Electromagnetically driven motor system

Abstract

The electromagnetically actuated motor system described in this patent application represents a sustainable alternative to conventional combustion engines. It uses electromagnets to drive pistons in non-magnetic cylinders and convert linear motion into rotational motion. The modular design allows for easy maintenance and scalability for various applications. A sophisticated control unit manages the electromagnetic pulses in real time and optimizes motor performance. The system can operate in both energy-efficient and high-performance modes to adapt to different operating requirements. To maximize efficiency, the motor system integrates advanced energy recovery technologies, including regenerative braking and a feedback-controlled energy recovery system. Dual-pole electromagnets and supermagnet cylinders reduce energy losses and increase efficiency. The motor system is versatile and can be used in various industries, such as automotive and power generation. Safety mechanisms, real-time monitoring, and a cooling system ensure reliable operation under all conditions. This application protects the innovative design of the motor system and its unique features for broad application in sustainable mobility and energy.

Description

[0001] This invention relates to an innovative motor system that uses electromagnetic actuation as a direct replacement for traditional internal combustion engines. The system uses an array of electromagnets and magnets to generate controlled electromagnetic pulses that drive the pistons, similar to the operation of an internal combustion engine.

[0002] The core components include electromagnets designed to generate powerful magnetic fields, with dimensions and materials adaptable to different motor types. In one embodiment, the electromagnets utilize a soft iron core wound with copper wire, but alternative materials and configurations are available as needed. Neodymium or similar high-performance magnets are integrated into the pistons, which move within non-magnetic cylinders to eliminate interference and maximize efficiency.

[0003] The system is powered by a series of lithium-ion battery packs arranged to provide substantial capacity for extended operation. One example configuration might use 2170 lithium-ion cells, but other battery technologies and formats can be employed depending on specific requirements. The system's energy consumption is highly efficient, with a control unit managing the timing and intensity of the electromagnetic pulses. This control unit processes inputs from various sensors to precisely control the energizing of the electromagnets, ensuring optimal performance and efficiency.

[0004] The system integrates common energy recovery techniques, such as regenerative braking, to recover energy during deceleration and increase overall efficiency. Additionally, the system can utilize specialized energy recovery methods tailored to the specific requirements of the electromagnetically driven motor, which are described in detail in other sections of this documentation. Supercapacitors are used to handle peak power demands, ensure stable performance, and protect the primary battery system.

[0005] Cooling mechanisms, such as water or air cooling, are integrated to maintain optimal operating temperatures, but different cooling technologies can be adapted as needed.

[0006] This electromagnetically actuated motor system offers a clean, efficient, and sustainable alternative to internal combustion engines, maintaining compatibility with existing automotive infrastructure while achieving significant improvements in energy efficiency and environmental impact. The system's versatile design allows for adaptation to various materials, dimensions, and configurations to meet the requirements of different motor types and applications. The known state of the art: internal combustion engines

[0007] Internal combustion engines (ICEs) have been the dominant technology in automotive propulsion for over a century. These engines operate by igniting a mixture of fuel and air in cylinders, creating controlled explosions that drive the pistons. The linear motion of the pistons is converted into rotary motion via a crankshaft, which ultimately powers the vehicle's wheels. Key features of ICEs include: Fuel source: Typically gasoline or diesel. Combustion process: Includes chemical energy conversion and produces exhaust gases and heat. Components: These include pistons, cylinders, crankshaft, valves, fuel injection and exhaust systems. Efficiency: Generally lower compared to electric motors due to energy losses from heat and friction. Environmental impact: Significant emissions of CO2 and other pollutants. electric motors

[0008] Electric motors have gained considerable importance in recent years due to their higher efficiency and lower environmental impact compared to internal combustion engines (ICEs). Electric motors operate by converting electrical energy into mechanical energy using electromagnetic fields. Key characteristics of electric motors include: Energy source: Battery packs, typically lithium-ion. Operation: Includes the interaction of magnetic fields generated by stators and rotors to produce motion. Components: These include stators, rotors, inverters and battery management systems. Efficiency: Higher efficiency due to lower energy losses (heat, friction). Environmental impact: No exhaust emissions; the environmental impact is mainly associated with battery production and electricity generation. Electromagnetically driven motor system

[0009] The electromagnetically actuated motor system represents a novel approach that combines elements of both ICEs and electric motors while introducing unique features. This system uses electromagnetic pulses to drive pistons and mimics the mechanical layout of ICEs, but with the efficiency and cleanliness of electric motors. Key features of this system include: Energy source: Battery packs, adaptable to different types and configurations (e.g. 2170 lithium-ion cells).

[0010] Operation: Uses electromagnets to generate pulses that move pistons in cylinders and convert the linear motion into a rotary motion via a crankshaft.

[0011] Components: These include electromagnets, pistons with integrated magnets, crankshaft, valves, air intake systems and exhaust systems designed for turbo compounding.

[0012] Turbo-compounding system: Air is drawn in as in atmospheric engines, passed through the pistons, and directed into a turbo-compounding system. This system utilizes the kinetic energy of the exhaust gases to generate additional electrical energy or, if required, mechanical energy, thereby increasing overall efficiency. The flexibility in generating either form of energy makes the system adaptable to various operating requirements.

[0013] Efficiency: High efficiency through precise control of electromagnetic pulses and energy recovery techniques.

[0014] Environmental impact: No exhaust emissions, similar to electric motors, with the potential for lower overall environmental impact due to efficient energy use. Similarities and differences

[0015] Energy conversion: ICEs convert chemical energy into mechanical energy, while electrically and electromagnetically operated motors convert electrical energy into mechanical energy. Components

[0016] Internal combustion engines (ICEs) and electromagnetically actuated motors both use pistons, crankshafts, and valves. The electromagnetically actuated motor replaces combustion with electromagnetic pulses and incorporates a turbo-compounding system to maximize energy recovery by generating either electrical or mechanical energy. Electric motors typically do not use pistons, crankshafts, or valves. Efficiency and emissions

[0017] Both electric and electromagnetically actuated motors offer significantly higher efficiency and zero emissions compared to internal combustion engines (ICEs). However, the electromagnetically actuated motor system not only requires less power to travel the same distance as conventional electric motors, but also surpasses them in generating additional electricity during operation. This dual efficiency is achieved through the system's inherent design, which optimizes energy consumption, as well as through the integration of several advanced energy recovery technologies. These technologies include regenerative braking, turbo compounding, energy recovery via dual-pole electromagnets, and energy generation through supermagnet cylinders.The result is that the electromagnetically actuated motor system is not only more energy-efficient and reduces overall power consumption, but also generates excess energy, improving overall performance, extending range, and maintaining zero emissions. Design and operation: The electromagnetically actuated motor system retains the familiar mechanical architecture of ICEs, including components such as the crankshaft and valves, and incorporates a turbo compounding system to maximize energy recovery. This design facilitates integration into existing vehicle designs and infrastructure while taking advantage of advances in electric drive technology. Enhanced Management and Performance Control

[0018] Pulse control and management: The electronic control system in the electromagnetically actuated motor enables precise management of the electromagnetic pulses. This capability far surpasses the control options in internal combustion engines (ICEs), where explosions are mechanically controlled. The electronic system can precisely time the pulses, adjust their intensity according to the required energy, and even increase the frequency of these pulses, thus simulating a higher rate of "explosions" than is possible in conventional ICEs. This control not only improves efficiency but also allows the motor to operate at higher speeds (RPM), as the system can generate and control more pulses per second.

[0019] Speed ​​and power: The ability to generate more pulses in a shorter time directly translates to a higher rotational speed capacity compared to ICEs. With ICEs, the explosion rate is limited by mechanical factors, whereas in the electromagnetically actuated system, the number of pulses per second can be increased without such limitations. This results in potentially higher rotational speeds, offering improved performance and responsiveness.

[0020] Maintenance and longevity: The absence of combustion-related components such as spark plugs, injectors, and exhaust systems reduces maintenance requirements and increases engine longevity. Since the system relies on electromagnetic pulses instead of chemical explosions, wear and tear associated with combustion is eliminated.

[0021] This system eliminates the lag typically associated with turbochargers. Similar to electric vehicles, it delivers instant torque as soon as the accelerator pedal is pressed, providing immediate and responsive power. This results in a driving experience that is both smooth and powerful, with no delay in power delivery. Advanced control:

[0022] Electronic Control Unit: The system's electronic control unit (ECU) offers unprecedented precision in managing the timing, intensity, and frequency of the electromagnetic pulses. This control enables real-time adjustments based on the engine's power requirements, optimizing energy consumption and improving overall efficiency. This ECU-controlled system stands in stark contrast to the more mechanical, less adaptive control systems found in ICEs.

[0023] In summary, while the electromagnetically actuated motor shares the basic mechanical principles of piston movement and energy conversion with ICEs, it utilizes advanced electronic controls and electromagnetic pulses to achieve superior efficiency, higher speeds and lower maintenance requirements - all without emissions.

[0024] By leveraging the strengths of both traditional and modern drive technologies, the electromagnetically actuated motor system aims to offer a highly efficient, environmentally friendly alternative to existing engine designs. This innovative approach offers the potential for significant advancements in automotive technology and sustainability. Identification of the disadvantages of internal combustion engines (ICEs): Low efficiency:

[0025] Internal combustion engines typically operate with an efficiency of about 25-30%, which means that a significant portion of the energy from the fuel is lost as heat instead of being converted into usable mechanical energy.

[0026] This inefficiency leads to higher fuel consumption and higher operating costs. High emissions:

[0027] ICEs produce significant amounts of greenhouse gases (CO2) and other pollutants (NOx, CO, particles) that contribute to environmental pollution and global warming.

[0028] Regulatory pressure to reduce emissions is increasing, making compliance more difficult and costly. Complexity and maintenance:

[0029] ICEs consist of numerous moving parts such as pistons, valves, crankshafts and fuel injection systems, forming complex mechanical systems that require regular maintenance and are prone to wear.

[0030] Maintenance costs can be high, and engine failures can lead to significant downtime and repair costs. Dependence on fossil fuels:

[0031] ICE trains rely primarily on gasoline or diesel, fossil fuels that are finite and subject to price fluctuations and geopolitical problems.

[0032] The extraction, refining and distribution of these fuels has significant environmental impacts. Electric motor battery limitations:

[0033] The energy density of current battery technology is lower compared to liquid fuels, resulting in shorter driving distances and longer charging times.

[0034] Batteries deteriorate over time, resulting in reduced capacity and performance, and their disposal poses an environmental burden. High purchase costs:

[0035] Electric vehicles (EVs) generally have higher purchase costs compared to traditional ICE vehicles due to the expensive battery packs and advanced electronics.

[0036] Although operating costs are lower, the initial investment can be a hurdle for many consumers. Infrastructure challenges:

[0037] The widespread adoption of EVs requires significant investment in charging infrastructure, which is still inadequate in many regions.

[0038] Charging times, even with fast chargers, are longer than refueling a petrol or diesel vehicle, which can be inconvenient for users. Environmental impacts of battery production:

[0039] The production of lithium-ion batteries involves the mining of rare earth elements, which can be environmentally damaging and often takes place in countries with lax environmental regulations.

[0040] The carbon footprint of battery production is significant, which partially negates the environmental benefits of using electric vehicles. Electromagnetically actuated motor system

[0041] The electromagnetically actuated motor system aims to eliminate many of the disadvantages of both ICEs and electric motors, offering a more efficient and environmentally friendly alternative: Improved efficiency: By using electromagnetic pulses to drive the pistons, this system significantly reduces energy losses compared to the combustion process in ICEs, resulting in higher overall efficiency. No emissions: The electromagnetically actuated motor system produces no exhaust emissions, thus eliminating the environmental impacts associated with CO2 and other pollutants produced by ICEs. Simplified maintenance: With fewer moving parts than ICEs, this system reduces the complexity and frequency of maintenance, potentially lowering operating costs and increasing reliability. Versatile energy source: The system is powered by battery packs that can be charged with renewable energy sources, thereby reducing dependence on fossil fuels and mitigating the associated environmental impacts. Energy recovery: By integrating regenerative braking and advanced energy management techniques, the system increases energy efficiency by recovering and reusing energy that would otherwise be lost. Adaptable to existing infrastructure: The design retains the familiar mechanical architecture of ICEs, including components such as the crankshaft and valves, which facilitates integration into existing vehicle platforms and infrastructures. Reduced environmental impact of batteries: By maximizing energy efficiency and integrating advanced cooling and management systems, the electromagnetically actuated motor system aims to extend battery life and reduce the environmental footprint of battery production and disposal. Furthermore, the system requires less energy to travel the same distance, thus requiring fewer batteries, resulting in a lighter vehicle and shorter charging times. This further reduces environmental impact and enhances the system's practicality. This innovative approach aims to combine the advantages of both traditional and modern drive technologies, eliminate their respective drawbacks, and offer significant potential for advancements in automotive technology and sustainability. Drawings

[0042] 1- Engine block: This is the central structure of the engine, housing the air intakes and exhausts, the camshaft, and the valves. While the upper part of the engine block controls the airflow and valve operation, the lower part contains the main lubrication channels and the oil pan, which ensure the smooth operation of the moving parts, especially around the crankshaft and connecting rods.

[0043] 2- Camshaft: This component is responsible for opening and closing the valves in synchronization with the operation of the engine, thus enabling precise control of air intake and exhaust.

[0044] 3-wheel system: This mechanism transfers the rotational force generated by the crankshaft to the camshaft and ensures that the camshaft works synchronously with the pistons.

[0045] 4. Air intake and exhaust: These pathways allow air to enter and exit the cylinders, which is crucial for the engine's operation. The airflow is controlled by the camshaft and valves to optimize engine performance.

[0046] 5- Valves: These are critical components that control the airflow into and out of the cylinders, ensuring that the correct amount of air enters for each cycle and that exhaust gases are properly expelled.

[0047] 6- Electromagnets: These are the core components of the engine operation and provide the electromagnetic impulses necessary to drive the pistons in the cylinders.

[0048] 7-cylinder block: The structure in which the pistons move up and down, driven by the electromagnetic forces generated by the electromagnets.

[0049] 8- Cables: These cables transmit the electrical energy necessary for the operation of the electromagnets and ensure that they can generate the required impulses to move the pistons.

[0050] 9- Batteries: These components store the electrical energy used to power the electromagnets and other electrical systems in the motor.

[0051] 10- Pistons with supermagnets: These pistons are equipped with supermagnets that interact with the electromagnets to convert electromagnetic energy into mechanical motion.

[0052] 11- Crankshaft: This component converts the linear motion of the pistons into a rotational motion that can be used to drive the vehicle's wheels or other mechanical systems.

[0053] 12- Flywheel: This part helps maintain the engine's flywheel by storing rotational energy, smoothing the engine's operation, and ensuring consistent power output.

[0054] 13- Control unit: This component manages the electromagnetic pulses, including their timing, duration, and intensity. It ensures that the motor operates efficiently under varying conditions by dynamically adjusting the power of the electromagnets.

[0055] 14- Cable between batteries and control unit: This cable transmits electrical energy from the batteries to the control unit, so that it can control the distribution of energy to the electromagnets and other systems.

[0056] 15- Supermagnet: Positioned on the piston, the supermagnet interacts with the electromagnet to generate the force needed to move the piston within the cylinder. This interaction is crucial for converting electromagnetic energy into mechanical motion.

[0057] 16 copper wires: Wrapped around the cylinder or placed near the electromagnets, these copper wires generate electricity when they experience changes in the magnetic field. This can be caused by the movement of the supermagnets or by electromagnetic pulses. This induced electric current is used to improve the overall energy efficiency of the system. Fig. 1: Front view of the electromagnetically actuated motor system

[0058] This drawing shows the front view of the electromagnetically actuated motor system. The illustration provides an overview of the main components and their arrangement within the motor. The numbers correspond to the various parts of the motor, some of which are shown multiple times to indicate their presence at several locations within the system. A detailed description of each numbered component follows:

[0059] The engine block (1) houses important components such as the air intakes and exhausts, the camshaft, and the valves, which are responsible for controlling the air supply and exhaust gases. Lubrication of the moving parts is managed by a separate oil system within the engine. The camshaft (2) is operationally connected to the valves (5) and is driven by the gear system (3), which transmits the rotational force from the crankshaft (11) to ensure synchronized operation.

[0060] The air intake and exhaust processes are controlled by the components labeled (4), which direct the airflow into the cylinders and expel it after use. This air is then further used by the turbo compounding system (not shown in this figure) to generate additional energy.

[0061] The motor's electromagnets (6) are crucial for its operation, as they generate the electromagnetic pulses required to drive the pistons (10), which are equipped with supermagnets. These pistons move linearly within the cylinder block (7), converting electromagnetic energy into mechanical energy. The cables (8) supply the necessary electrical energy to the electromagnets, which is supplied by the batteries (9) that store the energy required to operate the motor.

[0062] The crankshaft (11) plays a crucial role in converting the linear motion of the pistons into a rotational motion, which is then used to propel the vehicle or operate other mechanical systems. This rotational motion is further stabilized by the flywheel (12), which stores rotational energy to ensure smooth and constant engine performance. Fig. 2: Top view of the electromagnetically actuated motor system

[0063] This diagram shows a top view of the electromagnetically actuated motor system and highlights the arrangement and interconnection of its components. The numbers correspond to different parts of the motor, some of which appear multiple times to indicate their presence at various points in the system. A detailed description of each numbered component follows:

[0064] The engine block (1) forms the central structure of the system and houses essential components such as the air intakes and exhausts, the camshaft, and the valves (although these are not visible in this view). These components are crucial for controlling the air intake and exhaust flow. Proper lubrication of the moving parts is ensured by the engine's dedicated oil system. The air intake and exhaust processes are facilitated by the passages labeled (4), which direct the airflow into the cylinders and expel it after processing. The expelled air is then used by the turbo-compounding system (not shown in this figure) to generate additional energy, contributing to the overall efficiency of the engine.The electromagnets (6) are an integral part of the motor's function and generate the electromagnetic pulses necessary to drive the pistons (not visible in this view). Equipped with supermagnets, the pistons move linearly within the cylinder block (7), efficiently converting electromagnetic energy into mechanical energy. The energy required to operate the electromagnets is transmitted via cables (8) from the batteries (9), which store the energy for motor operation.

[0065] Additionally, the control unit (13) manages the electromagnetic pulses, including their timing, duration, and intensity, to ensure efficient motor operation under varying conditions. Electrical energy is transmitted from the batteries to the control unit via cables (14), enabling precise control and distribution of energy to the electromagnets and other systems. This top view illustrates the integration and functionality of the various components within the electromagnetically actuated motor system and highlights how the system design ensures efficient energy use and reliable performance in vehicle applications. Fig. 3: Side view of the electromagnetically actuated motor system

[0066] This illustration shows a side view of the electromagnetically actuated motor system and provides a detailed view of the vertical alignment and connection of the various components. This view offers an additional perspective on how the components are arranged relative to each other and complements the information presented in the front and top views.

[0067] The engine block (1) forms the heart of the system and houses essential components such as the air intakes and exhausts, the camshaft, and the valves. These elements are crucial for controlling the air supply and exhaust gas flow to the cylinders where the pistons operate. Proper lubrication of the pistons and other moving parts within the cylinders is ensured by the engine's dedicated oil system. The camshaft (2) is responsible for opening and closing the valves (5), which regulate the airflow into and out of the cylinders. The camshaft is driven by the gear system (3), which transmits the rotational force from the crankshaft (11), thus ensuring synchronized operation throughout the engine. The air intake and exhaust processes are controlled by the components designated (4), which direct the airflow into the cylinders and expel it after processing.This process is an integral part of the engine's function and ensures efficient air management to maximize performance. The electromagnets (6) play a central role in the engine's operation, as they generate the electromagnetic pulses necessary to move the pistons (10). These pistons, equipped with supermagnets, convert electromagnetic energy into mechanical motion by moving linearly within the cylinder block (7). The cables (8) supply the necessary electrical energy to the electromagnets, which is derived from the batteries (9) that store the energy required to operate the engine.

[0068] The crankshaft (11) is a critical component that converts the linear motion of the pistons into a rotational motion, which is essential for powering the vehicle or other mechanical systems. This rotational motion is further stabilized by the flywheel (12), which helps to maintain smooth and consistent engine performance by storing rotational energy.

[0069] The control unit (13) is responsible for managing the electromagnetic pulses, including their timing, duration, and intensity. It ensures that the motor operates efficiently under varying conditions by dynamically adjusting the power of the electromagnets. The control unit receives its energy via the cable (14), which connects it to the batteries and enables precise control of the motor's energy distribution. Fig. 4: Perspective view of the electromagnetically actuated motor system

[0070] Fig. Figure 4 provides a perspective view of the electromagnetically actuated motor system and highlights the essential components crucial for the system's operation. This view was specifically designed to facilitate a better understanding of the arrangement and interaction of key parts, such as the electromagnets and pistons, while other components, such as the engine block and camshaft, were omitted for clarity.

[0071] The wheel system (3) is visible and responsible for transmitting the rotational force within the engine. This component plays a crucial role in connecting the mechanical movements generated by the pistons with the other mechanical systems of the engine. The electromagnets (6), which are central to the engine's operation, are clearly shown in this view. These electromagnets generate the electromagnetic pulses necessary to move the pistons (10). Equipped with supermagnets, the pistons convert these electromagnetic pulses into linear motion, which is then converted into rotational motion by the crankshaft. The cylinder block (7) houses the pistons and guides their movement as they are driven by the electromagnetic forces. This component ensures that the pistons move smoothly and efficiently, contributing to the overall performance of the engine.The cables (8) are visible and run between various components, including the batteries (9) and the electromagnets (6). These cables are essential for the transmission of electrical energy throughout the system and ensure that each component receives the energy it needs to function.

[0072] The batteries (9) are clearly positioned because they store the electrical energy needed to power the electromagnets and other electrical systems in the engine. This energy is managed and distributed by the control unit (13), which is also visible in this view. The pistons with supermagnets (10) are the focus of this view because they interact directly with the electromagnets to convert electromagnetic energy into mechanical motion. The crankshaft (11) converts this linear motion into rotational motion, which is crucial for propelling the vehicle. The flywheel (12) is connected to the crankshaft and helps stabilize the engine's rotational motion to ensure smooth and consistent operation. The control unit (13) manages the electromagnetic pulses and optimizes the engine's efficiency under varying operating conditions.Finally, the cable (14) connecting the batteries to the control unit is visible, illustrating the flow of electrical energy in the system and highlighting the importance of precise energy management for the operation of the motor.

[0073] This perspective view effectively showcases the key components that drive the electromagnetically actuated motor system and provides a detailed understanding of how these parts work together to create an efficient and powerful motor solution. By focusing on the electromagnets, pistons, and related components, this view highlights the innovative aspects of the motor's design and operation. Fig. 5: Illustration of the supermagnet cylinder power generation system

[0074] Fig. Figure 5 provides a detailed view of the supermagnet cylinder energy generation system, an innovative method that utilizes the movement of supermagnets within the piston cylinder to generate electricity. This figure illustrates how the interaction between the supermagnets and the surrounding copper wires creates an arrangement similar to an electromagnetic induction system, thus effectively converting kinetic energy into electrical energy.

[0075] The cylinder block (7) serves as the basic structure in which the pistons are housed and move. This component is crucial for guiding the pistons during their up-and-down movement in the engine's operation. The pistons (10) are equipped with supermagnets that perform a dual function: On the one hand, they interact with the electromagnets to generate the necessary force to move the pistons; on the other hand, the up-and-down movement of the supermagnets within the cylinder induces an electric current in the surrounding copper wires. The crankshaft (11) converts the linear motion of the pistons into a rotational motion, which is essential for propelling the vehicle or operating other mechanical systems. This component plays a central role in the overall energy conversion process.The flywheel (12), which is connected to the crankshaft, stabilizes the rotational movement of the engine by storing rotational energy and thus ensuring smooth and consistent engine operation.

[0076] The supermagnet (15), positioned on the piston, interacts with the electromagnets to drive the piston. As the piston moves within the cylinder, the supermagnet contributes to power generation by creating a changing magnetic field that induces an electric current in the surrounding copper wires. The copper wires (16) are strategically placed within the cylinder, typically wound around the lower portion or the center of the cylinder. As the supermagnet moves through the cylinder, the changing magnetic field induces an electric current in these wires. This current is used to increase the overall energy efficiency of the system by converting the kinetic energy of the piston's movement into electrical energy. Explanation:

[0077] In this innovative system, the movement of the pistons within the cylinder not only contributes to the mechanical operation of the engine but also generates electricity. The supermagnet attached to the piston creates a fluctuating magnetic field as it moves through the cylinder. This field interacts with the copper wires wound around the cylinder and induces an electric current through electromagnetic induction. This dual-use design increases the engine's efficiency by generating additional electrical energy that can be stored or used to power other systems in the vehicle. This perspective of Fig. Figure 5 effectively illustrates how the supermagnet cylinder power generation system is integrated into the overall design of the engine and demonstrates its potential to significantly improve energy efficiency by utilizing the movement of the pistons to generate electricity. Fig. 6: Illustration of the dual-pole electromagnetic energy recovery system

[0078] Fig. Figure 6 provides a detailed view of the dual-pole electromagnetic energy recovery system, an innovative method for increasing energy efficiency that utilizes both poles of an electromagnet. This figure shows how the system is configured to simultaneously drive the piston movement and generate electricity, thereby maximizing the usability of the electromagnetic pulses without affecting the primary function of piston actuation.

[0079] The electromagnets (6) are central components for the operation of the system. When electric current is applied to the electromagnets, they generate two magnetic poles—one of which is used to move the pistons (10) within the cylinder block (7). The other pole, which would otherwise remain unused, is used for energy recovery. The cylinder block (7) provides the structure within which the pistons move. It is designed to guide the linear motion of the pistons as they are driven by the electromagnetic pulses generated by the electromagnets.

[0080] The necessary electrical energy is transferred via cables (8) from the energy storage system to the electromagnets, providing them with the required current to generate the magnetic impulses for piston movement. The pistons themselves are equipped with supermagnets (10) that interact with the magnetic field generated by the electromagnets. This interaction drives the pistons up and down within the cylinder block, converting the electromagnetic energy into mechanical motion.

[0081] The crankshaft (11) converts the linear motion of the pistons into a rotational motion, which is crucial for powering the vehicle or other mechanical systems. This component is essential for converting the energy generated by the pistons into usable power. The flywheel (12) is connected to the crankshaft and helps to stabilize the engine's rotational motion. It stores rotational energy, thus ensuring smooth and constant engine performance, even under load fluctuations.

[0082] Positioned on the piston, the supermagnet (15) interacts with the electromagnetic pulses to drive the piston movement. As the piston moves, the supermagnet amplifies the interaction with the electromagnet, ensuring efficient energy transfer and piston actuation. Strategically placed around the unused pole of the electromagnet, the copper wires (16) induce a current in the magnetic field of the other pole each time an electromagnetic pulse is generated. This arrangement allows the system to capture this otherwise wasted energy and convert it into electrical energy, which can then be stored or used, thus improving overall energy efficiency. Explanation:

[0083] The dual-pole electromagnet energy recovery system represents a novel approach to increasing energy efficiency in electromagnetically actuated motors. By utilizing both poles of the electromagnet, the system can simultaneously move the pistons and generate electricity. The primary pole of the electromagnet is responsible for generating the necessary impulses to move the pistons, while the secondary pole, which would normally remain unused, is used to induce a current in the surrounding copper wires. This induced current is then captured and stored, thus converting energy that would otherwise be wasted into usable electrical energy.

[0084] This configuration allows the engine to operate more efficiently by not only moving the pistons but also recovering and reusing energy, thereby reducing overall energy consumption and improving the sustainability of the system. Fig. Figure 6 effectively illustrates this innovative energy recovery process and shows how the electromagnets, pistons and copper wires are arranged in the system and interact with each other. Description, Introduction and Purpose

[0085] The electromagnetically actuated motor system is an innovative drive mechanism designed to replace traditional internal combustion engines (ICEs) with a cleaner, more efficient, and environmentally friendly alternative. This motor uses electromagnetic pulses to drive pistons and convert electrical energy into mechanical energy without combustion. The system aims to achieve high energy efficiency, zero emissions, and versatile application in various industries such as automotive, industrial machinery, and power generation. System Overview 1. Energy Source and Supply:

[0086] Energy source: The system is powered by one or more energy storage devices such as lithium-ion batteries, supercapacitors, or alternative energy storage technologies. These energy sources supply the necessary electrical power to the electromagnets.

[0087] Energy supply: The electrical energy from the storage devices is managed via a sophisticated control unit and supplied to the electromagnets, with the control regulating the timing, duration and intensity of the electromagnetic pulses. 2. Electromagnets and pulse generation:

[0088] Electromagnets: High-performance electromagnets are used to generate strong magnetic fields. These electromagnets are equipped with core materials such as soft iron or ferrite to optimize magnetic permeability and minimize energy loss.

[0089] Pulse generation: The control unit precisely manages the electromagnetic pulses and ensures that they are delivered at the correct intervals and with the required intensity to effectively drive the pistons. 3. Pistons and magnetic integration:

[0090] Magnetic pistons: The pistons are integrated with high-performance magnets, such as neodymium, samarium-cobalt, or similar materials, which interact with the electromagnetic pulses to generate linear motion.

[0091] Piston dynamics: The dynamics of the pistons, including their mass, magnet strength and geometric configuration, are customizable to optimize performance for specific applications. 4. Non-magnetic cylinders:

[0092] Cylinder construction: The cylinders are made of non-magnetic materials such as aluminum, stainless steel, composite materials, or other suitable materials. These materials prevent magnetic interference and ensure the efficiency of the electromagnetic pulses.

[0093] Piston movement: The pistons move linearly within these non-magnetic cylinders, converting electromagnetic energy into mechanical energy. 5. Camshaft and valve control:

[0094] Camshaft integration: The engine system includes a camshaft, which is crucial for controlling the air intake and exhaust processes. The camshaft is precisely tuned to open and close the valves at the correct times to ensure efficient air and exhaust flow.

[0095] Lubrication: Although the camshaft is not directly responsible for lubrication, it is one of the critical components that must be properly lubricated to ensure smooth operation. The engine's dedicated oil system ensures that the camshaft and other moving parts are adequately lubricated, reducing friction and wear and improving the overall efficiency and lifespan of the engine. 6. Crankshaft and mechanical conversion:

[0096] Crankshaft integration: The linear motion of the pistons is converted into a rotational motion by a crankshaft. This crankshaft is designed to efficiently transfer the mechanical energy to a mechanical output shaft.

[0097] Mechanical output: The rotational motion generated by the crankshaft can be used to drive the wheels of a vehicle or to power other mechanical systems. 7. Cooling system:

[0098] Cooling mechanism: The motor system integrates cooling technologies such as air cooling, liquid cooling, or other suitable methods. The cooling system is essential to dissipate the heat generated by the electromagnets and other components, thus maintaining optimal operating temperatures.

[0099] Application of cooling: Cooling is mainly applied to the electromagnets and areas where significant heat is generated during operation to prevent overheating and ensure reliable performance. Advantages over traditional technologies: 1. Zero emissions:

[0100] Emission-free operation: Unlike combustion engines, this system is not based on the combustion of fuel, thus eliminating the emission of CO2, NOx and other pollutants.

[0101] Environmental impact: The absence of exhaust fumes significantly reduces environmental impact and contributes to cleaner air and lower greenhouse gas emissions. 2. Energy efficiency:

[0102] High efficiency: The precise control of the electromagnetic pulses ensures an efficient conversion of electrical energy into mechanical energy and reduces the typical energy losses that occur during combustion.

[0103] Regenerative techniques: The system integrates various energy recovery methods such as regenerative braking, turbo compounding and the integrated generator mode to recover and reuse energy, further increasing efficiency. 3. Versatile energy sources:

[0104] Battery technology: The system uses advanced lithium-ion batteries or other suitable energy storage technologies. These batteries offer high energy density, long lifespan, and fast recharging capability.

[0105] Alternative sources: Supercapacitors and other energy storage devices can be integrated to meet specific power and efficiency requirements. 4. Material selection:

[0106] Magnetic materials: High-performance magnetic materials such as neodymium and samarium-cobalt are selected for their superior magnetic properties to ensure effective piston movement.

[0107] Non-magnetic materials: Aluminum, stainless steel and composite materials are used for cylinders and other components to prevent magnetic interference and improve efficiency.

[0108] Flexibility: Although certain materials are recommended, the system is designed to be adaptable to other suitable materials to ensure broad applicability and patent protection. 5. Safety and reliability:

[0109] Safety mechanisms: The system includes safety features such as temperature sensors, current limiters and automatic shutdown mechanisms to prevent overheating, overcurrent conditions and to ensure safe operation.

[0110] Real-time monitoring: The control unit continuously monitors operating parameters and adjusts the electromagnetic pulses in real time to optimize performance and prevent failures. 6. Modular design:

[0111] Easy maintenance: The modular design allows for quick and easy replacement, maintenance, and upgrades of components such as solenoid valves, pistons, and control units. This design ensures that the system remains efficient and cost-effective throughout its entire life cycle.

[0112] Scalability: The system can be scaled and configured to meet the requirements of various applications, from small machines to large automotive engines. Its flexibility allows the system to be adapted to different power and performance requirements. Adaptability to internal combustion engines: Unlike electric motors, which often require entirely new manufacturing processes and factory facilities, this system is inherently similar to traditional internal combustion engines (ICEs). This similarity allows for easy adaptation to existing ICE engines without the need for completely new design techniques or extensive factory retooling. This enables companies to convert their vehicles to this advanced system without incurring the high costs of building new facilities or developing new manufacturing processes. 7. Magnetic shielding and barriers:

[0113] Protection against magnetic interference: The motor system integrates strategically placed barriers and shielding materials to prevent magnetic interference between critical components. These barriers are designed to isolate and protect sensitive parts, such as control units and sensors, from the magnetic fields generated by the electromagnets and magnetic pistons. By effectively containing and directing the magnetic fields, these shields ensure that each component operates without interference, thus maintaining the system's precision and efficiency. This careful management of the magnetic fields is crucial for the system's reliable performance and longevity. Versatile design and adaptability

[0114] One of the key strengths of the electromagnetically actuated motor system is its versatile design, which allows for significant customization to the specific needs and preferences of the user. This adaptability makes the system suitable for a wide range of applications, from high-performance vehicles to energy-efficient models aimed at reducing costs and environmental impact. Customization options

[0115] The system's design allows for the addition, modification, or removal of various components to optimize the engine's performance, comfort, and energy efficiency. For example: Air intake and exhaust process: If desired, the air intake and exhaust process can be completely omitted, eliminating the need for components such as valves, camshafts, and exhaust manifolds. This modification simplifies the engine design, reduces manufacturing costs, and lowers the overall vehicle weight. However, a primary reason for retaining this process is to appeal to enthusiasts who appreciate the traditional sounds of a V6 or V8 engine. By maintaining a zero-emission exhaust system, the engine can still produce these classic engine sounds, offering a unique combination of all-electric power and the acoustic experience of a traditional internal combustion engine. This feature can appeal to a target audience that values ​​the emotional connection and nostalgia of engine sounds while simultaneously benefiting from the environmental advantages of an all-electric system.

[0116] Turbo Compound System: In scenarios where maximum energy efficiency is not a primary concern, the turbo compound system can be omitted. This further reduces vehicle weight and complexity, making it more cost-effective and easier to maintain. Fuel-Related Components: Unlike conventional internal combustion engines (ICEs), this system does not require a fuel tank, injectors, or other components associated with storing and delivering gasoline. Furthermore, since the engine produces no harmful emissions, exhaust filtration systems such as catalytic converters or particulate filters are unnecessary. The air expelled from the engine is as clean as ambient air, further reducing environmental impact. Removing these components not only makes the vehicle lighter and more aerodynamic but also significantly reduces long-term maintenance costs and contributes to a cleaner environment. Adaptability to different needs

[0117] The electromagnetically actuated motor system can be adapted to various purposes, such as: • Performance: For those seeking high performance, the system can be configured with additional energy recovery features, advanced cooling systems, and optimized pulse management to achieve higher rotational speeds (RPM) and greater power output. • Comfort: In applications where comfort and smooth operation are paramount, the system can be tuned to provide a quieter and more pleasant driving experience. The elimination of combustion-related vibrations and noise contributes to a more comfortable ride. • Energy saving: For users who value maximum energy efficiency and minimal environmental impact, the system can be configured to operate in the most energy-efficient mode, utilizing all available energy recovery techniques and minimizing unnecessary components to reduce weight and energy consumption. Conclusion

[0118] The versatility of this project allows it to be tailored to a wide range of applications and user preferences. Whether the goal is high performance, maximum comfort, or energy savings, the electromagnetically actuated motor system can be adapted to these needs while simultaneously reducing costs and environmental impact. Furthermore, the system offers the possibility of retaining the traditional sounds of V6 and V8 engines through a zero-emission exhaust system, appealing to enthusiasts who value the acoustic driving experience and thus providing a well-rounded and engaging alternative to conventional combustion engines. Detailed operating steps

[0119] 1. Energy storage and supply: Electrical energy is stored in lithium-ion batteries or supercapacitors. - The control unit manages the distribution of electrical energy to the electromagnets. - In addition, supercapacitors are integrated in parallel with the batteries to provide sudden and powerful bursts of energy, enabling the system to reach high and sudden speeds when needed.

[0120] 2. Generation of electromagnetic pulses: - The control unit generates precise electromagnetic pulses that activate the electromagnets. - The pulses are timed in such a way that they generate alternating magnetic fields that interact with the magnets integrated into the pistons.

[0121] 3. Piston movement: - The magnetic interaction drives the pistons linearly in the non-magnetic cylinders. - The linear motion is efficiently converted into a rotational motion by the crankshaft.

[0122] 4. Air intake and exhaust control: -The camshaft controls the opening and closing of the intake and exhaust valves. This ensures that air is efficiently drawn into the cylinders and expelled after the process is complete, similar to an internal combustion engine, but without combustion. Instead of generating harmful gases, the system simply moves air, which is then directed into the turbo system. The air exiting the cylinders at high pressure is used to generate electricity through turbo compounding, further increasing the system's efficiency. 5. Lubrication system for the electromagnetically operated motor

[0123] The lubrication system in the electromagnetically actuated motor is designed to ensure the smooth and efficient operation of all moving parts, similar to conventional combustion engines, but with adaptations to the specific requirements of this system. Because the motor operates without the typical explosions of a combustion engine, less dirt and contamination are generated, resulting in cleaner oil and reduced maintenance.

[0124] Key components and functionality: Sump: The lubrication process begins in the oil pan, located at the bottom of the engine. The oil pan serves as a reservoir for the engine oil, which is the primary lubricant for all moving components. The oil pan also has a drain plug to facilitate oil changes during maintenance. Oil pump: The oil pump is a critical component that draws oil from the oil pan and pressurizes it before distributing it throughout the engine. Located near the bottom of the engine block, the oil pump ensures that all moving parts are continuously supplied with oil, even under high operating pressures or speeds. Oil filter: Before the oil reaches the moving parts of the engine, it passes through an oil filter. In this system, the oil filter is particularly effective due to the reduced contamination resulting from the absence of combustion. Since no explosions produce soot, carbon deposits, or other contaminants, the oil remains cleaner for longer periods. The filter still plays a vital role in removing particles or contaminants that might enter the system, but it is under significantly less strain, leading to extended oil life and reduced maintenance. Oil channels: The pressurized oil is distributed through a network of oil channels (internal lines) within the engine block. These channels direct the oil to all critical areas, ensuring comprehensive lubrication throughout the entire engine. Crankshaft and bearings: One of the main recipients of the lubricating oil is the crankshaft and its associated bearings. The oil is guided through small channels in the crankshaft and lubricates the main and connecting rod bearings. This reduces friction and allows the crankshaft to rotate smoothly, converting the linear motion of the pistons into a rotary motion. Piston and cylinder walls: The oil also lubricates the pistons and cylinder walls. A thin film of oil forms between the piston rings and the cylinder walls, reducing friction and wear during the piston's up-and-down movement. This lubrication is crucial for maintaining the efficiency and integrity of the piston movement. Camshaft and valve train: The camshaft, which controls the timing of the valves, is also lubricated. Oil is directed to the camshaft bearings and cam lobes to ensure smooth operation as the camshaft opens and closes the intake and exhaust valves. Valve train components: Oil is supplied to the valve train components, including the valves, rocker arms, and tappets. This ensures that these highly stressed components are adequately lubricated to prevent wear and guarantee reliable operation over time. Oil recirculation: After the engine components have been lubricated, the oil flows back into the oil pan by gravity. Small channels and drain holes in the cylinder heads and engine block facilitate the efficient return of the oil to the oil pan, where it is ready for recirculation. Cooling effect: Besides its lubricating function, oil also helps cool the engine. As it circulates, the oil absorbs heat from the engine components and transports it back to the oil pan, where it can be dissipated. This cooling effect is crucial for maintaining the engine's optimal operating temperatures. Summary:

[0125] The lubrication system in the electromagnetically actuated motor follows the proven principles of traditional engine design, adapted to the requirements of this innovative technology. Without the explosions characteristic of internal combustion engines, the system generates significantly less dirt and contaminants, resulting in cleaner oil and reduced maintenance. The oil filter benefits from this cleaner environment, leading to extended oil life and fewer filter changes. By continuously lubricating all moving parts, the system reduces friction, prevents wear, and contributes to cooling, improving both engine performance and longevity. 6. Mechanical energy conversion: - The crankshaft transmits the rotational motion to the mechanical output shaft. - The rotational energy drives the vehicle's wheels or other mechanical systems. 7. Cooling and safety management: - The cooling system dissipates the heat generated during operation and maintains optimal temperatures. - Safety mechanisms monitor and control temperature, current and other operating parameters to ensure safe and reliable operation. 8. Energy recovery techniques:

[0126] Regenerative braking: Captures kinetic energy during braking, converts it into electrical energy and stores it in the batteries.

[0127] Turbo-compounding: This process utilizes the kinetic energy of high-pressure air, similar to exhaust gases in conventional engines, to convert it into electrical or mechanical energy. It captures the energy of the air expelled after passing through the cylinders, increasing the overall efficiency of the system.

[0128] Integrated generator mode: Allows the electromagnet to capture kinetic energy from the piston movement during certain operating phases.

[0129] Energy recovery through dual-pole electromagnets: Uses one pole to generate pulses for piston movement and the other pole to induce a current in a coil and generate electrical energy.

[0130] Energy generation through supermagnet cylinders: A supermagnet integrated into the pistons induces an electromotive force in a copper coil wound around the cylinder and generates electrical energy during the piston movement. conclusion

[0131] The electromagnetically driven motor system represents a significant advancement over conventional combustion engines, offering a cleaner, more efficient, and more versatile alternative. Utilizing advanced electromagnetic technology, high-strength materials, and sophisticated control systems, this motor delivers high performance without emissions. The integration of a camshaft to control air intake and exhaust, combined with an efficient lubrication system that ensures smooth operation of moving parts, and innovative energy recovery techniques further enhance the system's efficiency and reliability. Moreover, the system's adaptability to various materials and applications ensures broad applicability and robust patent protection.With its innovative energy recovery methods and real-time monitoring functions, the system maximizes energy efficiency and represents a superior solution for modern drive requirements. Optimized magnetic field control for efficient piston movement

[0132] In electromagnetically actuated motor systems, precise energy management is crucial to ensure efficient piston operation while minimizing energy losses. A key aspect of this is maintaining a minimal magnetic field in the iron core of the electromagnet during the piston's downward stroke. background

[0133] When a pulse is applied to the electromagnet, it generates a magnetic field that interacts with the supermagnet attached to the piston, producing the necessary force to push the piston downwards within the cylinder. If this magnetic field were to collapse completely after the pulse ends, the residual magnetic field of the supermagnet could attract the iron core and potentially impede the piston's movement. Solution

[0134] To prevent this attraction and ensure smooth piston operation, a minimum energy level is maintained in the iron core so that it retains the same magnetic pole as the supermagnet (e.g., if the supermagnet is a north pole, then the iron core is also a north pole) during the short downward stroke of each pulse cycle. This ensures that the iron core repels the magnetic field of the supermagnet, allowing the piston to move freely downwards.

[0135] Once the piston reaches the bottom of its stroke, this small amount of energy is switched off, causing the iron core to lose its magnetic properties. Since the iron core is now unmagnetized, the supermagnet in the piston can attract the unmagnetized iron core and assist the piston's natural upward stroke without any additional impulse.

[0136] This strategic control of the magnetic field is designed so efficiently that the energy consumption required to maintain the field has a negligible impact on the system's overall energy consumption. The cost of maintaining this magnetic field is less than 0.001% of the total costs, demonstrating that it has no significant impact on the system's efficiency or energy economy.

[0137] In conclusion, by maintaining a weak magnetic field during the piston's downward stroke and switching off this energy when the piston reaches its lowest point, the electromagnetically actuated motor system ensures optimal piston movement while incurring virtually no additional energy costs. This innovative approach improves the overall efficiency of the engine, making it a superior and cost-effective alternative to conventional internal combustion engines. Energy recovery systems

[0138] The electromagnetically actuated motor system integrates several innovative energy recovery technologies to maximize efficiency and performance. The main methods employed are listed below: 1. Enhanced regenerative braking system

[0139] The electromagnetically actuated motor system incorporates an innovative approach to regenerative braking, aiming to maximize energy efficiency by capturing and converting kinetic energy during braking. This system utilizes a dedicated small electric motor or generator specifically designed for energy recovery during deceleration. System overview: Special electric motor / generator:

[0140] In this system, a small electric motor or generator is integrated into the vehicle's drivetrain, primarily used during braking. This component acts as a generator when the vehicle decelerates, converting the vehicle's kinetic energy into electrical energy.

[0141] The generated electrical energy is then stored in the vehicle's existing batteries, which are already intended to supply the electromagnetically operated motor. Regenerative braking process:

[0142] When the driver applies the brakes, the kinetic energy of the moving vehicle is transferred to the special generator.

[0143] The generator converts this kinetic energy into electrical energy, which is then fed into the energy storage system (batteries or supercapacitors).

[0144] This process effectively recycles energy that would otherwise be lost as heat in conventional braking systems, contributing to overall energy efficiency and extending the vehicle's range. Control and integration:

[0145] The system is managed by the vehicle's electronic control unit (ECU), which optimizes the operation of the generator to ensure maximum energy recovery while maintaining consistent braking performance.

[0146] The integration of this regenerative braking system does not impair the main function of the electromagnetically actuated motor, but works in parallel to increase the overall energy efficiency of the vehicle. Advantages of using a generator over an electric motor:

[0147] Focused design: A generator specifically designed for energy recovery could be more efficient for this purpose than a small electric motor. Since the generator's sole function is to convert kinetic energy into electrical energy during braking, it can be optimized for this task.

[0148] Reduced complexity: By using a generator, the system is simplified because the kinetic energy is directly converted into electrical energy without the need for additional motor functions.

[0149] Cost and weight efficiency: A dedicated generator could be more cost-effective and lighter than a small electric motor, reducing the overall weight of the vehicle and manufacturing costs, while also offering significant benefits in energy recovery. Conclusion:

[0150] By integrating a dedicated generator or a small electric motor solely for regenerative braking, the electromagnetically actuated motor system significantly increases its energy efficiency. This system captures and stores energy that would otherwise be wasted, reduces the vehicle's reliance on external charging sources, and extends its operating range. The flexibility to choose between a generator and an electric motor for this function allows for optimization according to the specific requirements of the vehicle, whether prioritizing cost, weight, or energy recovery efficiency. 2. Turbo Compounding System

[0151] The air flowing through the pistons is directed into a turbo-compounding system. This system utilizes the kinetic energy of the high-pressure air, similar to exhaust gases in conventional engines, to generate additional electrical or mechanical energy. The recovered energy is either fed back into the battery or used to assist the vehicle's propulsion, thereby increasing overall efficiency. 3. Integrated Generator Mode

[0152] During certain operating phases, the electromagnets can switch to a generator mode, capturing kinetic energy from the moving pistons and converting it into electrical energy. This mode is particularly useful during deceleration or when excess energy is available, further enhancing the system's energy recovery capacity. This mode works in conjunction with the feedback-controlled engine braking energy recovery system, where the continuous movement of the pistons during wheel rotation enables sustained energy generation, even when the engine is not actively propelling the vehicle. 4. Advanced Energy Management System

[0153] The system is equipped with an advanced energy management system that optimizes the capture and use of regenerated energy. This includes real-time monitoring and control of energy flows between the battery, supercapacitors, and other components to ensure maximum efficiency and performance. New energy recovery innovations: 5. Energy generation through supermagnet cylinders (Fig. 5)

[0154] This innovative method uses the movement of a supermagnet inside the piston cylinder to generate electricity: - As the pistons move up and down, the supermagnet moves inside the cylinder. - The cylinder is wrapped with copper wire, creating an arrangement similar to an electromagnetic induction system. - Every movement of the supermagnet induces an electric current in the copper wire and converts kinetic energy into electrical energy. This design is similar to free-piston energy generation systems, but has been specifically adapted for use in electromagnetically actuated motor systems to enable efficient energy recovery during piston movement. This energy-generating system is the subject of a new patent by the same inventor and is also suitable for use in other piston-operated motor types, offering a versatile solution for increasing energy efficiency across various engine technologies. 6. Energy recovery through dual-pole electromagnets (Fig. 6)

[0155] This novel technique utilizes both poles of the electromagnet to improve energy recovery: - When electric current is applied to the electromagnet, it creates two magnetic poles. - One pole is used to generate the necessary impulse that drives the pistons. - The other pole is used to generate electricity by attaching a coil over it. - When using the dual-pole electromagnet system, approximately 5% of the energy can be lost due to the movement of the magnetic field and other inefficiencies. However, this system can recover or generate almost ten times the lost energy by using the secondary pole to induce an electric current. This significant net energy gain increases the overall efficiency and sustainability of the motor system. 7. Feedback-controlled engine braking energy recovery system

[0156] The feedback-controlled engine braking system minimizes engine braking by feeding kinetic energy from the wheels back into the engine, even when the vehicle is not actively accelerating: - When the wheels turn, kinetic energy is fed back into the engine, which moves the pistons up and down, thereby generating electricity. -The system includes an active lubrication system that continuously supplies oil to the camshaft, crankshaft and other moving components to ensure they remain properly lubricated throughout engine operation. Variable valve timing is used to optimize valve openings, reduce internal resistance, and improve energy recovery. - The motor works similarly to electric vehicles by remaining in the "on" state to enable continuous energy generation even when it is not powering the vehicle, maximizing energy recovery and improving overall efficiency. Summary

[0157] The electromagnetically actuated motor system utilizes multiple energy recovery techniques to enhance efficiency and performance, including regenerative braking, turbo compounding, an integrated generator mode, and advanced energy management systems. Furthermore, the system integrates innovative methods such as dual-pole electromagnet energy recovery, supermagnet cylinder energy generation, and a feedback-controlled motor brake energy recovery system to further improve energy recovery and minimize waste. The integration of these technologies creates a comprehensive approach to energy recovery, representing significant advancements over conventional systems and contributing to the overall sustainability and efficiency of the motor. Additional performance mode

[0158] If higher power is required, the dual-pole electromagnet energy recovery system and other energy recovery systems can be temporarily deactivated. By disabling these functions, the system utilizes the full magnetic field strength and other resources for piston movement, thereby generating the maximum possible force without any energy loss. This mode enables increased power and enhanced output when needed, ensuring operational flexibility while maintaining the option of energy recovery during normal operation.

Claims

[1] Electromagnetically actuated motor system Explanation: This claim describes the main components of the engine system, including electromagnets, pistons with integrated magnets, non-magnetic cylinders, and the crankshaft-camshaft assembly. The system converts electromagnetic pulses into mechanical energy to propel the vehicle. Advantages: The use of electromagnets enables precise control of piston movement, resulting in improved efficiency and reduced emissions. The non-magnetic materials in the cylinders prevent interference and increase the overall performance of the system. The integration of the crankshaft and camshaft allows for a smooth conversion from linear to rotary motion, mimicking the behavior of traditional engines but with improved control and efficiency. [2] Control of electromagnetic pulses Explanation: This claim refers to the control unit that manages the electromagnetic pulses, including timing, duration, and intensity. The control unit ensures that the motor operates efficiently under various conditions. Advantages: The control unit's real-time adaptability optimizes engine performance, reduces energy consumption, and maximizes efficiency. Through precise control of electromagnetic pulses, the system can adapt to varying driving conditions, ensuring optimal performance in all scenarios. [3] Energy source and energy recovery Explanation: This claim covers the energy sources that power the electromagnets, including batteries, supercapacitors, and other storage devices. These sources also store energy recovered from the vehicle's regenerative systems, such as braking and turbo-compounding. Advantages: By utilizing energy storage devices that can both power the motor and store regenerated energy, the system maximizes energy efficiency. The ability to utilize and reuse energy from multiple renewable energy systems reduces overall energy consumption and extends the vehicle's range. [4] Magnetic piston design Explanation: This claim describes the magnets integrated into the pistons, which are made of high-strength materials such as neodymium. These magnets drive the pistons in response to electromagnetic pulses, with adaptable configurations for specific performance requirements. Advantages: The high-strength magnets ensure powerful and efficient piston movement, increasing engine performance. Adaptable configurations allow the system to be tailored to various applications, from high-performance vehicles to energy-efficient designs. [5] Construction of non-magnetic cylinders Explanation: This claim specifies that the cylinders are made of non-magnetic materials such as aluminum, stainless steel or other suitable materials to prevent magnetic interference and optimize piston movement. Advantages: Non-magnetic cylinders ensure that the magnetic fields generated by the pistons are not disturbed, resulting in smoother and more efficient motor operation. The use of durable, lightweight materials also contributes to the overall performance and lifespan of the motor. [6] Power transfer of impulses to wheel rotation Explanation: This claim describes how the linear piston motion of the engine is converted into a rotational motion to drive the wheels, involving the crankshaft, camshaft and transmission system. Advantages: This system allows the motor to function similarly to traditional combustion engines, ensuring compatibility with existing vehicle designs while retaining the benefits of electromagnetic drive. The seamless conversion from linear to rotary motion enables efficient and smooth vehicle acceleration. [7] Cooling system Explanation: This claim describes the cooling system, which may be air-based, liquid-based or based on other suitable cooling materials or types, and which serves to dissipate the heat generated by the engine components, in particular the electromagnets and pistons. Advantages: Effective cooling is crucial for maintaining optimal engine performance and preventing overheating. This system ensures that the engine can operate at high efficiency without the risk of heat-related damage, thus extending the service life of the engine components. [8] Adaptable control unit Explanation: This requirement expands the control unit's ability to adapt to different operating parameters, receive input from sensors, and adjust the motor processes accordingly. Advantages: The control unit's adaptability ensures that the engine can dynamically respond to changes in driving conditions, such as varying loads or speeds. This flexibility improves overall performance, fuel efficiency, and the driving experience by optimizing engine operations in real time. [9] Modular design Explanation: This claim describes the modular nature of the engine system, which allows for easy maintenance, replacement and upgrades of components such as electromagnets, pistons and control units. Advantages: The modular design simplifies repairs and upgrades, reducing downtime and maintenance costs. This approach also allows for customization and scalability, making the engine suitable for a wide range of applications and future technological developments. [10] Versatile application Explanation: This claim highlights the adaptability of the motor system for various applications, including automotive engines, industrial machinery, and power generation systems. Advantages: The versatility of the motor system makes it suitable for use in multiple industries, expanding its potential market reach and usability. This adaptability ensures that the motor can be tailored to specific needs, whether for energy efficiency, high performance, or other specialized applications. [11] Dual operating mode Explanation: This claim describes the ability of the engine to operate in both energy-efficient and high-performance modes, enabling adjustments to energy recovery and output based on driving needs. Advantages: The dual operating mode offers flexibility in motor usage, allowing drivers to prioritize energy efficiency during normal driving and switch to high-performance mode when needed. This capability improves the practicality and control of the motor system. [12] Real-time monitoring Explanation: This claim addresses the real-time monitoring functions of the control unit, which adjusts engine parameters based on data from sensors that monitor conditions such as temperature and pressure. Advantages: Real-time monitoring ensures that the engine operates within optimal parameters at all times, preventing damage and maximizing efficiency. This proactive approach to engine management reduces the risk of failure and improves overall reliability. [13] Electromagnet design Explanation: This claim describes the design of the electromagnets, including the core materials and winding configurations, which are optimized for rapid pulse generation and minimal energy losses. The design is also adaptable, allowing configuration adjustments to meet the specific requirements of different motor types, such as generating stronger pulses for high-performance vehicles. Advantages: The advanced design of the electromagnets enables rapid and efficient pulse generation, which is crucial for maintaining motor performance. The use of materials with high permeability and low losses ensures efficient motor operation, reduces energy losses, and increases overall performance. Furthermore, the ability to configure the electromagnets and supermagnets for stronger pulses offers flexibility and allows adaptation to various applications, from energy-efficient models to high-performance vehicles. [14] Safety mechanisms Explanation: This claim describes the safety functions integrated into the motor system, such as temperature sensors, current limiters and automatic shutdown functions, which serve to prevent overheating and overcurrent conditions. Advantages: The integration of safety mechanisms protects the motor from potential damage caused by extreme conditions and ensures long-term reliability and safety. These features provide users with peace of mind, knowing that the motor is designed to handle unexpected events without compromising performance. [15] Adaptable piston dynamics Explanation: This claim covers the adaptable aspects of the pistons, including mass, magnet strength and geometric configuration, thus enabling optimization based on specific operating requirements. Advantages: Adaptable piston dynamics allow the engine to be tailored for various applications, from high-performance vehicles to energy-efficient designs. This flexibility ensures that the engine meets the precise requirements of each application, increasing its versatility and efficiency. [16] Regenerative braking system Explanation: This claim describes the regenerative braking system that converts the vehicle's kinetic energy into electrical energy during braking. This energy is stored in energy storage devices, with the system using either a dedicated generator or a small electric motor to generate electricity. This component is independent of the main engine and directly utilizes the rotation of the wheels for efficient energy recovery. Advantages: Regenerative braking improves energy efficiency by recovering energy that would otherwise be lost during braking. By directly generating electricity from wheel rotation, independent of the main engine, the system increases energy recovery, reduces wear on the braking system, and extends the vehicle's range. The flexibility to use either a generator or a small electric motor allows for optimized adaptation of the system to the specific requirements of the vehicle. [17] Turbo Compounding System Explanation: This claim relates to the turbo-compounding system, which utilizes the kinetic energy of the exhaust gases flowing through the pistons. The system converts this energy into additional electrical or mechanical energy, which is then stored or used to assist the vehicle's propulsion. Advantages: The turbo compounding system adds another layer of energy recovery by utilizing the exhaust gas process to generate additional energy. This system improves the overall efficiency of the engine and contributes to reducing fuel consumption, especially under high load. [18] Feedback-controlled motor brake energy recovery system Explanation: This claim describes the feedback-controlled engine braking system that feeds kinetic energy from the wheels back into the engine, causing the pistons to move up and down and continuously generate electricity. The system incorporates active lubrication, variable valve timing, and a low compression ratio to minimize internal resistance and maximize energy recovery. Advantages: The feedback-controlled motor braking system converts braking energy into useful electrical energy, improving vehicle efficiency. By operating the motor in a continuous state, similar to electric vehicles, the system ensures energy recovery even when the motor is not actively propelling the vehicle, further extending its range and efficiency. [19] Advanced energy management system Explanation: This claim covers the advanced energy management system, which optimizes the capture and use of recovered energy. It includes real-time monitoring and control of energy flows between the battery, supercapacitors, and other components. Advantages: The advanced energy management system ensures that all recovered energy is used efficiently, reducing waste and improving the overall system performance. By dynamically adjusting engine operations based on real-time data, the system maximizes energy recovery and ensures that the vehicle operates at maximum efficiency under all conditions. [20] Energy recovery through dual-pole electromagnets Explanation: This claim describes the dual-pole electromagnet configuration in which one pole generates pulses to drive the pistons, while the other pole induces a current in a coil to generate electrical energy. This recovered energy is managed by a control unit to prevent voltage spikes and ensure stable energy recovery. Advantages: The energy recovery system using dual-pole electromagnets adds another dimension to energy efficiency by simultaneously enabling piston movement and power generation. This system maximizes the use of available energy without affecting engine performance and contributes to the overall efficiency of the vehicle. [21] Energy generation by supermagnet cylinders Explanation: This claim covers the generation of electricity by supermagnet cylinders, in which a supermagnet integrated into the piston moves within a cylinder wound with copper wire. The movement of the supermagnet induces an electromotive force (EMF) in the surrounding coil, thus generating electrical energy. This system is not only applicable to electromagnetically actuated motors but can also be adapted to other motor types, including internal combustion engines (ICEs), to increase their energy efficiency. Advantages: This innovative energy generation method directly converts the kinetic energy of piston movement into electrical energy, significantly improving the engine's overall energy efficiency. The ability to generate energy during piston movement provides a continuous energy source, reducing the vehicle's reliance on external power sources and increasing fuel or energy efficiency. Furthermore, the versatility of this system allows it to be integrated into a wide variety of engine types, including internal combustion engines (ICEs), thereby significantly improving conventional engine designs by generating additional electrical energy and increasing their overall efficiency.

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