Human applied energy scaleup mechanism as supplement to inconsistent natural resources and direct electricity generation
Patent Information
- Authority / Receiving Office
- WO · WO
- Patent Type
- Applications
- Current Assignee / Owner
- BADKUL ANAND KUMAR
- Filing Date
- 2026-02-20
- Publication Date
- 2026-06-25
Smart Images
Figure IB2026051657_25062026_PF_FP_ABST
Abstract
Description
HUMAN APPLIED ENERGY SCALEUP MECHANISM AS SUPPLEMENT TO INCONSISTENT NATURAL RESOURCES AND DIRECT ELECTRICITY GENERATIONTECHNICAL FIELD
[0001] The present disclosure relates to the field of electricity generation. More particularly, the present disclosure relates to a system and method of generating electrical power using a scale up mechanism of human-driven mechanical input as alternative to fossil fuel-based engines and add-on natural resources.BACKGROUND
[0002] Background description includes information that may be useful in understanding the present disclosure. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed disclosure, or that any publication specifically or implicitly referenced is prior art.
[0003] Traditional natural resource-based generation efficiency is low i.e. rated power output is available for lesser hours in a day due to inconsistent nature of mechanical-input and further owing to existing human pedal-driven or treadle-based generators that lack effective force and revolutions per minute (RPM) amplification, leading to inadequate compatibility with commonly used generators and delivery of low power.
[0004] Conventional designs also suffer from mechanical energy losses due to poor coupling mechanisms, resulting in low efficiency. Many human-powered systems require direct electrical generation from multiple small generators, making synchronization and power management complex.
[0005] Prior systems often fatigue the operator quickly due to high resistance loads, limiting continuous operation. Battery backup in earlier designs is either absent or insufficient, failing to store surplus energy for later use. Mechanical wear and tear in conventional gearbased amplifiers reduces durability and increases maintenance costs. Prior art does not incorporate a high-efficiency force amplifier and RPM booster that are capable of transforming low power human effort into demand of mechanical output efficiently. Traditional human- driven generators also struggle with scalability, preventing large-scale implementation for power plants. Many existing solutions do not integrate an intelligent inverter system to regulate and optimize power conversion therefore results of those solutions are not visible in use.
[0006] Conventional systems also lack an efficient mechanical coupling between multiple power sources to drive a single large generator effectively. Energy transmission in earlier solutions results in significant losses due to inefficient torque transfer. Existing human- driven systems do not provide optimal battery backup for operator relief during long-duration usage leading to fatigue. The inability to generate significant power without direct grid integration has limited the practical applications.
[0007] To address these limitations, the present disclosure provides a novel system and method that overcome the shortcomings of the prior art.OBJECTS OF THE PRESENT DISCLOSURE
[0008] Some of the objects of the present disclosure, which at least one embodiment herein satisfies are as listed herein below.
[0009] It is a primary object of the present disclosure to maximize energy output from human-driven mechanical input by utilizing an advanced force amplifier and revolutions per minute (RPM) booster with mechanical coupling mechanism.
[0010] It is another object of the present disclosure to provide a human applied energy scaleup mechanism as supplement to inconsistent natural resources and direct electricity generation.
[0011] It is yet another object of the present disclosure to provide a system that integrates an optional battery backup to store excess energy, allowing for intermittent human effort while maintaining continuous power output.
[0012] It is yet another object of the present disclosure to provide a system that mechanically couples multiple energy sources to drive a single high-capacity generator, making it feasible for industrial and commercial applications.
[0013] It is still another object of the present disclosure to provide a system that minimizes mechanical wear and tear by employing an efficient torque transfer mechanism, reducing the need for frequent maintenance and component replacements.
[0014] It is still another object of the present disclosure to provide a system that is configured to accommodate multiple human-driven units, allowing for scalability based on power requirements while maintaining synchronized operation through mechanical coupling.SUMMARY
[0015] This section is provided to introduce certain objects and aspects of the present disclosure in a simplified form that are further described below in the detailed description. This summary is not intended to identify the key features or the scope of the claimed subject matter.
[0016] The present disclosure relates to the field of power generation. More particularly, the present disclosure relates to a system and method of generating electrical power using a scale up mechanism of human applied mechanical input.
[0017] In an aspect of the present disclosure, a system for generating electrical power using a human-driven mechanical input is disclosed. The proposed system can include a manually-operated mechanical input mechanism, including a treadle system suitable for continuous operation with comfort to operator for generating rotational motion at 15-20 RPM and typical applied force of around 15 kg.
[0018] The proposed system can further include a primary wheel driven by the manually-operated mechanical input mechanism that can help convert vertical treadle movement into rotation. The system can further include a RPM booster that increases the rotational speed from 15-20 RPM to 1500-1800 RPM, and a force amplifier that raises the applied force of 10-15 kg into 60-80 kg, thereby facilitating high-efficiency power conversion.
[0019] The proposed system can further include an alternator that can be coupled to the RPM booster for converting mechanical energy into Direct Current (DC) electrical power. The system can further include an inverter for converting DC output from the alternator into Alternating Current (AC) power. The system can further include an AC motor receiving power from the inverter to maintain continuous rotational motion. The system can further include a generator that is driven by the AC motor so as to produce four times higher-output AC power, including Automatic Voltage Regulation (AVR), voltage control, and overcurrent protection.
[0020] In an embodiment, the force amplifier and the RPM booster can be configured to utilize geared transmission, frictional enhancement, or flywheel-assisted acceleration to achieve high rotational speeds efficiently.
[0021] In an embodiment, primary wheel can be constructed from a lightweight and high-durability material so as to minimize energy loss and maximize mechanical efficiency. In an embodiment, the AC motor feedback control mechanism for dynamic regulation of speed ensures consistent performance under variable loads. In another embodiment, the generator can be synchronized with multiple human-driven input units, enabling scalable and modular power generation by connecting multiple systems in parallel. In yet another embodiment, thegenerated AC power output can be suitable for direct grid integration, off-grid electrification, and industrial applications, ensuring versatile Mechanical and electrical power utilization.
[0022] In an embodiment, the force amplifier and the RPM booster can incorporate any or a combination of a mechanical torque converter, belt drive, and a planetary gear system to achieve desired RPM amplification.
[0023] In an aspect of the present disclosure, a method of generating electrical power using a human-driven mechanical input is disclosed. The proposed method can begin with actuating a human-operated mechanical input mechanism to generate an initial rotational motion at approximately 15-20 RPM. The method can proceed with transferring rotational motion to a primary wheel, which maintains stability and ensures smooth energy transmission. The proposed method further proceeds with amplifying rotational speed using the RPM booster unit increasing speed from 15-20 RPM to 1500-1800 RPM, thereby achieving a suitable rotational velocity for power generation. The method proceeds further with driving the alternator using the amplified RPM to convert mechanical energy into electrical DC power. The method proceeds further with converting the DC output from the alternator into AC power via an inverter. The method proceeds further with driving the AC motor with the AC power generated by the inverter to maintain continuous rotational motion. The method proceeds further with coupling the AC motor to a 20KW generator to produce high-output AC power, equipped with Automatic Voltage Regulation (AVR), voltage control, and overcurrent protection. The method ends with synchronizing multiple human-driven input mechanisms to enhance power generation capacity by mechanically coupling multiple RPM Boosters.BRIEF DESCRIPTION OF DRAWINGS
[0024] The accompanying drawings are included to provide a further understanding of the present disclosure and are incorporated in, and constitute a part of this specification. The drawings illustrate exemplary embodiments of the present disclosure, and together with the description, serve to explain the principles of the present disclosure.
[0025] In the figures, similar components, and / or features may have the same reference label. Further, various components of the same type may be distinguished by following the reference label with a second label that distinguishes among the similar components. If only the first reference label is used in the specification, the description applies to any one of the similar components having the same first reference label irrespective of the second reference label.
[0026] FIG. 1 illustrates an exemplary block diagram representation of the proposed system for generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure.
[0027] FIG. 2 illustrates an exemplary flowchart representation of an operation of proposed system for generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure
[0028] FIG. 3 illustrates an exemplary flow diagram representation of the proposed method of generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure.
[0029] FIG. 4 illustrates an exemplary representation of an operation of the proposed system driven by human-powered treadle motion, in accordance with an embodiment of the present disclosure.
[0030] FIG. 5 illustrates an exemplary representation of the proposed system configured as a wind energy driver application, in accordance with an embodiment of the present disclosure.
[0031] FIG. 6 illustrates an exemplary representation of light tunnelling and optical fibre-based solar energy amplification method utilizing the proposed system, in accordance with an embodiment of the present disclosure.
[0032] FIG. 7 illustrates an exemplary representation of the proposed system configured as a discrete hydroelectricity generation model, in accordance with an embodiment of the present disclosure.DETAILED DESCRIPTION
[0033] The following is a detailed description of embodiments of the disclosure depicted in the accompanying drawings. The embodiments are in such detail as to communicate the disclosure. However, the amount of detail offered is not intended to limit the anticipated variations of embodiments. On the contrary, the intention is to cover all modifications, equivalents, and alternatives falling within the spirit, and scope of the present disclosure as defined by the appended claims.
[0034] Fig. 1 illustrates an exemplary block diagram representation of the proposed system for generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure.
[0035] Illustrated in Fig. 1 is a block diagram representation of the system 100 for generating electrical power using a human-driven mechanical input.
[0036] In an embodiment, the system 100 can be configured as a large-scale human driven power generation system, which utilizes multiple human driven Revolutions Per Minute (RPM) and power booster / amplifiers 102-2, 102-4, 102-6... 102-N (collectively referred to as power booster / amplifier 102 or and alternatively referred to as booster unit 102), where 'N' represents an expandable number of operators contributing to power generation, as primary energy input sources. Each of the power booster / amplifier 102 can be manually operated and configured to significantly increase rotational speed and power output using a cam and lever mechanism, eliminating need for conventional gears, pulleys, or belts. The proposed system 100 can include a plurality of power booster / amplifiers 102.
[0037] In an embodiment, output from power booster / amplifiers 102 can be mechanically coupled to a large rotor 104, which acts as a central drive shaft 104, collecting and integrating amplified mechanical energy from all individual booster units. This mechanical coupling ensures a synchronized and consistent power output, eliminating need for multiple individual generators that require complex electrical synchronization. The large rotor 104 can be configured to efficiently transfer mechanically amplified energy to a main plant generator 106, which converts the rotational motion into electrical energy. Unlike conventional generator setups where each unit has its own generator, the system 100 can aggregates multiple human inputs into a single synchronized power generation system. This approach enhances efficiency by reducing electrical losses that occurs when multiple independent generators are combined.
[0038] In an embodiment, system 100 offers scalability with the additional booster units 102 having the capability to connect to a large rotor to increase total power output. This configuration allows for a continuous and sustainable source of power generation, independent of weather conditions like solar or wind energy. Absence of fuel-based engines or batteries makes the system 100 an eco-friendly alternative to conventional power sources. The system 100 is cost-effective, as it primarily relies on simple mechanical components that are easy to fabricate, repair, and maintain.
[0039] Furthermore, direct mechanical coupling of booster units 102 ensures minimal transmission losses, making the system 100 highly efficient. Synchronized rotor movement prevents fluctuations in power generation, ensuring a stable and continuous electricity supply. System 100 may be implemented in industries, agriculture, and rural electrification projects, where conventional power sources are expensive or inaccessible.
[0040] In an embodiment, modularity of the system 100 allows for customization based on power demand, as the number of human-operated booster units can be adjusted accordingly. Lack of reliance on complex electrical components simplifies the overall system 100, makingthe system more durable and resistant to environmental conditions. The human-driven model provides a reliable alternative to energy storage systems, as power is generated on demand without requiring large-scale battery storage. Mechanical integration of the booster units 102 also enables potential applications in hydraulic, pneumatic, or mechanical drive systems beyond electricity generation. The system 100 ensures that energy is utilized efficiently, with minimal energy dissipation in transmission, making the system 100 ideal for decentralized power generation. The system 100 presents a scalable, efficient, and sustainable energy solution, offering economic and environmental benefits while ensuring continuous and stable power generation.
[0041] In an embodiment, the system 100 utilizes a treadle mechanism as the primary human interface, ensuring a comfortable and efficient means of energy input for continuous operation. The system 100 incorporates a modified treadle table with a 30-inch wheel, which is manually operated at 15-25 RPM. A 28-inch bicycle rear wheel rim with a 3-inch freewheel bearing gear is wrapped with barbed fencing wire, forming a gear-like surface for improved traction. A chain drive system connects the treadle wheel to the rim’s gear, increasing rotational speed by 10 times. A bicycle bottom bracket assembly is integrated, featuring a 3-inch pedal gear on one side and a counter flange pulley for an alternator on the other. This setup enables an overall 100-fold RPM amplification relative to the treadle’s movement. The shaft connecting the pulley to the alternator is 42 inches long, with a support installed 36 inches from the bicycle pulley, amplifying the applied force by six times, following the lever principle.
[0042] In an embodiment, an alternative space-saving configuration for electric vehicles replaces the treadle table with a compact treadle system and the wheel / rim with four bicycle bottom bracket paddle gears in series. In this configuration, the first paddle rotates at twice the treadle's RPM, the second at eight times, the third at 32 times, and the fourth at 100 times, achieving the same amplification as the standard setup. The system 100 is affordable, utilizing widely available components, making it suitable for cottage industries. The system 100 is highly efficient, significantly amplifying human input energy for electricity generation. The design is user-friendly, offering comfort, ease of maintenance, and reduced fatigue for operators.
[0043] In an embodiment, as an eco-friendly alternative to fossil-fiiel-based engines, the system 100 can power generators and replace motors for compressors, water pumps, hydraulic pumps, and flourmills, reducing electricity consumption. The system 100 is ideal for rural and remote areas, where two generators mounted on a tractor trolley can create a 40 kW Mobile Power Unit (MPU). In urban areas, a load carrier or e-rickshaw can serve as an MPUof 20 kW. The system 100 supports generator synchronization, either electrically or mechanically through freewheel bearings, allowing to drive larger generators or supply power to heavy loads. The system 100 promotes energy sustainability, enhances self-sufficiency, and offers a practical, scalable solution for decentralized power generation
[0044] FIG. 2 illustrates an exemplary flowchart representation of an operation of proposed system for generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure
[0045] Illustrated in Fig. 2 is a flowchart representation 200 of an operation of the system 100 that efficiently converts manual energy into high-power electrical output using a series of mechanical and electrical components.
[0046] In an embodiment, at 202, system 100 begins operation with a human foot- operated mechanism, such as a paddle or treadle, which serves as a primary energy input source. At 204, the movement drives a primary wheel, operating at a speed of 15-20 RPM while handling a load of 15-20 kg. At 206, mechanical energy from the primary wheel can be transferred to RPM Booster / Amplifier 102, which is capable of significantly increasing rotational speed from 15-20 RPM to 1500-1800 RPM, while managing a load between 50-600 kg. At 208, boosted mechanical energy can be used to drive a 48V DC, 5KW Alternator, which operates at 1500 RPM, converting rotational energy into DC electrical power.
[0047] At 210, an optional battery backup is integrated into the system 100 to provide operator relief, ensuring continuous power generation even if the human operator stops for a short period. At 212, DC power output from alternator can be fed into a 5KW inverter, which can convert 48V DC into AC power for further use. At 214, AC output can be supplied to a 5KW AC Motor, which can utilize electrical energy to maintain consistent rotational motion for further amplification.
[0048] At 216, AC motor, in turn, can drive a 20KW generator, which includes Automatic Voltage Regulation (AVR), voltage and current protection features, ensuring safe and stable power generation. The generator can be configured to provide a high-power output, making the system 100 suitable for various industrial or rural electrification applications. The combination of mechanical amplification and electrical conversion allows for significant energy multiplication, enabling a small manual input to generate a much larger power output.
[0049] In an embodiment, system 100 effectively eliminates dependency on traditional fossil fuel-based power sources, offering a renewable, sustainable, and cost-effective solution. The system 100 ensures minimal energy losses, as the mechanical and electrical componentsare carefully synchronized for optimal efficiency. Further, the booster units 102 play a crucial role in bridging the gap between low-speed human input and high-speed alternator operation.
[0050] In an embodiment, battery backup of the system 100 can also allow for continuous power generation in case of operator fatigue, making the system 100 a practical and scalable energy solution. System 100 may be expanded by increasing the number of foot- operated input sources, allowing multiple users to contribute to power generation simultaneously. Modular structure makes the system 100 adaptable for different energy needs, from small-scale rural electrification to large-scale industrial power supply. By utilizing human mechanical effort efficiently, the system 100 provides an alternative to solar and wind energy, ensuring availability even in locations with unpredictable weather conditions.
[0051] Furthermore, absence of fuel costs and complex electronic synchronization requirements makes the system 100 an economically viable solution. High reliability and durability of mechanical components makes the system 100 low-maintenance compared to conventional generators.
[0052] FIG. 3 illustrates an exemplary flow diagram representation of the proposed method of generating electrical power using a human-driven mechanical input, in accordance with an embodiment of the present disclosure.
[0053] Illustrated in FIG. 3 is a flow diagram representation of the method 300 of generating electrical power using a human-driven mechanical input.
[0054] The method 300 begins with actuating 302 a human-operated mechanical input mechanism to generate an initial rotational motion at approximately 15-20 RPM. The method 300 can proceed with transferring 304 rotational motion to a primary wheel, which maintains stability and ensures smooth energy transmission. The method 300 can further proceed with amplifying 306 rotational speed using RPM booster units 102 increasing speed from 15-20 RPM to 1500-1800 RPM, thereby achieving a suitable rotational velocity for power generation. The method 300 can further proceed with driving 308 an alternator using amplified RPM to convert mechanical energy into electrical DC power. The method 300 can further proceed with converting 310 DC output from alternator into AC power via an inverter. The method 300 can further proceed with driving 312 AC motor with AC power generated by inverter to maintain continuous rotational motion. The method 300 can further proceed with coupling 314 AC motor to a 20KW Generator to produce high-output AC power, equipped with Automatic Voltage Regulation (AVR), voltage control, and overcurrent protection. The method 300 can end with synchronizing 316 multiple human-driven input mechanisms to enhance power generation capacity by mechanically coupling multiple booster units 102.
[0055] In an embodiment, method of generating electrical power using a human-driven mechanical input begins with human operator exerting force on the foot-operated paddle or treadle, which rotates primary wheel at a low speed of approximately 15-20 RPM under a load of 15-20 kg. This rotational motion can be transmitted to RPM booster / amplifier 102, can which significantly increase rotational speed from 15-20 RPM to 1500-1800 RPM, while managing a load range of 50-600 kg. Amplified rotational speed can then be used to drive 48V DC, 5KW alternator, which operates efficiently at 1500 RPM, to generate electrical energy.
[0056] In an embodiment, generated DC power can be stored or be directly converted using a 5kW inverter, which can transform it into AC power for broader applications. AC output can then be used to operate the 5kW AC motor, which can further drive high-capacity 20kW generator equipped with Automatic Voltage Regulator (AVR), voltage stabilization, current regulation, and protection mechanisms. 20kW generator can provide a consistent and stable electrical output, making it suitable for powering industrial, commercial, or residential applications.
[0057] In an embodiment, optional battery backup can be integrated into system 100 to store excess energy and provide operator relief, ensuring uninterrupted power supply even during pauses in manual operation. Mechanical coupling mechanism of system 100 allows for multiple human-driven units to be connected, collectively driving a larger generator and increasing total power output. This method can eliminate inefficiencies of individual generators and ensures synchronized energy production. Mechanical-to-electrical conversion efficiency can be significantly enhanced by optimizing torque transfer and reducing energy losses. System 100 can be designed to be scalable, allowing more human-driven inputs to be connected in parallel for increased power generation. Unlike conventional human-powered systems, which suffer from low efficiency and inconsistent energy output, this method ensures a continuous and reliable energy supply. The design also reduces mechanical stress on individual components, leading to longer operational life and minimal maintenance requirements.
[0058] By eliminating dependence on fossil fuels and conventional electricity grids, the system 100 promotes sustainable and eco-friendly energy generation. The high-speed rotational conversion reduces the effort required from the operator, making system 100 a practical alternative to traditional power generation methods. Inclusion of AVR-equipped generator ensures voltage stability, making the system 100 compatible with a wide range of electrical appliances and industrial machinery. Power generated can be used for grid-independent applications, reducing electricity costs and ensuring power availability in remote areas.
[0059] In an embodiment, system 100 can also be enabled for ease of use, allowing even non-experts to operate it efficiently. By integrating an intelligent load distribution mechanism, power output remains stable regardless of fluctuations in human input. This method enables efficient large-scale power generation using human-driven mechanical input, offering a viable alternative to conventional energy sources.
[0060] In an embodiment, system 100 can enable operation of low-cost 20 kW generators running at 1500 RPM to efficiently produce electricity. By synchronizing multiple generators, system 100 can be scaled to achieve larger power outputs. System 100 can be significantly more affordable than solar or wind power, with an installation cost of ?l 5 million per MW compared to ?35 million for solar or wind. Further, system 100 requires only 1 acre of land per MW, whereas solar and wind farms demand at least 5 acres. A key advantage of this system 100 is its ability to generate 200 jobs per MW, unlike solar and wind energy, which require minimal labour. Furthermore, human-powered plants can function continuously, operating 24 / 7 without dependency on weather conditions, making them a more reliable and sustainable alternative to traditional renewable.
[0061] In an embodiment, booster units 102 may be directly connected to various mechanical applications, eliminating need for electric motors and enhancing efficiency. Instead of generating electricity, amplified mechanical power can be used to drive compressors for refrigeration, air compression, and pneumatic systems. System 100 can also be used to operate hydraulic pumps for irrigation, construction, and industrial applications. System 100 can be highly effective for water pumps, providing a reliable solution for drinking water supply and agricultural irrigation. Further, system 100 can drive flourmills and grinders, supporting small- scale food production in rural areas. Laundry machines can also be powered directly, making them suitable for both industrial and off-grid rural washing systems. The technology can be applied to harvester machines for agricultural crop cutting, as well as sugarcane crushers and impellers for efficient sugar and juice extraction, offering a versatile and sustainable alternative for multiple industries.
[0062] In an embodiment, a mobile power van equipped with a generator can be attached to an e-vehicle, providing continuous power and reducing dependence on lithium-ion batteries. This approach can minimize the need for frequent charging and extends the vehicle's operational range. If space constraints exist within a vehicle, booster unit 102 can be mechanically coupled directly to drive the vehicle, eliminating necessity of conventional battery-powered systems. By replacing costly lithium-ion batteries, system 100 can significantly lower initial investment and long-term maintenance expenses. Further, system 100can enhance sustainability of electric vehicles by eliminating battery disposal concerns, making it an efficient and eco-friendly alternative for transportation.
[0063] In an embodiment, system 100 can enhance solar plant efficiency by supplying energy to LED lights positioned near solar panels during nighttime. These LEDs emit a spectrum similar to sunlight, allowing solar panels to generate additional power even after sunset. This method extends effective operational hours of the solar plant, improving overall energy output. Compared to halogen or sodium arc lamps, LEDs offer superior spectral output, making them more effective in stimulating solar panels for increased efficiency. Further, this approach reduces reliance on grid electricity for nighttime lighting, lowering operational costs while maximizing renewable energy utilization.
[0064] In an embodiment, system 100 can drive high-pressure air fans to enhance wind turbine efficiency by increasing airflow around the blades. This controlled air movement can help maintain consistent turbine rotation, even in low-wind conditions, leading to more stable power generation. By artificially boosting wind speed, system 100 can ensure optimal turbine performance and maximizes energy output. This approach reduces dependence on natural wind fluctuations, making wind power plants more reliable. Thus, system 100 can enhance renewable energy efficiency while lowering cost per unit of electricity generated.
[0065] In an embodiment, the system 100 utilizes human-applied energy to generate scalable electricity by amplifying force and rotational speed, making the system 100 compatible with generators and motorized equipment. Traditional human-generated electricity has been inefficient due to low energy input, while solar and wind power also suffer from intermittency issues. By employing the lever-based power booster 102, human force is increased fourfold, and rotational speed is amplified 100 times through a cascading cycle crank system. This allows a human operator to drive a 5 kW DC alternator, which charges a battery and feeds an inverter to deliver stable AC power output up to 20 kW. The system 100 is cost- effective and serviceable, with locally available components, making the system 100 feasible for home or cottage industry production. The system 100 can replace fossil-fuel generators, power compressors, pumps, mills, and harvesters, and serve as a mobile power unit on tractor trolleys. The assembly can also enhance electric vehicles, reducing battery dependency by integrating under-seat human-powered generators. In solar applications, the system 100 powers LED plates, lenses, and optical fibre cables to optimize photovoltaic energy collection. For wind energy, it drives high-pressure fans to sustain airflow for wind turbines, improving efficiency. By integrating human energy into renewable systems, the system 100 offers sustainable, off-grid power solutions for rural and remote areas.
[0066] FIG. 4 illustrates an exemplary representation of an operation of the proposed system driven by human-powered treadle motion, in accordance with an embodiment of the present disclosure.
[0067] Illustrated in Fig. 4 is a representation 400 of the system 100 driven by human- powered treadle motion. The system 100 starts with a treadle-operated booster assembly 402 where the user applies low-RPM mechanical input. The treadle-operated booster assembly 402 is connected to a first clamp, which transmits the rotational motion to the central drive shaft 104 via a connecting rod. The central drive shaft 104 is secured by a second clamp, which acts as an intermediate linkage. The central drive shaft 104 rotates the outermost gears fixed on a third clamp, which houses the first driver gear in a cascading gear train. The rotational speed from the treadle-operated booster assembly 402 is initially doubled (RPM x 2X) in the first stage. The output from the first stage is transferred to a smaller driven gear, resulting in a further amplification (RPM x 12X). The cascading process continues across four stages, reaching RPM x 100X in the final stage. Each stage progressively amplifies the RPM by reducing the gear diameter ratio. The amplified rotational speed is delivered to an electric generator 404, which converts mechanical energy into electrical power. There may be a support structure provided to ensure stability, while spacer bolts provide flexibility to prevent gear misalignment. The system 100 maximizes human mechanical input into high-efficiency power generation.
[0068] FIG. 5 illustrates an exemplary representation of the proposed system configured as a wind energy driver application, in accordance with an embodiment of the present disclosure.
[0069] Illustrated in Fig. 5 is a representation 500 of the system 100 configured as a wind energy driver application. The system 100 begins operation with the treadle-operated booster assembly 402, where human force generates initial rotational input at RPM = X. The treadle-operated booster assembly 402 is wrapped with a fencing wire 502 along a circumference, serving as a makeshift gear mechanism. There is provided a wheel that drives a bicycle rim, which acts as the first amplification stage, multiplying the rotational speed to RPM x 10X through the increased diameter ratio. The amplified motion is transmitted vertically via a belt or wire drive to the second gear stage, marked as RPM x 100X, using a smaller wheel with a greater gear ratio difference. The final amplified motion is transferred to a wind energy generator or turbine system, where the high RPM enables efficient electricity generation. A power amplifier support 504 ensures structural stability and alignment of the rotating components. This system 100 leverages simple mechanical components to convertlow-speed human mechanical input into high-speed rotational energy, making it a low-cost, sustainable solution for wind energy applications.
[0070] In an embodiment, the system 100 may be configured as a human energy- assisted wind electricity generation system, which integrates human energy input, high- pressure fans, a wind turbine, and a generator. During periods of low wind speed, human- operated high-pressure fans generate a steady airflow, which is then channelled through a duct to the wind turbine. This ensures that the turbine continues rotating, even in the absence of natural wind, maintaining a consistent power output. The reliability of the system 100 is enhanced by reducing dependence on fluctuating wind conditions. The optimized airflow direction and turbine design improve energy conversion efficiency, maximizing power generation. The modular design makes the system 100 scalable, allowing for easy deployment in various locations.
[0071] In an embodiment, the system 100 is particularly useful in areas with inconsistent wind patterns, ensuring a continuous electricity supply. The system 100 also supports off-grid energy production, making the system 100 ideal for rural and remote areas. Human input can be provided through treadles, bicycles, or manual cranks, making the system 100 versatile and adaptable. This hybrid approach reduces reliance on fossil fuels, contributing to a cleaner environment. Further, the system 100 may be integrated with existing wind farms, enhancing their overall efficiency. The technology is cost-effective, utilizing readily available components for easy maintenance. The system 100 also serves as an alternative power source in emergency situations or during power outages.
[0072] FIG. 6 illustrates an exemplary representation of light tunnelling and optical fibre-based solar energy amplification method utilizing the proposed system, in accordance with an embodiment of the present disclosure.
[0073] Illustrated in Fig. 6 is a representation 600 of enhancement of solar power plant efficiency by the system 100 by utilization of an innovative light tunnelling and optical fibrebased solar energy amplification method. During nighttime, the human-powered generator supplies energy to LED lights with a spectrum matching sunlight, placed near solar panels. This approach extends solar power generation hours beyond daytime. The system 100 further optimizes land use by enabling three-tier vertical solar panel installations in covered locations, reducing the required land footprint by 50%. Light is collected and amplified using concave lenses before being transmitted through optical fibre cables to the solar panels, where convex lenses refocus it onto the photovoltaic surface. During daylight, optical fibre cables are retracted, making the system highly adaptive.
[0074] In an embodiment, the system 100 may be integrated with a Light Emitting Diode (LED) plate mounted in a vertical orientation, powered by human-generated electricity, which directs light into a concave lens. The lens, with a 6-inch radius and magnification of 4- 6, is mounted on a tiltable stand, allowing it to focus on the sunlight during the daytime. A bunch of Optical Fibre Cables (OFCs), 12 inches in diameter, is clamped at the vertex of the lens to capture and transport light efficiently. During daylight hours, the tiltable stand aligns the lens with the sun, channelling magnified sunlight through the OFC bundle to the solar plates via another lens at the other end.
[0075] At night, the system 100 switches to human-powered LEDs, which emit light that is similarly magnified and directed to the solar plates, ensuring continuous energy input. This optimizes energy utilization, as human effort efficiently generates electricity to power LEDs. The magnification process enhances solar energy absorption, leading to higher energy output from the solar plates.
[0076] In an embodiment, the system 100 combines human energy, LED technology, optical fibre transmission, and solar power into a hybrid renewable energy solution. The system 100 provides a cost-effective alternative for off-grid and remote areas, reducing reliance on battery storage and fossil fuels. The optical fibre transmission ensures minimal energy loss, maintaining high light intensity for maximum solar panel efficiency. The tiltable lens stand allows for dynamic adjustments, improving daylight capture.
[0077] By leveraging human effort during the night, the system 100 ensures round-the- clock energy production. This approach is scalable, allowing multiple units to be installed for larger power demands. The system 100 enhances energy independence, particularly in regions with inconsistent sunlight. The system 100 supports sustainability, by reducing the need for expensive energy storage systems. The system 100 can be implemented in urban and rural settings, providing continuous power for homes, businesses, and community centres. The system also contributes to climate resilience, by reducing reliance on grid-based power sources.
[0078] In an embodiment, human-powered energy can be utilized to drive large ventilation fans positioned 30 to 40 km away from city borders in four or eight directions, depending on the city's size in order to reduce urban pollution. The fans will draw in clean air and create a positive pressure of 10 mmWC in a 24" to 48" duct. The duct will transport the fresh air to the city's border, where another human-powered induced-draft fan will generate a - 20 mmWC pressure, forcing air into a chimney system for city-wide circulation. In cities prone to extreme weather, the air will pass through a temperature-regulating tank with a water jacket, which will be cooled in summer and heated in winter using human-powered fans, pumps, andheaters. Similarly, human-powered pumps and heaters can be used to transport and distribute filtered water in regions where winter temperatures drop significantly.
[0079] In an embodiment, a centralized illumination system for towns and rural areas can be developed using human-powered LED lights, which are magnified by lenses and tunnelled through fibre optic cables to provide low-maintenance lighting at various locations. The fibre optic system can be further magnified at the point of use, replacing costly electrical lights. For national defence, a distant illumination system can provide border lighting, enhancing security in remote areas. Further, in sensitive border regions, human-powered high- pressure fans can generate a wind curtain with speeds of 50-60 km / h to enhance security. The fans will create an air pressure of 100 mmWC, which will be directed through 24-inch ducts opening at the border. Unlike the city ventilation system, no induced draft fan is needed due to the shorter transport distance of 5-6 km. These wind barriers can help deter unwanted aerial intrusions and provide environmental benefits by improving air circulation in urban and rural areas.
[0080] In an embodiment, the system 100 reduces dependence on fossil fuels, minimizes air pollution, and enhances sustainability. The system 100 can also be expanded to power small-scale agricultural and industrial applications using human-driven mechanical energy amplification.
[0081] FIG. 7 illustrates an exemplary representation of the proposed system configured as a discrete hydroelectricity generation model, in accordance with an embodiment of the present disclosure.
[0082] Illustrated in Fig. 7 is a representation 700 of the system 100 configured as a discrete hydroelectricity generation model that integrates human-driven mechanical pumping for water recirculation. A water body 702 serves as an initial energy source, with water being drawn through a liftable side door 704 and directed into a hydropower turbine 706 positioned at a lower level. The turbine 706 is connected to a generator 708, which converts mechanical energy into electricity. To sustain continuous operation, a human-powered mechanical pump 710 assists in recirculating water back to the elevated water source 702. The suction force from the pump 710 enhances the hydraulic pressure entering the turbine 706, increasing energy efficiency. The discrete hydroelectricity generation model is enabled to function independently of external power sources, making it viable for off-grid and rural energy generation. This approach allows small-scale hydroelectric systems to be installed in reservoirs, lakes, or overhead tanks.
[0083] In an embodiment, the system 100 may be configured as a discrete hydroelectricity modelling system consisting of multiple small-scale hydroelectric generators installed on lakes, reservoirs, or overhead tanks using siphons. These turbines harness the energy of flowing water to generate electricity efficiently. To ensure a continuous water supply, human-operated pumps will be used to recirculate the water back to its source after passing through the turbines. This approach makes the system 100 highly sustainable and reliable, reducing dependence on natural water flow or external energy sources. By utilizing human energy, the system 100 can function independently of weather conditions, ensuring a consistent power output. The system 100 is configured to be scalable and adaptable, and thus, suitable for rural and urban areas alike. The system 100 provides a low-cost, renewable energy solution with minimal environmental impact. The integration of human-powered pumps ensures greater energy independence in off-grid locations. Further, the system 100 supports decentralized power generation, reducing reliance on large-scale power plants, thereby offering a sustainable and eco-friendly approach to hydroelectricity.
[0084] A use case of the system 100 is described herein. In a rural area, where electricity is scarce, a user in an off-grid village needs a reliable way to draw water from a deep well for irrigation. By installing the system 100, the user operates a treadle-powered booster assembly, which converts low-RPM foot movements into a high-speed rotary motion. The lever-based force amplification mechanism ensures minimal effort while maximizing output. A series of geared wheels and sprockets increase the rotational speed step by step. The final high-RPM output shaft is connected to a centrifugal water pump, enabling efficient water extraction. The system 100 eliminates reliance on diesel engines or electricity, significantly reducing operational costs. Further, the system 100 is eco-friendly, producing zero emissions. The system 100 can be modified to accommodate multiple users, further increasing efficiency. A lightweight flywheel can be integrated to store momentum, ensuring smooth operation. The system 100 can also work in windmill applications, where mechanical energy from wind replaces human effort. In flood-prone areas, the system 100 can be adapted for drainage pumping, reducing waterlogging. With minor modifications, the system 100 can drive grain mills, aiding small-scale food processing. The low maintenance and cost-effectiveness make the system 100 highly viable for developing regions. The system 100 enhances energy accessibility without external power dependence. The system 100 also supports sustainable agricultural growth, improving food security. With the right design, the system 100 can be integrated with renewable energy sources, further increasing its efficiency.
[0085] While the foregoing describes various embodiments of the invention, other and further embodiments of the invention may be devised without departing from the basic scope thereof. The scope of the invention is determined by the claims that follow. The invention is not limited to the described embodiments, versions, or examples, which are comprised to enable a person having ordinary skill in the art to make and use the invention when combined with information and knowledge available to the person having ordinary skill in the art.ADVANTAGES OF THE DISCLOSURE
[0086] In an aspect, the proposed system effectively amplifies low-speed human mechanical input into high-speed rotational energy, enabling generation of significant electrical power (up to 20kW) with minimal physical strain on the operator.
[0087] In an aspect, unlike fossil fuel-based power systems, the proposed method relies on human-driven mechanical input, making it a renewable, non-polluting, and carbon-free energy solution, reducing dependency on conventional electricity sources.
[0088] In an aspect, RPM booster / amplifier of the proposed system significantly increases rotational speed from 15-20 RPM to 1500-1800 RPM, thereby improving efficiency of mechanical-to-electrical energy conversion and ensuring stable power output.
[0089] In an aspect, the proposed system allows for multiple human-operated units to be interconnected mechanically, allowing for scalable energy generation suitable for industrial, commercial, and off-grid applications without requiring individual generators.
[0090] In an aspect, proposed system 100 can include an optional battery backup for energy storage, ensuring continuous operation and making it ideal for remote locations, disaster recovery situations, and areas with unreliable electricity supply.
Claims
aim:
1. A system (100) for generating electrical power using a human-driven mechanical input, the system (100) comprising: a manually-operated mechanical input mechanism selected from any or a combination of a paddle and a treadle system for generating rotational motion at 15-20 RPM; a primary wheel driven by the manually-operated mechanical input mechanism; a Revolutions per Minute (RPM) Booster (102) operatively coupled with the primary wheel and configured to increase rotational speed from 15-20 RPM to 1500-1800 RPM, facilitating high-efficiency power conversion; an alternator coupled to the RPM Booster (102) to convert mechanical energy into DC electrical power; an inverter for converting the DC output from the alternator into AC power; an AC motor receiving power from the inverter to maintain continuous rotational motion; and a generator (106) driven by the AC motor to produce high-output AC power, including Automatic Voltage Regulation (AVR), voltage control, and overcurrent protection.
2. The system (100) as claimed in claim 1, wherein the RPM Booster (102) utilizes any or a combination of geared transmission, frictional enhancement, and flywheel-assisted acceleration to achieve high rotational speeds efficiently.
3. The system (100) as claimed in claim 1, wherein the primary wheel is constructed from a lightweight and high-durability material so as to minimize energy loss and maximizing mechanical efficiency.
4. The system (100) as claimed in claim 1, wherein the AC motor comprises a feedback control mechanism for dynamic regulation of speed to ensure consistent performance under variable loads.
5. The system (100) as claimed in claim 1, wherein the generator (106) is synchronized with multiple human-driven input units, enabling scalable and modular power generation by connecting multiple systems in parallel.
6. The system (100) as claimed in claim 1, wherein the generated AC power output is suitable for direct grid integration, off-grid electrification, and industrial applications, ensuring versatile power utilization.
7. The system ( 100) as claimed in claim 1 , wherein the RPM Booster ( 102) comprises any or a combination of a mechanical torque converter, a belt drive, and a planetary gear system to achieve desired RPM amplification.
8. A method (300) for generating electrical power using a human-driven mechanical input, the method (300) comprising steps of: actuating (302) a human-operated mechanical input mechanism to generate an initial rotational motion at approximately 15-20 RPM; transferring (304) rotational motion to a primary wheel; amplifying (306) rotational speed using an RPM Booster (102) so as to increase speed from 15-20 RPM to 1500-1800 RPM; driving (308) an alternator using the amplified RPM to convert mechanical energy into electrical DC power; converting (310) the DC output from the alternator into AC power via an inverter; driving (312) an AC motor with the AC power generated by the inverter to maintain continuous rotational motion; coupling (314) the AC motor to a 20KW generator to produce high- output AC power, equipped with Automatic Voltage Regulation (AVR), voltage control, and overcurrent protection; and synchronizing (316) multiple human-driven input mechanisms to enhance power generation capacity by mechanically coupling the RPM Booster (102).