Bladeless wind turbine power generation system

Abstract

The present invention discloses a novel bladeless wind turbine power generation system designed to efficiently harness wind energy in environments where traditional large-blade turbines are impractical The system features a cylindrical hollow pipe with spiral air inlets, which initiates wind channelization. A bladeless fan, positioned at one end of the pipe, creates negative air pressure, facilitating continuous airflow through the pipe. This airflow is then directed through a series of concentric reducer pipes with strategically placed inlets, accelerating wind flow and enhancing pressure management. The wind is ultimately channelled into a motor where a rotating shaft converts the kinetic energy into mechanical energy, which is further transformed into electrical energy. The design minimizes noise, visual impact, and wildlife risks compared to conventional turbines. The invention is particularly advantageous for narrow or spatially constrained locations such as urban areas and valleys, offering a high-efficiency, cost-effective alternative to traditional wind energy solutions.

Description

[0001] BLADELESS WIND TURBINE POWER GENERATION SYSTEM

[0002] FIELD OF THE INVENTION

[0003] The present invention relates to a turbines and power generation system, and more particularly, though not exclusively, the invention relates to a power generation system for generating electrical power from the bladeless power turbine.

[0004] BACKGROUND OF THE INVENTION

[0005] The demand for energy from renewable energy source is increasing as the earth’s fossil fuels are depleted. Furthermore, it is desirable to generate electricity from clean energy sources that do not contribute to global warming.

[0006] One of the common renewable energy sources is wind power turbines. Wind power turbines work on a simple principle: instead of using electricity to make wind - like a fan - wind turbines use wind to make electricity. Wind turbines convert the kinetic energy in the wind into mechanical power. This mechanical power can be used for specific tasks (such as grinding grain or pumping water) or can be converted into electricity through the use of a generator. The most common type of wind turbine is the horizontal-axis wind turbine (HAWT), which consist of a tower, a nacelle (housing the generator and other component), and blades that rotates when wind passes over them.

[0007] Traditionally available wind turbines, while effective in harnessing wind energy, face several significant limitations. One of the primary challenges associated with existing wind turbine is the transportation and installation of turbine blades due to their length and weight. Larger blades, which are necessary for higher energy capture, requires robust infrastructure and pose logistical difficulties, particularly when transporting them to remote or offshore locations such as mountainous or coastal areas. This results in increased costs and complexity for wind farm development.

[0008] Additionally, the environmental impact of wind turbines cannot be overlooked. The rotating blades pose a considerable threat to wildlife, particularly birds and bats, which can collide with the blades, leading to fatal injuries. This issue is more pronounced in areas that are migratory pathways or habitats for endangered species. Moreover, the aerodynamic noise generated by the rotation of blades can be a significant nuisance to nearby communities, causing disturbances and leading to opposition against wind turbine installations. This noise pollution, coupled with visual impacts, often results in the "Not in My Backyard" (NIMBY) sentiment among local residents. These limitations highlight the need for continuous innovation and improvements in wind turbine design and technology to mitigate their environmental and logistical drawbacks while maximizing their efficiency and viability as a renewable energy source.

[0009] Furthermore, there are a number of disadvantages in such a power generator. To, generate sufficient power each turbine is a significant size and thus the construction costs are high and the payback period is long. Turbine blades have also been found to fail by the breaking off of the tips when such turbines are used in fast flowing tides. There is also a difficulty in providing a reliable connection between the rotating shaft and the housing to transfer the generated energy.

[0010] Therefore, to solve the limitations associated with prior art, the present invention seeks to provide an improved bladeless wind turbine power generation system.

[0011] OBJECTIVES OF THE INVENTION

[0012] Some of the objects of the present disclosure, which at least one embodiment herein satisfies, are as follows:

[0013] The primary objective of the present invention is to provide a wind turbine system that can effectively harness wind energy in spatially constrained environments, such as narrow valleys, urban areas, and other locations where traditional large-blade turbines are impractical.

[0014] Another objective of the present invention is to provide a wind turbine system that optimizes the flow and pressure of wind through a reducer and a series of concentrators to maximize energy consumption and conversion efficiency.

[0015] Another objective of the present invention is to provide a wind turbine system with unique aerodynamic design using a hollow pipes structure with varying diameters to enhance wind channelization and maximize energy capture efficiency.

[0016] Another objective of the present invention is to provide a blade less wind turbine system that reduces noise pollution, visual impact, and the risk to wildlife, particularly birds, compared to conventional bladed wind turbines.

[0017] Another objective of the present invention is to provide a wind turbine system that minimizes maintenance and operational costs by eliminating moving blades and utilizing durable materials and components. Further objectives, advantages, and features of the present invention will become apparent from the detailed description provided herein below, in which various embodiments of the disclosed invention are illustrated by way of example.

[0018] SUMMARY OF THE INVENTION

[0019] The present invention is a new approach to convert kinetic energy of wind into electrical energy. The approach is based on a bladeless wind turbine design with plurality of concentric pipe, an air fuel tank, and a reducer that optimizes wind channelization and pressure management to enhance energy capture and conversion efficiency.

[0020] According to a first aspect of the present invention there is provided a bladeless wind turbine power generation system designed to harness wind energy efficiently in environments where traditional large-bladed turbines are impractical. The system comprises a cylindrical pipe with a series of spiral air inlet on its outer surface to allow efficient entry of air within the cylindrical pipe, thereby initiating a wind channelization process. A bladeless fan is installed at one end of the cylindrical pipe to create a negative air pressure within the system. The said bladeless fan generates wind to ensure continuous airflow through the pipe, which is essential for maintaining high-pressure conditions and optimizing energy capture. A series of concentric reducer pipes are connected to another end of the smaller pipe, wherein the said concentric reducer pipes comprises a plurality of hollow inlets on their outer surface which allows additional air to enter within the system. The designs of this inlet further enhance the wind channelization process. The said concentric pipes feed into an air fuel tank equipped with a pair of conducting coil, wherein the said air fuel tank is designed to manage and stabilize the airflow before it is directed towards motor. The said air fuel tank is further connected to a reducer which has a broader opening where it connects with the air fuel tank and a narrower opening that leads to the air inlet of the motor. The said reducer further comprises a bunch of fins to create turbulence within the reducer to increases rotation speed of the incoming air. Furthermore, the narrowing configuration of the reducer accelerates the wind flow by compressing the air, thereby maximizing the energy captured from the wind.

[0021] According to another embodiment of the present invention, the wind turbine power generation system further comprises an anemometer positioned near the air fuel tank to monitor the wind speeds and flow rate within the system. It provides real-time data on air flow conditions, allowing for dynamic adjustments to optimize energy capture. The data from the anemometer is fed into a control system that adjusts the operation of the bladeless fan, the air channelization process, and other system components to maintain optimal efficiency. For instance, if wind speeds decrease, the system can adapt to maintain the desired airflow and pressure levels for efficient energy conversion.

[0022] According to another aspect of the present invention, the wind channelled through the system is directed towards the motor via its air inlet. Inside the motor, a shaft rotates due to the wind pressure exerted through wind coming from reducer. The kinetic energy of the wind is converted into mechanical energy by the rotating shaft, which is then transformed into electrical energy by the motor. The motor is optimized to function under the unique pressure and flow conditions created by the system, ensuring efficient energy conversion.

[0023] The system is anchored by a sturdy foundation that provides stability and minimizes vibration losses to the ground. This foundation supports the entire structure, ensuring that it can withstand varying wind conditions without compromising performance.

[0024] The unique design of the hollow pipe and concentrators ensures effective wind channelization, optimizing the flow and pressure of wind through the system. This is particularly advantageous in narrow or spatially constrained locations where traditional turbines cannot be installed. The bladeless fan mechanism creates negative pressure within the system, drawing more wind into the hollow pipe and concentrators. This continuous airflow maximizes the kinetic energy captured from the wind, enhancing the overall efficiency of the system.

[0025] The first embodiment of the present invention has following advantages over the prior art:

[0026] Bladeless: No rotating blades or mechanical moving parts are used in the power generation system.

[0027] Quiet operation: The bladeless fan creates negative pressure to draw wind into the system without the high-speed blade movement found in conventional turbines. This fan operates smoothly and quietly compared to the turbulent air flows generated by traditional blades.

[0028] High efficiency: The design of the power generation system of the present invention features efficient air channelization through spiral inlet, concentric pipes, and a reducer, which maximize wind flow and pressure management for enhanced energy capture and conversion.

[0029] Low cost: The absence of rotating blades and fewer mechanical parts lead to lower production and maintenance costs compared to traditional wind turbines.

[0030] These advantages are made possible by the following unique innovation described in detailed description of the invention. BRIEF DESCRIPTION OF THE INVENTION

[0031] To understand the invention and to see how it may be carried out in practice, embodiments will now be described, by way of non-limiting examples only, with reference to the accompanying drawings.

[0032] Fig. 1 illustrates a front perspective view of the bladeless wind turbine power generation system, according to an embodiment of the present invention.

[0033] Fig. 2 illustrates another perspective view of the bladeless wind turbine power generation system, according to another embodiment of the present invention.

[0034] Fig. 3 illustrates an internal view of the reducer equipped with multiple fins strategically positioned to interact with high speed air incoming from air fuel tank within the bladeless wind turbine power generation system, according to an exemplary embodiment of the present invention.

[0035] Fig. 4 illustrates a front perspective view of the motor connected with reducer, according to an exemplary embodiment of the present invention.

[0036] Fig. 5 illustrates a front view of the bladeless wind turbine power generation system, according to another embodiment of the present invention.

[0037] Fig. 6 illustrates a perspective view of a shaft placed within motor which converts kinetic energy of the wind into mechanical power according to an exemplary embodiment of the present invention.

[0038] Fig. 7 illustrates a perspective view of a cylindrical hollow pipe which comprises various opening at its upper surface to allow wind to enter within the system according to an exemplary embodiment of the present invention.

[0039] Fig. 8 illustrates a front view of a motor of wind turbine power generator system according to an exemplary embodiment of the present invention.

[0040] DETAILED DESCRIPTION OF PRESENT INVENTION

[0041] The present invention is best understood by the description set forth herein. To achieve the foregoing objects and in accordance with the purpose of the invention, and to overcome the problems and shortcomings associated with prior art, a variety of embodiments are described. However, those skilled in the art will readily appreciate that the detailed description given herein is for explanatory purposes and may be embodied in various forms the invention extends beyond these limited embodiments. Therefore, specific details disclosed herein are not to be interpreted as limiting, but rather as a basis for the claims and as a representative basis for teaching one skilled in the art to employ the present invention in virtually any appropriately detailed system, structure, or matter.

[0042] As the term herein used “Reducer” means a wind power device which is used to increase the speed of air by reducing the diameter of the pipe.

[0043] As the termed herein used “Negative pressure” means to a condition where the pressure within a given space is lower than the surrounding atmospheric pressure.

[0044] The present invention discloses a bladeless wind turbine power generation system designed for efficient wind energy capture and conversion, particularly in environments where traditional large bladed turbines are impractical. The present system utilizes a unique aerodynamic design to optimize wind channelization and energy conversion, making it suitable for narrow and spatially constrained locations such as valleys and urban areas.

[0045] Referring initially to FIGS. 1 and 2 a perspective view of the bladeless wind turbine power generation system. The system comprises a hollow cylindrical pipe (4) features a series of air inlets (11) that are strategically placed on the outer surface of the cylindrical pipe (4). The said inlets allows for efficient entry of air into the pipe to initiate wind channelization process. The hollow cylindrical pipe further comprises a bladeless fan (5) at one end of the pipe (4) which creates negative air pressure within the system. The said bladeless fan (5) is configured to maintain high- pressure conditions and optimizing energy capture by continuous air flow through the pipe (4). In the context of the bladeless fan mechanism, creating a negative pressure means that the fan is designed to increase the pressure inside its hollow pipe and concentrators compared to the air pressure outside of the system. This difference in pressure helps to draw more air into the fan. Essentially, the fan creates a kind of vacuum effect that pulls in air more efficiently, which then accelerates and amplifies the airflow to produce a stronger, and smoother breeze. In accordance with another embodiment, a plurality of bladeless fan may be optionally installed at different location within the wind turbine power generation system based on the surrounding pressure condition such that more air can be pulled to create a sustainable energy production. A series of concentric reducer pipe (2) are connected with another end of the hollow cylindrical pipe (4), wherein the said concentric reducer pipe (2) has a ring shaped opening at its outer surface, which allows additional air to enter the system to enhance the wind channelization process. The said concentric reducer pipes (2) feed into an air fuel tank (13), the said air fuel tank (13) is designed to manage and stabilize the air flow before it is directed toward the motor. Within this tank, a pair of conducting coil is strategically placed to capture the kinetic energy of the wind as it flows through the system. As the wind is channelled through the concentric pipes and into the air fuel tank, it carries kinetic energy. The conducting coils (14) inside the air fuel tank (13) are exposed to this high-speed airflow. The conducting coils are typically made of materials like copper, which have excellent conductive properties. When the airflow passes through the coils, it causes a change in the magnetic field within the coils, inducing an electrical current through the process of electromagnetic induction. The coils are arranged to maximize this induction effect, ensuring that the kinetic energy from the wind is efficiently converted into electrical energy. The pair of coils can work in tandem or in a phased arrangement, depending on the desired output and efficiency requirements. Once the kinetic energy is converted into electrical energy by the conducting coils, it can be stored in a battery or capacitor system, or it can be fed directly into the power grid, depending on the application. The electrical energy generated here is clean and renewable, as it is sourced directly from wind power without relying on conventional rotating blades.

[0046] The air fuel tank acts not just as a pressure management system but also as a controlled environment where the wind flow interacts with the coils in an optimized manner. By stabilizing and concentrating the airflow, the tank ensures that the kinetic energy is delivered steadily and consistently to the conducting coils, enhancing the efficiency of the energy conversion process.

[0047] The air fuel tank is further connected to reducer which is configured to passes the air trapped within the air fuel tank (13) to the motor’s air inlet. The said reducer (6) has a broader opening where it connects with the air fuel tank (13) and a narrower opening at the motor’s air inlet. The narrowing configuration increases the air pressure as it flows into the motor’s air inlet, accelerating the air flow and maximizing energy capture. The reducer’s (6) cross-section gradually decreases from the air intake opening connected to the air fuel tank (13) to the air output end that feeds the motor (1). The said reducer (6) is equipped with a series of fins (12) designed to create turbulence within the airflow. The series of interconnected fins enhances the mixing of the incoming air by increasing the overall energy capture efficiency. By introducing turbulence, the airflow becomes more chaotic, which prevents the formation of stable air layers that can reduce the effectiveness of energy transfer to the motor. The fins (12) are strategically positioned within the reducer to disrupt the smooth flow of air, ensuring that the entire cross-section of the air stream is engaged in the energy conversion process. This turbulent flow maximizes contact with the motor's air inlet, facilitating a more consistent and potent transfer of kinetic energy to the rotor mechanism inside the motor. As a result, the system benefits from increased mechanical energy output, ultimately improving the conversion of wind energy into electrical energy.

[0048] Furthermore, the air fuel tank (13) is equipped with sensors to measure wind flow. The said sensor includes anemometer (15) positioned at the outlet of the air fuel tank continuously senses the speed, temperature, and pressure of the outgoing air. This data is crucial, as it indicates whether the airflow is within the optimal range needed for efficient energy conversion. The data generated by the anemometer is transmitted to a central control server, which processes the information and determines the best operational adjustments for the system. This control system is designed to respond dynamically to changing environmental conditions. During cold weather, the incoming air tends to be denser but has lower pressure due to reduced thermal energy. Low-pressure air may not provide sufficient kinetic energy for efficient electricity generation.

[0049] • Heating Mechanism: Based on the data from the anemometer, the central server can instruct the conducting coils to switch modes and generate heat. By applying controlled electrical energy to the coils, they act as resistive heaters.

[0050] • Air Expansion and Pressure Increase: The heat generated by the coils causes the cooler incoming air to warm up, expanding the air and increasing its pressure. This expansion compensates for the low pressure typically associated with cold air, effectively enhancing the airflow dynamics and restoring optimal conditions for energy capture.

[0051] The integration of the anemometer and the central server allows the system to continuously adapt to external conditions. For instance:

[0052] . In warm conditions: The coils would remain in their primary function of capturing kinetic energy via electromagnetic induction.

[0053] • In colder conditions: The coils temporarily switch to heating mode to ensure that the air pressure remains at levels conducive to efficient energy conversion.

[0054] The central server operates in real-time, continuously analyzing the data from the anemometer and adjusting the system as needed. This feedback loop ensures that energy generation remains consistent and efficient, even under fluctuating weather conditions.

[0055] Referring now to Fig. 3, illustrating a perspective view of the reducer with plurality of fins which creates turbulence within the high pressure inlet air coming from air fuel tank (13). The reducer is a long, hollow pipe with a broader opening at the point where it connects with the concentric pipes and a narrower opening at the other end, where the compressed airflow exits. The internal surface of the reducer is equipped with multiple fins strategically positioned to interact with the incoming air. The fins are designed to create controlled turbulence within the reducer. As the airflow enters the reducer, the fins disrupt the smooth flow, creating vortices and increasing the rotational speed of the air. This turbulence is beneficial because it maximizes the kinetic energy available in the wind by ensuring that the air particles are evenly distributed and accelerated through the narrowing pipe. The narrowing structure of the reducer naturally compresses the airflow, which increases its velocity as it approaches the exit. The combination of compression and turbulence caused by the fins significantly enhances the pressure of the air before it enters the motor’s air inlet, leading to more efficient mechanical energy conversion. The fins are precisely angled and shaped to manage the turbulence without causing excessive resistance, striking a balance between flow speed and pressure. By maintaining a controlled level of turbulence, the reducer helps in achieving a stable and high-pressure airflow that can be harnessed more effectively for electricity generation.

[0056] Referring now to Fig. 4, illustrating the connection between the reducer (6) and the motor (1) in a bladeless wind turbine power generation system, according to another embodiment of the present invention. When air enters the motor's (1) air intake opening, it initiates the energy production process by converting the wind's kinetic energy into mechanical energy. This is achieved by rotating a shaft (10) within the motor (1). The mechanical energy is then transformed into electrical energy through the output terminal (9). The airflow from the reducer (6) drives a spiral installed at the center of the motor, which is connected to a cylindrical rotor body that rotates with the air pressure, facilitating this energy conversion process.

[0057] The air inlet of the motor (1) is designed to maximize the capture of high-speed wind directed through the reducer (6). The shape and size of the inlet ensure that the maximum amount of wind energy is captured and tunneled into the motor. The reducer, with its broader opening connected to the concentric pipes and narrower opening leading to the motor's air inlet, accelerates the wind flow. This increase in wind speed at the air inlet enhances the kinetic energy available for conversion.

[0058] Referring now Fig. 6 illustrating, a perspective view of shaft present within the motor (1) of the power generation system according to an exemplary embodiment of the present invention. The said shaft (10) is mounted on motor’s bearing attached to a series of rotor blades or vanes designed to catch the wind and convert its kinetic energy into rotational motion. These blades or vanes are optimized for maximum efficiency, ensuring that the majority of the wind energy is transferred to the shaft. As the high-speed wind enters the motor through the air inlet, it strikes the rotor blades or vanes, causing the shaft to rotate. The design of the rotor blades ensures that even low wind speeds can generate sufficient rotational force to turn the shaft. The rotating shaft is connected to a generator (7) within the motor. This generator consists of a series of coils and magnets. As the shaft rotates, it turns a rotor within the generator, which induces an electric current in the coils through electromagnetic induction. The generator is designed to operate efficiently under the specific pressure and flow conditions created by the bladeless wind turbine system. The said system further comprises an anemometer positioned within the air fuel tank, wherein the said anemometer is configured to adjust the speed of the air. The materials used in the generator's construction, such as high-grade copper for the coils and neodymium for the magnets, ensure optimal performance and durability. The electric current generated by the rotating shaft is directed to an output terminal (9), where it can be harnessed for various applications. The generated electricity can be used immediately, stored in batteries, or fed into the grid.

[0059] Referring now to Fig. 7 illustrating, a perspective view of the cylindrical hollow pipe of the power generation system according to an exemplary embodiment of the present invention. The cylindrical hollow pipe (4) has a circular cross-section, and its length and diameter are optimized based on the specific application and wind conditions. The upper surface of the cylindrical hollow pipe is equipped with a series of openings or slits (11). These openings are strategically placed to allow efficient entry of air into the pipe. The design of these openings ensures that wind from various directions can enter the system, enhancing the overall wind channelization process. The captured wind is then directed through the pipe towards the concentric reducer pipe. The said cylindrical hollow pipe is constructed from high-strength, corrosion-resistant materials including but not limited to stainless steel, aluminum, and carbon fiber. These materials are chosen for their durability, lightweight properties, and ability to withstand harsh environmental conditions. Stainless steel offers excellent resistance to rust and corrosion, while aluminum provides a good strength-to- weight ratio, making the pipe easier to handle and install. The concentric reducer pipes consist of a series of nested pipes, each with progressively smaller diameters. This design helps to gradually increase the wind pressure as the air moves through the system. The broader end of the reducer pipe connects to the cylindrical hollow pipe, while the narrower end leads to the air inlet of the motor. Similar to the cylindrical hollow pipe, the concentric reducer pipes have openings or inlets on their outer surface. These inlets allow additional air to enter the system, further enhancing the wind channelization process. The connection between the cylindrical hollow pipe and the concentric reducer pipes is typically achieved using a flange connection. Flanges are flat, circular plates with holes that allow for bolted connections. The flange on the end of the cylindrical hollow pipe matches with a corresponding flange on the broader end of the concentric reducer pipes. This bolted connection ensures a secure and airtight seal, preventing air leaks and maintaining optimal pressure within the system.

[0060] To ensure a completely airtight connection, a gasket made of rubber or other flexible, durable material is placed between the flanges. Additionally, a sealant may be applied around the joint to further prevent any air leakage and ensure a smooth transition of wind from the cylindrical hollow pipe to the concentric reducer pipes.

[0061] Proper alignment of the pipes is crucial for efficient wind channelization. Support structures or brackets are used to hold the pipes in place, ensuring they remain correctly aligned and stable. These supports also help to minimize vibration and mechanical stress on the joints.

[0062] Referring now to fig. 8 illustrating a front view of the motor of power generation system according to another embodiment of the present invention. The motor (1) is enclosed with in a housing made from materials such as steel or aluminum, which protect the internal components from environmental factors and ensure structural integrity. The motor may optionally comprises a cooling system to maintain optimal performance and prevent overheating. This system can include air vents, cooling fins, or a liquid cooling mechanism, depending on the specific design and operational requirements. Furthermore, the entire motor assembly, including the shaft and generator, is anchored to a sturdy foundation (8). This foundation is designed to minimize vibration losses and provide stability, ensuring that the motor operates smoothly even under varying wind conditions.

Claims

CLAIMSI / We claim,1. A bladeless wind turbine power generation system for capturing and converting wind energy in narrow or spatially constrained location, comprising: a. a hollow cylindrical pipe with a plurality of spiral air inlets on its outer surface to facilitate efficient entry of air within the hollow cylindrical pipe to initiate a wind channelization process; b. a bladeless fan positioned at one end of the cylindrical pipe, configured to create negative air pressure within the system to optimize air flow and energy capture; c. a plurality of concentric reducer pipes connected to the other end of the cylindrical pipe, wherein each concentric reducer pipes havinga ring-shaped opening on its outer surface to allow additional air entry and enhance the wind channelization process; d. an air fuel tank connected to the concentric reducer pipes, configured to stabilize and manage airflow, comprising:• a pair of conducting coils positioned within the air fuel tank to capture kinetic energy from the wind and convert it to electrical energy through electromagnetic induction;• an anemometer for measuring wind speed, temperature, and pressure at the air fuel tank outlet, configured to transmit data to a central control server; e. a reducer pipe with a broader opening at the connection with the concentric pipes and a narrower opening at the motor air inlet, equipped with a series of fins to create controlled turbulence within the airflow, thereby improving energy transfer efficiency; and f. a motor connected to the reducer pipe, wherein the motor comprising:• a rotating shaft mounted on bearings and attached to rotor blades to capture wind and converts its kinetic energy into rotational motion;• a generator with coils and magnets to generate electrical energy from the rotational motion of the shaft through electromagnetic induction; and• an output terminal to harness the generated electrical energy2. The system as claimed in claim 1, wherein the conducting coils within the air fuel tank are made of copper or another high-conductivity material, and are arranged to maximize electromagnetic induction for efficient conversion of wind kinetic energy into electrical energy.

3. The system as claimed in claim 1, wherein the air fuel tank is configured to function as a pressure management system that provides a controlled environment for wind flow, stabilizing and concentrating airflow to the conducting coils for optimal energy conversion efficiency.

4. The system as claimed in claim 1, wherein the reducer pipe's cross-section gradually decreases from the air intake connected to the air fuel tank to the air output end connected to the motor, and the fins within the reducer are strategically angled and shaped to create turbulence, maximizing kinetic energy transfer and enhancing airflow efficiency.

5. The system of claim 1, wherein the central control server dynamically adjusts system operations based on real-time data from the anemometer, including switching the conducting coils between energy capture and heating modes to maintain optimal air pressure and improve airflow dynamics.

6. The system as claimed in claim 1, wherein the motor is enclosed in a protective housing made of materials such as steel or aluminum, and is equipped with a cooling system comprising air vents, cooling fins, or a liquid cooling mechanism to prevent overheating and maintain optimal performance.

7. The system as claimed in claim 1, wherein the air fuel tank includes a heating mechanism activated by the central control server based on data from the anemometer to increase air temperature and pressure, compensating for low-pressure conditions in colder weather.

8. The system as claimed in claim 1, wherein the cylindrical hollow pipe and concentric reducer pipes are constructed from corrosion-resistant materials such as stainless steel, aluminum, or carbon fiber, and are connected via a flange connection with a gasket and sealant to ensure an airtight seal and maintain optimal pressure.

9. The system as claimed in claim 1, wherein the anemometer positioned within the air fuel tank is configured to continuously sense and transmit data on wind flow characteristics to the central control server, enabling real-time adjustments to optimize energy generation efficiency.

10. The system as claimed in claim 1, wherein the generator within the motor is constructed using high-grade materials such as copper coils and neodymium magnets, ensuring high-efficiency energy conversion and durability under varying operational conditions.

Images