly improved; the whole structure is very compact, the occupied area is small, the device can be flexibly applied to a mobile carrier with limited space, for example, the device is installed on a vehicle roof to generate power through driving wind or installed on a ship deck to provide auxiliary power, and a brand new application field of mobile energy regeneration is developed.

Description

Technical Field

[0001] This invention relates to the field of wind power generation technology, specifically to a novel wind-concentrating wind power generation device. Background Technology

[0002] Wind energy, as a clean and renewable energy source, plays an increasingly important role in the global energy structure transformation and the goal of "carbon peaking and carbon neutrality." Traditional wind power generation equipment, especially large horizontal axis wind turbines, is currently the mainstream technology for wind power generation. These devices typically have huge blades and towering towers, large single-unit capacity, and high power generation efficiency, and have been widely used in large-scale wind farms.

[0003] Traditional wind turbines in existing technologies also face some inherent problems in their promotion and application: High starting wind speed requirements and low utilization of low-wind-speed resources: Traditional large wind turbines require a certain wind speed to start and connect to the grid. In vast inland areas or urban environments, there are a large amount of low-grade wind energy resources below this starting wind speed, which are often wasted. Large structure, large footprint, and limited application scenarios: The huge towers and rotating blades require ample installation space and strict safety distances, making distributed deployment difficult in urban buildings, transportation vehicles, islands, and other spaces with limited or complex environments. Their manufacturing, transportation, and installation costs are also very high. Traditional wind turbines directly utilize natural wind to drive the blades, resulting in low wind energy capture efficiency. Although optimizing blade airfoil design can approach this limit, the potential for increasing energy density is limited, making it difficult to significantly increase power generation without significantly increasing blade size. Exposed, high-speed rotating blades pose a threat to birds and other flying organisms; furthermore, under extreme weather conditions, blades pose a safety hazard of breakage or detachment.

[0004] To overcome some of the aforementioned shortcomings, the industry has explored various approaches, such as the development of vertical axis wind turbines and improved wind turbines with deflectors or wind collection devices. Vertical axis wind turbines are insensitive to wind direction and have a relatively simple structure, but they generally suffer from problems such as difficult start-up and low efficiency. Existing wind collection device designs are either overly complex and bulky, increasing manufacturing costs and maintenance difficulties; others have less than ideal wind collection effects, offering limited improvement to overall efficiency; and most remain limited to fixed applications, failing to fully explore their application potential in new scenarios such as mobile carriers.

[0005] In summary, existing technical solutions suffer from low wind energy utilization efficiency, large structural size, and limited application scenarios. Summary of the Invention

[0006] Invention Content To address the shortcomings of existing technologies, this invention provides a novel wind-gathering power generation device that solves the technical problems of low wind energy utilization efficiency, bulky structure, and limited application scenarios in existing technical solutions.

[0007] To achieve the above objectives, this invention provides a novel wind power generation device with a wind-gathering mechanism, comprising a main base, a column mounted on the upper wall of the main base, a wind-gathering duct mounted on the column, a wind-gathering cover at the front end of the duct, wind turbine blades inside the wind-gathering duct, and a power generation structure inside the column. By integrating the core components such as the wind-gathering cover, wind-gathering duct, wind turbine blades, power generation structure, and column into a single integrated design, a novel wind power generation device with a compact structure and clearly defined functions is constructed. The wind-gathering cover collects and compresses incoming airflow, while the wind-gathering duct provides a stable channel for the airflow, working together to increase the wind speed acting on the wind turbine blades. The wind turbine blades convert wind energy into mechanical energy, which is then ultimately converted into electrical energy through the power generation structure hidden within the column. The overall structure of the device is more stable and simplified.

[0008] Preferably, the wind-gathering shroud includes a wind-blocking membrane and a shroud frame. The shroud frame is fixedly installed at the input end of the wind-gathering duct, and the wind-blocking membrane is connected to the shroud frame. The input end area of ​​the wind-gathering shroud is larger than the output end area. The wind-blocking membrane and the shroud frame can be a cone-shaped funnel structure with a circular, rectangular, or polygonal base. Using the shroud frame as support and the wind-blocking membrane as the wind-gathering surface can effectively reduce the overall weight and manufacturing cost while ensuring structural strength. Its cone-shaped funnel structure is key to achieving the wind-gathering effect. It utilizes Bernoulli's principle in fluid mechanics, where the airflow velocity increases significantly when passing through a channel with a reduced cross-sectional area. This design effectively increases the wind speed entering the wind-gathering duct, thereby enabling the wind turbine blades to obtain greater kinetic energy and improving power generation efficiency under the same natural wind conditions. The diverse base shapes enhance its design flexibility and adaptability to various scenarios.

[0009] Preferably, the wind-collecting duct contains one or more wind turbine blades, and a transmission structure is provided between the wind turbine blades and the input end of the power generation structure. Different sizes and specifications of wind turbine blades are used depending on the assembly size, and different types of transmission structures, such as sprockets, pulleys, bevel gears, and gears, are used as needed. This configuration allows for flexible configuration of the number and specifications of wind turbine blades based on the overall size of the equipment and the expected power generation, achieving modularity and scalability in the design. By setting up the transmission structure, the mechanical energy generated by the rotation of the wind turbine blades can be efficiently and reliably transferred to the power generation structure. Different types of transmission structures each have their advantages; for example, sprocket transmission is precise, pulley transmission is smooth, and bevel gears can change the transmission direction. This allows designers to select the optimal transmission scheme according to specific torque, speed, and spatial layout requirements, thereby optimizing the transmission efficiency and operational stability of the entire system.

[0010] Preferably, the power generation structure includes a speed regulator and a generator. The input end of the speed regulator is connected to the drive end of the wind turbine blades, and the output end of the speed regulator is connected to the input end of the generator. As an intermediate link, the speed regulator enables the generator to always operate in its optimal efficiency range, which greatly improves the conversion efficiency from mechanical energy to electrical energy and helps to extend the service life of the generator.

[0011] Preferably, the wind collector is rotatably mounted on the upper end of the column, and a controllable adjustment structure is provided between the wind collector and the column for adjusting the orientation of the wind collector. This allows it to seek the wind direction as needed to achieve maximum power generation. Since wind direction is constantly changing, the efficiency of traditional fixed wind turbines drops sharply when the wind direction deviates. The equipment can adjust the orientation of the wind collector and the wind shroud in real time or according to instructions, ensuring that they always face the oncoming wind. This ensures that regardless of wind direction changes, the equipment can capture wind energy with the maximum windward area, thereby achieving continuous and efficient power generation and maximizing energy utilization.

[0012] Preferably, the front end of the wind-collecting shroud is equipped with a protective net to prevent birds and various flying objects from damaging the fan blades. This effectively prevents foreign objects such as birds, leaves, and plastic bags from entering the wind-collecting shroud without significantly affecting air intake efficiency. This not only avoids damage to the high-speed rotating fan blades caused by foreign objects impacting them, reducing maintenance costs and downtime, but also protects the local ecological environment, preventing birds from accidentally entering and getting injured, significantly improving the equipment's operational reliability, safety, and environmental friendliness.

[0013] Preferably, the main base can be a mounting platform, a ship's hull, a vehicle roof, etc., allowing for adjustments to equipment specifications and installation in different locations. When mounted on a vehicle roof, it can generate electricity by concentrating wind while the vehicle is in motion. By defining the main base as a versatile platform and allowing for adjustments to equipment specifications, this technical solution is no longer limited to traditional fixed wind farms. Mounted on a ship's hull, it can provide auxiliary power for navigation; mounted on a vehicle roof, it can utilize the relative airflow generated by the vehicle's movement to generate electricity, powering the vehicle's electrical equipment or charging its battery, thus achieving energy regeneration on the move. This high adaptability enables its application in multiple fields such as distributed energy and mobile energy replenishment.

[0014] Preferably, the main base is equipped with a steering structure for overall equipment steering. Depending on the installation location, such as on a ship's hull, a hydraulic device or propeller device can be used; in shallow waters such as riverbanks or beaches, a hydraulic device can also be used. In certain special application scenarios, such as installation on a large ship's hull or a floating platform, adjusting only the upper wind collector may not be sufficient to cope with significant changes in orientation or the influence of water flow. By installing an overall steering device such as a hydraulic or propeller-driven system on the main base, the entire equipment's base can be macroscopically oriented, allowing it to adapt to greater environmental changes and ensuring that the equipment can capture the prevailing wind. This, combined with the fine-tuning function of the wind collector, ensures maximum power generation efficiency.

[0015] Beneficial effects This invention provides a novel wind power generation device that concentrates wind energy. By incorporating a wind-concentrating shroud and duct with an input area significantly larger than the output area, it effectively gathers and accelerates incoming airflow, significantly increasing the wind speed acting on the wind turbine blades and greatly improving the utilization rate of wind energy resources. The core components, including the power generation structure, are integrated into a single unit, resulting in a very compact structure with a small footprint. This allows for flexible application on space-constrained mobile platforms, such as installing on vehicle roofs to generate electricity while the vehicle is in motion, or installing on ship decks to provide auxiliary power, opening up a new application area for mobile energy regeneration. The technical solution allows for flexible configuration of the number, specifications, and transmission structure of the wind turbine blades according to different power requirements and installation conditions. The versatile design of the main base allows it to adapt to different installation platforms, enhancing design flexibility and scenario adaptability, and also making component replacement and maintenance simpler and faster, reducing the overall life cycle cost of the equipment. Attached Figure Description

[0016] Figure 1 A three-dimensional structural schematic diagram of the novel wind-gathering power generation device described in this invention.

[0017] Figure 2 A three-dimensional structural schematic diagram of the novel wind-gathering power generation device described in this invention.

[0018] Figure 3 This is a schematic diagram of the main structure of a novel wind-gathering wind power generation device created by the present invention.

[0019] Figure 4 This is a side view of the structure of a novel wind-gathering wind power generation device created by the present invention.

[0020] Figure 5 This is a side view cross-sectional structural diagram of a novel wind-gathering wind power generation device created by the present invention.

[0021] In the diagram: 1. Main base; 2. Column; 3. Wind concentrator; 4. Fan blades; 5. Transmission structure; 6. Windbreak membrane; 7. Cover frame; 8. Speed ​​controller; 9. Generator; 10. Protective netting; Detailed Implementation

[0022] To further illustrate the technical means and effects adopted by the present invention to achieve the intended purpose, the technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Detailed description follows.

[0023] Please see Figure 1-5 This invention provides a technical solution: a novel wind power generation device with wind-gathering capabilities, comprising a main base 1, a column 2 mounted on the upper wall of the main base 1, a wind-gathering duct 3 mounted on the column 2, a wind-gathering cover at the front end of the duct, wind turbine blades 4 housed within the wind-gathering duct 3, and a power generation structure housed within the column 2. By integrating the core components such as the wind-gathering cover, wind-gathering duct 3, wind turbine blades 4, power generation structure, and column 2 into a single integrated design, a novel wind power generation device with a compact structure and clearly defined functions is constructed. The wind-gathering cover collects and compresses incoming airflow, while the wind-gathering duct 3 provides a stable channel for airflow, working together to increase the wind speed acting on the wind turbine blades 4. The wind turbine blades 4 convert wind energy into mechanical energy, which is then ultimately converted into electrical energy through the power generation structure hidden within the column 2. The overall structure of the device is more stable and simplified.

[0024] This embodiment is further configured such that the wind-gathering shroud includes a wind-blocking membrane 6 and a shroud frame 7. The shroud frame 7 is fixedly installed at the input end of the wind-gathering duct 3, and the wind-blocking membrane 6 is connected to the shroud frame 7. The input end area of ​​the wind-gathering shroud is larger than the output end area. The wind-blocking membrane 6 and the shroud frame 7 can be a cone-shaped funnel structure with a circular, rectangular, or polygonal base. Using the shroud frame 7 as a support and the wind-blocking membrane 6 as the wind-gathering surface can effectively reduce the overall weight and manufacturing cost while ensuring structural strength. Its cone-shaped funnel structure is the key to achieving the wind-gathering effect. It utilizes Bernoulli's principle in fluid mechanics, where the airflow velocity increases significantly when the airflow passes through a channel with a reduced cross-sectional area. This design can effectively increase the wind speed entering the wind-gathering duct 3, thereby enabling the wind turbine blades 4 to obtain greater kinetic energy and improve power generation efficiency under the same natural wind conditions. The diverse base shapes enhance its design flexibility and scene adaptability.

[0025] This embodiment is further configured such that one or more wind turbine blades 4 are installed inside the wind-collecting duct 3, and a transmission structure 5 is provided between the wind turbine blades 4 and the input end of the power generation structure. Different sizes and specifications of wind turbine blades 4 are used depending on the assembly size, and different types of transmission structures, such as sprockets, pulleys, bevel gears, and gears, are used as needed. This configuration allows for flexible configuration of the number and specifications of wind turbine blades 4 according to the overall size of the equipment and the expected power generation, achieving modularity and scalability in the design. By setting the transmission structure 5, the mechanical energy generated by the rotation of the wind turbine blades 4 can be efficiently and reliably transferred to the power generation structure. Different types of transmission structures 5 each have their advantages; for example, sprocket transmission is precise, pulley transmission is smooth, and bevel gears can change the transmission direction. This allows designers to select the optimal transmission scheme according to specific torque, speed, and spatial layout requirements, thereby optimizing the transmission efficiency and operational stability of the entire system.

[0026] In this embodiment, the power generation structure is further configured to include a speed regulator 8 and a generator 9. The input end of the speed regulator 8 is connected to the drive end of the wind turbine blade 4, and the output end of the speed regulator 8 is connected to the input end of the generator 9. As an intermediate link, the speed regulator 8 enables the generator 9 to always work in its optimal efficiency range, which greatly improves the conversion efficiency from mechanical energy to electrical energy and helps to extend the service life of the generator 9.

[0027] In this embodiment, the wind-collecting duct 3 is rotatably mounted on the upper end of the column 2. A controllable orientation adjustment structure is provided between the wind-collecting duct 3 and the column 2 for adjusting the orientation of the wind-collecting duct 3. It can seek the wind direction as needed to achieve maximum power generation efficiency. Since wind direction in nature is constantly changing, the efficiency of traditional fixed wind power equipment drops sharply when the wind direction deviates. The equipment can adjust the orientation of the wind-collecting duct 3 and the wind-collecting cover in real time or according to instructions, ensuring that it always faces the oncoming wind direction. This ensures that regardless of wind direction changes, the equipment can capture wind energy with the maximum windward area, thereby achieving continuous and efficient power generation and maximizing energy utilization.

[0028] In this embodiment, a protective net 10 is further provided at the front end of the wind-collecting shroud to prevent birds and various flying objects from damaging the wind turbine blades 4. This effectively prevents foreign objects such as birds, leaves, and plastic bags from entering the wind-collecting shroud 3 without significantly affecting the air intake efficiency. This not only avoids damage to the high-speed rotating wind turbine blades 4 caused by foreign objects impacting them, reducing maintenance costs and downtime, but also protects the local ecological environment, preventing birds from accidentally entering and getting injured, and significantly improving the operational reliability, safety, and environmental friendliness of the equipment.

[0029] This embodiment further specifies that the main base 1 can be a mounting platform, a ship's hull, a vehicle roof, etc., allowing for adjustments to equipment specifications and installation in different locations. When mounted on a vehicle roof, it can generate electricity by concentrating wind while the vehicle is in motion. By defining the main base 1 as a versatile platform and allowing for adjustments to equipment specifications, this technical solution is no longer limited to traditional fixed wind farms. Mounted on a ship's hull, it can provide auxiliary power for navigation; mounted on a vehicle roof, it can utilize the relative airflow (driving wind) generated by the vehicle's movement to generate electricity, powering the vehicle's electrical equipment or charging its battery, thus achieving energy regeneration while in motion. This high adaptability enables its application in multiple fields such as distributed energy and mobile energy replenishment.

[0030] This embodiment is further configured such that the main base 1 is equipped with a steering structure for overall equipment steering. Depending on the installation location, such as on a ship, a hydraulic device or a propeller device can be used; in shallow waters such as riverbanks or beaches, a hydraulic device can also be used. In certain special application scenarios, such as installation on a large ship or floating platform, adjusting only the upper wind collector 3 may not be sufficient to cope with significant changes in orientation or the influence of water flow. By setting an overall steering device such as a hydraulic or propeller device on the main base 1, the entire equipment base can be macroscopically oriented, allowing it to adapt to greater environmental changes and ensuring that the equipment can capture the wind from the main direction. This, combined with the fine-tuning function of the wind collector 3, ensures maximum power generation efficiency.

[0031] Its detailed connection methods are well-known technologies in this field; such as Figure 1-5 As shown, the wind-gathering part consists of a wind-gathering shroud and a wind-gathering tube 3. The wind-gathering shroud, as a large-area air inlet, is used to collect natural wind extensively. Its inlet area is larger than its outlet area, forming a funnel-shaped structure, which can play a preliminary role in converging and accelerating the airflow. The wind-gathering tube 3 provides a regular and stable channel for the accelerated airflow, ensuring that the airflow impacts the fan blades 4 at a high speed and with a stable shape.

[0032] The power generation section consists of wind turbine blades 4 and a power generation structure. Wind turbine blades 4 are installed inside the wind-collecting duct 3. When high-speed airflow passes through, the blades rotate, converting the kinetic energy of the wind into mechanical energy. This mechanical energy is transmitted through the transmission structure 5 to the power generation structure inside the column 2, and finally converted into electrical energy by the generator 9. Alternatively, it can directly output mechanical energy for operators to use energy more flexibly.

[0033] The supporting structure consists of column 2 and main base 1. Column 2 not only serves as the supporting structure for the entire upper unit, but also utilizes its internal space to house power generation-related components, resulting in a compact and simple overall structure while protecting core components. Main base 1 provides a stable mounting foundation for the entire device.

[0034] Through the above integrated design, this equipment has created a new type of wind power generation equipment with a compact structure, clear functions, short and efficient energy transfer path. Compared with the traditional wind turbine 9, it has a simpler structure and higher stability.

[0035] The wind-concentrating hood consists of a wind-blocking membrane 6 and a frame 7. The frame 7, serving as the supporting structure, can be made of lightweight, high-strength metal or composite materials. Its shape determines the overall outline of the wind-concentrating hood, such as a cone with a circular, rectangular, or polygonal base. The frame 7 is fixedly installed at the input end of the wind-concentrating duct 3. The wind-blocking membrane 6 covers and connects to the frame 7, forming a curved surface for wind concentration. It can be made of flexible or semi-rigid materials such as high-strength, weather-resistant canvas or polymer membranes. This design utilizes Bernoulli's principle in fluid mechanics; when airflow moves from a large-section inlet to a small-section outlet, the velocity increases significantly. This design effectively reduces the weight at the front end of the equipment, lowers manufacturing costs, and reduces the load on the directional structure while ensuring wind concentration and structural strength.

[0036] The wind-collecting duct 3 can be equipped with one or more wind turbine blades 4, depending on the overall size of the equipment and the power generation requirements. The wind turbine blades 4 are connected to the input end of the power generation structure via one or more main shafts, with a transmission structure 5 installed between them. The transmission structure 5 offers versatility: sprocket or gear drives can be used when a precise transmission ratio is required; belt drives can be used when buffering and noise reduction are needed; and bevel gears can be used when the power transmission direction needs to be changed. This modular design allows the equipment to be flexibly configured according to different application scenarios, optimizing energy transfer efficiency.

[0037] The power generation structure specifically includes a speed regulator 8 and a generator 9. The main shaft of the wind turbine blade 4 is connected to the input end of the speed regulator 8 via a transmission structure 5, and the output end of the speed regulator 8 is connected to the input end of the generator 9. Due to the instability of natural wind speed, the rotational speed of the wind turbine blade 4 fluctuates significantly. Direct connection to the generator 9 may result in low power generation efficiency or damage to the motor. The function of the speed regulator 8 is to receive the unstable speed input from the front end and, through internal gear changes or electronic control adjustments, output a relatively stable speed or a speed within the generator 9's highest efficiency range, thereby significantly improving power generation efficiency and protecting the generator 9, extending its service life.

[0038] The air-collecting duct 3 is rotatably mounted on the upper end of the column 2 via bearings and other components. A controllable directional adjustment structure is provided between the air-collecting duct 3 and the column 2. This structure can consist of a motor, a worm gear reducer, and a wind direction sensor. The wind direction sensor monitors the external wind direction in real time and transmits the signal to the controller. The controller drives the motor, which in turn drives the air-collecting duct 3 to rotate through the reducer, ensuring that its air inlet always faces the direction of the incoming wind, thereby guaranteeing that the equipment can continue to operate efficiently under changing wind conditions.

[0039] To improve the safety and reliability of equipment operation, a protective net 10 is installed at the front end of the wind concentrator. This protective net 10 is typically made of metal or high-strength nylon, and the mesh size is carefully designed to effectively prevent foreign objects such as birds, large insects, leaves, and plastic bags from entering, while minimizing obstruction to the incoming airflow. This protects the high-speed rotating fan blades 4 from impact damage and reduces maintenance costs.

[0040] The invention has a wide range of applications. The main base 1 is highly flexible in design and can be a concrete mounting platform for fixed installation on the ground or roof, a ship's deck, or even a vehicle's roof. By adjusting the overall size and specifications of the equipment, it can be used to: provide distributed power to homes or small communities when installed on building roofs or in open areas; generate electricity using sailing winds or natural winds when installed on ship decks to provide auxiliary power to shipboard equipment, saving fuel; or generate electricity using the strong relative airflow generated during vehicle movement when installed on the roofs of large trucks, RVs, or buses to power onboard air conditioning, lighting, battery charging, etc., achieving in-transit energy regeneration.

[0041] In certain large-scale or special applications, the main base 1 may be further equipped with an overall steering structure. When the equipment is installed on a large floating platform or near-shore shallow water, the entire equipment base can be macroscopically oriented by a hydraulic drive device or an underwater propeller device to adapt to seasonal changes in the prevailing wind direction or water flow direction. This complements the fine steering function of the upper wind concentrator 3, together ensuring the maximization of power generation efficiency.

[0042] Besides the normal installation on the foundation, the following are simple examples of installation on vehicles and ships: When installed on a vehicle, the main base 1 of the device is fixed to a predetermined position on the vehicle roof, and the output line of the generator 9 is connected to the vehicle's energy storage battery or power controller. When the vehicle's speed exceeds a certain threshold, a strong relative airflow is collected and accelerated by the wind shroud, then blows the fan blades 4. The fan blades 4 rotate, driving the generator 9 through a pulley and speed controller 8. The generated DC power is stored in the vehicle's battery through the controller and used to power lighting, entertainment equipment, or supplement the air conditioning system when the vehicle is parked.

[0043] When installation is required in a nearshore shallow area, column 2 is made of corrosion-resistant steel. The main base 1 is a reinforced concrete pile platform driven into the shallow water. Above the platform and below column 2, an integrated steering structure driven by a high-torque hydraulic motor is installed, allowing the entire device to rotate 360 ​​degrees horizontally. The main base 1 is constructed at the selected nearshore shallow location, and the entire device is hoisted and fixed onto it. The generator 9 output cable is connected to a grid-connected inverter or energy storage system on shore; the device is started, and the control system, based on wind direction sensor data, first drives the hydraulic steering device of the main base 1 for coarse adjustment, aligning the device roughly towards the prevailing wind direction. The fine-tuning structure of the wind concentrator 3 is then activated, precisely aligning its inlet with the real-time wind direction, achieving dual wind alignment and maximizing efficiency. Under the influence of natural wind, the wind turbine blades 4 drive the generator 9 to continuously generate electricity, which is transmitted to the downstream power system via cable.

[0044] It should be noted that in this paper, relational terms such as first and second are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations.

[0045] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present invention. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the scope of the present invention.

Claims

1. A novel wind-gathering power generation device, comprising a main base (1), characterized in that, The main base (1) has a column (2) on its upper wall, a wind concentrator (3) on the column (2), a wind concentrator cover at the front end of the concentrator, a wind turbine (4) inside the wind concentrator (3), and a power generation structure inside the column (2).

2. The wind-concentrating novel wind power generation equipment according to claim 1, characterized in that, The wind-gathering hood includes a wind-blocking membrane (6) and a hood frame (7). The hood frame (7) is fixedly installed at the input end of the wind-gathering tube (3). The wind-blocking membrane (6) is connected to the hood frame (7). The input end area of ​​the wind-gathering hood is larger than the output end area.

3. The novel wind-gathering power generation equipment according to claim 1, characterized in that, One or more wind turbine blades (4) are provided inside the wind turbine (3), and the wind turbine blades (4) are connected to the input end of the power generation structure by a transmission structure (5).

4. The novel wind-gathering power generation equipment according to claim 1, characterized in that, The power generation structure includes a speed regulator (8) and a generator (9). The input end of the speed regulator (8) is connected to the drive end of the wind turbine blade (4), and the output end of the speed regulator (8) is connected to the input end of the generator (9).

5. The novel wind-gathering power generation equipment according to claim 1, characterized in that, The wind-gathering duct (3) is rotatably installed on the upper end of the column (2), and a controllable adjustment structure is provided between the wind-gathering duct (3) and the column (2).

6. The novel wind-gathering power generation equipment according to claim 1, characterized in that, The front end of the wind-gathering cover is provided with a protective net (10).

7. The novel wind-gathering power generation equipment according to claim 1, characterized in that, The main base (1) is the installation platform, hull, vehicle roof, etc.

8. The novel wind-gathering power generation equipment according to claim 1, characterized in that, A steering structure is provided on the main base (1).

9. A novel wind-gathering power generation device according to claim 1, characterized in that, The front end of the air-collecting duct is equipped with a filtration unit, and the rear end of the air-collecting duct is equipped with a dust removal unit.

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