A free energy machine conversion free energy machine

Abstract

The application relates to a free energy machine conversion free energy machine, which is composed of a flange shaft, a positive bending plate, a secondary bending plate, a bending back belt wheel, a bending back, a transverse bending crank shaft, a static loading wheel, a hollow static shaft, a static extrusion shaft, a static extrusion coupling, a middle shaft concave wheel ball groove and the like, and matched assemblies and bearings. The free energy machine applies the principle of the relative theory of kinetic energy power and static energy power, and can be divided into active static power and passive static power, unloaded static power and loaded static power, vertical static energy power and transverse static energy power, extrusion static energy power and idling static energy power, and has the characteristics that the output is greater than the input, so that the law of conservation of energy is broken, and the free energy replaces the natural energy, thereby forming a great creation of the free energy for the benefit of the world.

Description

Technical Field

[0001] This invention relates to a free energy machine that converts free energy into free energy. Background Technology

[0002] With the development of human society and the rapid advancement of modern science and technology, the energy problem facing the world has become particularly prominent. In particular, the material energy stored in nature is far from meeting the needs of long-term development. The global energy crisis has forced human society to explore new avenues. Therefore, the creation and invention of free energy is of paramount importance. It is key to the sustained and stable growth of the social economy, to improving the standard of living, and to leading the world into a new era. Thus, the creation and invention of free energy is of great significance to the economic development of my country and the world. Currently, the world primarily uses natural material energy provided by the Earth. The pollution and harm caused by this energy source have long been recognized, yet it remains a persistent factor affecting global economic and civilizational development. Therefore, free energy, a new type of energy source independent of natural energy, possesses the potential to save the Earth and benefit humanity. Its invention is of great historical significance. Summary of the Invention

[0003] The purpose of this invention is to provide a free energy source that transcends the energy of natural matter. It adopts the dynamic principle of the basic science of relativity, namely the principle of combining kinetic and static forces, as a breakthrough point. It generates free energy by powering static energy, thereby breaking the law of conservation of energy. Its nature is inexhaustible and has great significance for the economic and civilizational development of my country and the world, and for saving the earth's new vitality.

[0004] To achieve the above objectives, the technical solution of the present invention is as follows: A free energy conversion machine, characterized by: a curved back, a curved back sleeve, a curved back sleeve hole, a transverse crankshaft, a transverse crank bearing, a stationary loading wheel, a stationary loading through hole, a transverse crank wheel, a stationary loading bearing, a stationary loading oval hole, a hollow stationary shaft, hollow stationary gear A, hollow stationary gear B, a hollow stationary bearing, a hollow stationary disc, a stationary extrusion shaft, stationary extrusion gears, a stationary extrusion shaft hole A, a stationary extrusion shaft hole B, a stationary extrusion bearing A, a stationary extrusion bearing B, a stationary extrusion ball wheel, a stationary extrusion coupling, a coupling concave wheel ball groove, a central shaft concave wheel ball groove, a generator central shaft, a central shaft fixed bearing, a positive curved plate, a secondary curved plate, a flange shaft, a curved back pulley, a bearing housing, a support housing, bolts, a motor, a generator, an electronic switch, a machine stand, a coupling, and a curved plate bearing. The external structural components of the Free Energy Machine include the curved back, main curved plate, auxiliary curved plate, flange shaft, curved back pulley, bearing housing, support seat, bolts, curved plate bearing, coupling, machine stand, electronic switch, and hollow stationary wheel. The main curved plate, curved back, and auxiliary curved plate are connected by bolts; the curved back pulley and main curved plate are connected by screws; the flange shaft and auxiliary curved plate are connected by screws; and the hollow stationary wheel and support seat are connected by screws. The internal structural components of the Free Energy Machine include the curved back, curved back sleeve, curved back sleeve hole, transverse crankshaft, transverse crank wheel, transverse crank bearing, stationary loading wheel, and stationary loading through hole. Static loading bearing, static loading oval hole, hollow static shaft, hollow static gear A, hollow static gear B, hollow static bearing, static extrusion shaft, static extrusion shaft gear, static extrusion shaft hole A, static extrusion shaft hole B, static extrusion bearing A, static extrusion bearing B, static extrusion ball wheel, static extrusion coupling, coupling concave wheel ball groove, central shaft concave wheel ball groove, generator central shaft, central shaft fixed bearing. The components include: a curved back sleeve, a curved back sleeve hole, and a transverse crank bearing; a stationary loading wheel, a stationary loading through hole, a stationary loading bearing, a stationary loading oval hole, a transverse crank shaft, a transverse crank wheel, a stationary extrusion shaft hole A, a stationary extrusion shaft hole B, a stationary extrusion bearing A, a stationary extrusion bearing B, and a hollow stationary bearing; a transverse crank shaft, a transverse crank bearing, a transverse crank wheel, and a stationary loading bearing; a hollow stationary shaft, hollow stationary gear A, hollow stationary gear B, a hollow stationary bearing, a hollow stationary wheel disc, and a generator central shaft; a stationary extrusion shaft, stationary extrusion gears, stationary extrusion ball wheels, stationary extrusion shaft holes A, stationary extrusion shaft holes B, stationary extrusion bearings A and B; and a stationary extrusion coupling, a coupling concave wheel ball groove, a stationary extrusion ball wheel, a central shaft concave wheel ball groove, and a generator central shaft. This constitutes the core technology structure kit combination inside the Free Energy Machine.

[0005] The curved back includes a curved back sleeve, a curved back sleeve hole, and a transverse crank bearing. The curved back is disc-shaped. On the inner end face of the disc-shaped curved back, there are two symmetrical trapezoidal curved back sleeves. At the center point of each trapezoidal curved back sleeve is a cylindrical curved back sleeve hole, in which a transverse crank bearing is installed. The top of the curved back sleeve hole is semi-circular, and the transverse crank shaft is mounted and positioned within the curved back sleeve hole of the curved back sleeve via the transverse crank bearing. The top of the transverse crank shaft, also semi-circular, extends upwards via the transverse crank bearing and rests precisely on the semi-circular top of the curved back sleeve hole. The overall assembly of the curved back aims to fully utilize transverse static energy.

[0006] The hollow stationary shaft contains hollow stationary gear A, hollow stationary gear B, a hollow stationary bearing, a hollow stationary disc, and a generator shaft. The hollow stationary shaft is cylindrical and hollow inside, housing the generator main shaft. The right end face of the hollow stationary shaft is a disc-shaped hollow stationary disc, which is connected to a support base by screws. A stationary loading wheel is mounted on the middle shaft surface of the hollow stationary shaft and connected by a hollow stationary bearing. Hollow stationary gear A is located on the inner right side of the hollow stationary shaft surface of the stationary loading wheel, while hollow stationary gear B is located on the outer left side of the hollow stationary shaft surface of the stationary loading wheel. Hollow stationary gear A contacts the transverse crank gear teeth, and hollow stationary gear B contacts the stationary extrusion gear teeth. The hollow stationary shaft is a passive static power source in a static state. When it comes into contact with the components, static energy power is generated. Therefore, the purpose of the hollow stationary shaft is to convert static power into static energy power in a transitional form.

[0007] The stationary loading wheel includes a stationary loading through hole, a stationary loading bearing, a stationary loading oval hole, a transverse crankshaft, a transverse crank wheel, a stationary extrusion shaft hole A, a stationary extrusion shaft hole B, a stationary extrusion bearing A, a stationary extrusion bearing B, and a hollow stationary bearing. The stationary loading wheel is disc-shaped with a circular through hole in the middle that connects to the hollow stationary bearing via a hollow stationary shaft. Two symmetrical cylindrical stationary loading through holes are located on the upper end face of the stationary loading wheel, in which the stationary loading bearing and the transverse crankshaft are installed. Two symmetrical stationary loading oval holes are located on the right side of the stationary loading wheel, communicating with the stationary loading through holes. The transverse crankshaft extends downwards along the stationary loading through holes and the stationary loading bearing into the stationary loading oval holes, and the transverse crank wheel in the transverse crankshaft is installed within the stationary loading oval holes. The transverse crank wheel contacts the inner right-side hollow stationary wheel tooth A of the stationary loading wheel, forming a spiral transverse rotation during movement. This is the right-side A-face of the stationary loading wheel. The stationary loading wheel has two symmetrical stationary extrusion shaft holes A on its left outer end. On the outer end face of stationary extrusion shaft holes A, there are corresponding extended connecting bridges with a suspended body in the middle. Stationary extrusion bearing A is installed in stationary extrusion shaft holes A. Stationary extrusion gear teeth are installed within the space of the suspended body of the stationary loading wheel, contacting hollow stationary gear teeth B. On the left side of the stationary loading wheel, there is a stationary extrusion shaft hole B, in which stationary extrusion bearing B is installed. The stationary extrusion shaft extends from stationary extrusion shaft holes A and A to the right side of stationary extrusion shaft holes B and the inner hole on the left side face of the stationary loading wheel. The inner hole on the left side face of the stationary loading wheel of stationary extrusion shaft hole B and stationary extrusion bearing B is diagonally opposite to the stationary loading oval hole on the right side A face of the stationary loading wheel at a 90° angle. The stationary extrusion coupling is connected to the connection point of the upper shaft hole surface of stationary extrusion shaft holes A. This is the left side of the stationary loading wheel. The structure of the stationary loading wheel is active stationary power, that is, loading stationary power. The stationary loading wheel is connected to the lateral stationary energy power on the top and the compression stationary energy power on the bottom. The stationary loading wheel has bearings installed at all its contact parts, forming a bearing isolation carrier in the upper, lower, left and right directions. Therefore, the purpose of the overall structure of the stationary loading wheel is to realize the load in the form of a loading carrier.

[0008] The aforementioned transverse crankshaft includes a transverse crank bearing, a stationary load bearing, and a transverse crank wheel. The transverse crankshaft is cylindrical, with a semi-circular top. The transverse crank bearing is installed at the upper end of the transverse crankshaft. A stationary load through-hole is located on the connection surface between the transverse crankshaft and the stationary load wheel, and a stationary load bearing is installed there. At the bottom of the transverse crankshaft is the transverse crank wheel, which is installed in a stationary load oval hole. The conical teeth in the transverse crank wheel contact the conical teeth in the hollow stationary wheel A, forming a helical transverse rotation of stationary energy power, while simultaneously possessing bidirectional energy movement in both the transverse and vertical directions of the transverse crankshaft. Therefore, the purpose of the transverse crankshaft and its component structure is to eliminate and isolate the load through transverse rotation, enabling the external structure of the free energy machine to achieve idling efficiency.

[0009] The described static extrusion shaft includes static extrusion gear teeth, static extrusion ball wheels, static extrusion shaft holes A and B, static extrusion bearings A and B. The static extrusion shaft is cylindrical. At its right end is a static extrusion gear tooth, which contacts a hollow static gear tooth B. At its left end is a static extrusion ball wheel, which is spherical and matches the mid-surface of the generator shaft concave wheel groove and the coupling concave wheel groove. The static extrusion shaft connects to the static extrusion shaft hole A, static extrusion bearing A, and static extrusion shaft hole B on the left side of the static loading wheel via the connecting body bridge. The static energy generated when the static extrusion gear teeth contact the hollow static gear tooth B is static extrusion energy. The upper end of the static extrusion ball wheel connects to the static extrusion coupling concave wheel groove, and its lower end connects to the generator shaft concave wheel groove. During the movement of the static extrusion gear teeth... Under the action of the static extrusion ball wheel, a static energy force is generated in the concave groove of the central shaft, causing the generator load to be cut off and eliminated during the extrusion and operation of the static extrusion ball wheel. At the same time, the extrusion motion of the static extrusion ball wheel forms an operational isolation in the concave groove of the coupling, resulting in idling motion. Moreover, the static extrusion energy force of the static extrusion ball wheel and the operation power of the free energy machine form a dual power. The dual power pushes the generator central shaft forward, greatly increasing the working energy power. Since the generator load is cut off and eliminated, the internal structure of the free energy machine is idling as a whole. Therefore, the main function of the static extrusion shaft is to cut off and eliminate the load, generate extrusion static energy force and idling static energy force.

[0010] The described static extrusion coupling includes a static extrusion ball wheel and a coupling concave wheel ball groove. The static extrusion coupling is disc-shaped, and there are two symmetrical semi-circular coupling concave wheel ball grooves on the contact surface between the static extrusion coupling and the static extrusion ball wheel. The static extrusion ball wheel is installed in the concave wheel ball groove, and the upper end of the static extrusion ball wheel contacts the concave wheel ball groove of the static extrusion coupling, and the lower end contacts the concave wheel ball groove of the generator shaft. The upper end face of the static extrusion coupling has an extension, which is connected to the connection point of the upper end shaft hole surface of the static extrusion shaft hole A in the static loading wheel. The static extrusion ball wheel generates load cut-off isolation in the coupling concave wheel ball groove. At the same time, the static extrusion ball wheel generates spherical rotation and isolation in the coupling concave wheel ball groove, forming idling motion, thereby forming electromechanical idling static energy power. This is the idling motion of the free energy machine.

[0011] The aforementioned central shaft concave wheel ball groove contains a generator central shaft, a stationary extrusion ball wheel, a coupling concave wheel ball groove, and a stationary extrusion coupling. The central shaft concave wheel ball groove consists of two symmetrical semi-circular concave wheel ball grooves on the top surface of the generator central shaft. A stationary extrusion ball wheel is installed within each concave wheel ball groove, with its lower end face contacting the central shaft concave wheel ball groove and its upper end face contacting the coupling concave wheel ball groove. When the stationary extrusion ball wheel rotates forward within the central shaft concave wheel ball groove, it generates static energy power to compress forward, creating a strong compressive force within the central shaft concave wheel ball groove, thus achieving a static extrusion coupling. The generator's central shaft is driven by a combination of compression and motion forces, maximizing its efficiency. Simultaneously, as the stationary compression ball wheel rotates forward within the central shaft's concave ball groove, the generator's load is forcibly cut off when transmitted along the central shaft to the concave ball groove. The stationary compression ball wheel's motion within the concave ball groove thoroughly crushes and cuts off the load. Furthermore, the stationary compression ball wheel's movement within the coupling's concave ball groove creates motion isolation, thus achieving idling efficiency within the electromechanical internal structure. Therefore, the purpose of the central shaft's concave ball groove is to generate both compression static energy and idling static energy.

[0012] The advantages of this invention are: The principle of relativity between kinetic and static forces in free energy machines is that dynamic force and static force are mutually opposed energy forces. Static energy force is a new type of energy force generated by a certain component in a stationary state, namely, static energy force. Static force can be divided into static force and static energy force, and static force can be divided into active static force and passive static force, unloading static force and loading static force. Static energy force can be divided into vertical static energy force and lateral static energy force, compression static energy force and idling static energy force. This is the principle of the relativity between kinetic and static energy forces.

[0013] The Free Energy Machine can be divided into two parts: an external structure and an internal structure. Its external structure is simple, consisting of a closed-loop motion structure. The internal structure is composed of electromechanical components powered by static energy. Its main components include a crankshaft, a transverse crankshaft, a hollow stationary shaft, a stationary loading wheel, a stationary extrusion shaft, a stationary extrusion coupling, a central shaft concave wheel ball groove, and bearings, forming the overall internal structure of the Free Energy Machine. Therefore, the core technology of the Free Energy Machine is its static energy power structure. Because static energy power is a new type of static energy power, it is fundamentally different from static power. Static power does not possess the energy of motion, while static energy power is a new type of static energy power that possesses energy power. Its main function is to directly apply static energy power to power generation, thus directly replacing operational energy power. Currently, the world's power generation system is determined by operational energy power. Therefore, the invention and application of static energy power represents a breakthrough and change in cognition. It aims to overcome the scientific dream of combining two extreme opposites in basic science, much like the invention of electricity, which involves the combination of positive and negative poles in relativity to generate electrical energy. The invention of the free energy machine contains both kinetic energy and static energy, which are based on the principle of combining two extreme opposites, positive and negative, dynamic and static. This is the key to breaking through the combination of extreme opposites in basic science. At the same time, the free energy machine has the characteristic of output greater than input, thus breaking the law of conservation of energy. It is also a great innovation that free energy replaces natural energy and forms free energy to benefit the world. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of the present invention; Figure 2 for Figure 1 Installation diagram; Figure 3A is a schematic diagram of the transverse static energy dynamics structure; Figure 3-B A schematic diagram of the structure for compressing static energy dynamics; Figure 4-A This is a structural diagram of the right side (A-side) of the stationary loading wheel; Figure 4-B This is a structural diagram of the left side (B side) of the stationary loading wheel; Figure 5 For the present invention Figure 2 A cross-sectional view of the center CC direction.

[0015] In the diagram: 1. Curved back; 2. Curved back sleeve; 3. Curved back sleeve hole; 4. Transverse crankshaft; 5. Transverse crank wheel; 6. Transverse crank bearing; 7. Stationary loading wheel; 8. Stationary loading through hole; 9. Stationary loading bearing; 10. Stationary loading oval hole; 11. Hollow stationary shaft; 12. Hollow stationary gear tooth A; 13. Hollow stationary gear tooth B; 14. Hollow stationary bearing; 15. Hollow stationary wheel disc; 16. Stationary extrusion shaft; 17. Stationary extrusion gear tooth; 18. Stationary extrusion shaft hole A; 19. Stationary extrusion shaft hole B; 20. Static extrusion bearing A; 21. Static extrusion bearing B; 22. Static extrusion ball wheel; 23. Static extrusion coupling; 24. Coupling concave wheel ball groove; 25. Central shaft concave wheel ball groove; 26. Generator central shaft; 27. Central shaft fixed bearing; 28. Positive curved plate; 29. ​​Secondary curved plate; 30. Flange shaft; 31. Curved back pulley; 32. Bearing housing; 33. Support seat; 34. Bolt; 35. Electric motor; 36. Generator; 37. Electronic switch; 38. Machine legs; 39. Coupling; 40. Curved plate bearing. Specific implementation methods

[0016] The invention will be further described with reference to the accompanying drawings and structural embodiments. Figure 1The assembly includes: a crankback 1, a transverse crankshaft 4, a transverse crank wheel 5, a stationary loading wheel 7, a stationary loading oblong hole 10, a hollow stationary shaft 11, a hollow stationary gear A12, a hollow stationary gear B13, a hollow stationary wheel disc 15, a stationary extrusion shaft 16, a stationary extrusion gear 17, a stationary extrusion shaft hole A18, a stationary extrusion ball wheel 22, a stationary extrusion coupling 23, a coupling concave wheel ball groove 24, a central shaft concave wheel ball groove 25, a generator central shaft 26, a positive curved plate 28, a secondary curved plate 29, a flange shaft 30, a crankback pulley 31, a bearing seat 32, and a support seat 33. The crankback 1, the positive curved plate 28, and the secondary curved plate 29 are connected by bolts; the hollow stationary wheel disc 15 is connected to the support seat 33 by screws; and the secondary curved plate 29 and the crankback pulley 31 are connected by screws. The curved plate 28 and flange shaft 30 are connected by screws. The curved back 1 has two symmetrical curved back sleeves and curved back sleeve holes. A transverse crank bearing is installed in the curved back sleeve hole. The upper end face of the transverse crank shaft 4 is connected to the transverse crank bearing, and the lower end of the transverse crank shaft 4 is connected to the stationary loading bearing. The stationary loading bearing is installed in the stationary loading through hole of the stationary loading wheel 7. The bottom of the lower end of the transverse crank shaft 4 is where the transverse crank wheel 5 contacts the hollow stationary gear tooth A12. The hollow stationary gear tooth A12 is located to the right of the stationary loading oval hole 10 in the stationary loading wheel 7. The stationary extrusion shaft 16 is installed in the stationary extrusion shaft hole A18 and stationary extrusion shaft hole B of the stationary loading wheel 7. The static extrusion bearings A and B are matched. The static extrusion gear 17 of the static extrusion shaft 16 contacts the hollow static gear B13. There are two symmetrical central shaft concave wheel ball grooves 25 on the end face of the generator central shaft 26. The static extrusion ball wheel 22 contacts the central shaft concave wheel ball groove. The upper end of the static extrusion ball wheel 22 is connected to the coupling concave wheel ball groove 24 in the static extrusion coupling 23. The hollow static shaft 11 is hollow and contains the generator central shaft 26. The left end face of the hollow static shaft 11 extends into the core of the free energy machine. The upper extension of the static extrusion coupling 23 is connected to the connection point of the static extrusion shaft hole A18 in the static loading wheel 7.

[0017] Figure 2 In section -3, the curved back 1, the main curved plate 28, and the secondary curved plate 29 are connected by bolts 34. The secondary curved plate 29 and the curved back pulley 31 are connected by screws. The main curved plate 28 and the flange shaft 30 are connected by screws. The hollow stationary wheel 15 and the support seat 33 are connected by screws. The left side of the machine frame 38 is equipped with a bearing seat 32, while the right side of the machine frame 38 is equipped with a support seat 33, an electric switch 37, and a coupling 39. The electric motor 35, the free energy machine, and the generator 36 are freely switched through the electronic switch 37 to form the unit's circulating system structure, and its external power transmission energy is free energy.

[0018] Figure 4-5 shows the free energy machine, which consists of two parts: an external structure and an internal structure. The external structure, from left to right, comprises a bearing housing 32, a flange shaft 30, a positive curved plate 28, a curved back 1, a secondary curved plate 29, a curved back pulley 31, a curved plate bearing 40, a hollow stationary disc 15, and a support base 33. The support base 33 is located between the free energy machine and the generator 36. The hollow stationary disc 15 in the hollow stationary shaft 11 is connected to the support base 33 by screws. The left end of the hollow stationary shaft 11 extends into the internal mechanism of the free energy machine, while the curved plate bearing 40 in the central hole of the secondary curved plate 29 mates with the hollow stationary shaft 11. The internal structure of the free energy machine, from top to bottom, consists of: 1. Curved back; 2. Curved back sleeve; 3. Curved back sleeve hole; 6. Transverse crank bearing; 4. Transverse crank shaft; 5. Transverse crank wheel; 7. Stationary loading wheel; 8. Stationary loading through hole; 9. Stationary loading bearing; 10. Stationary loading oval hole; 11. Hollow stationary shaft; 12. Hollow stationary gear A; 14. Hollow stationary bearing; 13. Hollow stationary gear B; 16. Stationary extrusion shaft; 17. Stationary extrusion gear 18. Stationary extrusion shaft hole A; 19. Stationary extrusion shaft hole B; 20. Stationary extrusion bearing A; 21. Stationary extrusion ball wheel; 22. Stationary extrusion coupling; 23. Coupling concave wheel ball groove; 24. Central shaft concave wheel ball groove; 25. Generator central shaft; 26. Central shaft fixed bearing. The core technology structure of the free energy machine is divided into three parts: the first part is the lateral static energy power, which consists of a curved back 1, a curved back sleeve 2, a curved back sleeve hole 3, a lateral crank bearing 6, a lateral crank shaft 4, a lateral crank wheel 5, a static loading wheel 7, and a hollow static gear tooth A12. It is matched with a static loading through hole 8, a static loading bearing 9, and a static loading waist circle 10. The core technology components of the lateral static energy power are the lateral crank wheel 5 and the hollow static gear tooth A12. The lateral spiral motion generated by them during the movement is the lateral static energy power. The second part is static power, in which the hollow static shaft 11, hollow static gear A12, and hollow static gear B13 are stationary within the mechanism of the free energy machine, which is passive static power. On the other hand, the stationary loading wheel 7, stationary loading through hole 8, stationary loading bearing 9, stationary loading oval hole 10, hollow static bearing 14, stationary extrusion shaft hole A18, stationary extrusion shaft hole B19, stationary extrusion bearing A20, and stationary extrusion bearing B21 are in a state of static motion within the free energy machine, which is active static power.The third part is the extrusion static energy power, whose structural combination consists of a static extrusion shaft 16, static extrusion gear 17, static extrusion shaft hole A18, static extrusion shaft hole B19, static extrusion bearing A20, static extrusion bearing B21, static extrusion ball wheel 22, static extrusion coupling 23, coupling concave wheel ball groove 24, and central shaft concave wheel ball groove 25. These are coupled with a static loading wheel 7, hollow static gear B13, and generator central shaft 26. The core technology combination of the extrusion static energy power is the static energy power generated by the static extrusion gear 17 and hollow static gear B13 in the static extrusion shaft 16, and the extrusion static energy power generated by the static extrusion ball wheel 22 and central shaft concave wheel ball groove 25. Simultaneously, the idle static power generated by the static extrusion ball wheel 22 and coupling concave wheel ball groove 24. Therefore, the extrusion motion of the static extrusion ball wheel 22 in the free energy machine is static extrusion energy power.

[0019] The structural principle of the Free Energy Machine: The Free Energy Machine's structural principle employs the principle of relativity between kinetic and static energy, that is, motion and stillness. It also utilizes the principle of static relativity, which includes static power and static energy. Static power can be divided into active static power and passive static power, unloading static power and loading static power. Static energy can be divided into vertical static energy power and lateral static energy power, compression static energy power and idling static energy power. This is the principle of relativity between kinetic and static energy in the Free Energy Machine. In the Free Energy Machine, active static power generates static energy, and its structure includes a transverse crank wheel 5, static compression gear 17, hollow static gear A12, and hollow static gear B13. Passive static power is the source of static power, and it includes a hollow static shaft 11, hollow static gear A12, hollow static gear B13, and a hollow static disk 15. The unloading static power acts as a load cut-off and isolation mechanism in the electromechanical system, and includes the transverse crankshaft 4, the static extrusion ball wheel 22, and all connecting bearings. The loading static power acts as the load-loading space carrier in the electromechanical system, and includes the static loading through hole 8, static loading bearing 9, static loading oval hole 10, static extrusion shaft hole A18, static extrusion shaft hole B19, static extrusion bearing A20, static extrusion bearing B21, and hollow static bearing 14 in the static loading wheel 7. Vertical static energy power is the direction of movement forward when the entire electromechanical system operates. Transverse static energy power is the direct transmission for cutting off and isolating the load, cutting off the internal and external connections of the load through transverse rotation, leaving the external structure of the electromechanical system in an idling state. It includes the crank back 1, crank back sleeve 2, crank back sleeve hole 3, transverse crankshaft 4, transverse crank bearing 6, transverse crank wheel 5, static loading wheel 7, static loading through hole 8, static loading bearing 9, static loading oval hole 10, and hollow static wheel tooth A12. The role of static extrusion energy power in electromechanical systems is the motion and extrusion of static energy power. The combination of static extrusion power and motion force forms a dual energy power. Extruding static energy power has a forced load-cutting effect, causing the internal structure of the electromechanical system to idle. This includes a static extrusion shaft 16, static extrusion gear teeth 17, static extrusion shaft hole A18, static extrusion shaft hole B19, static extrusion bearing A20, static extrusion bearing B21, static extrusion ball wheel 22, static extrusion coupling 23, coupling concave wheel ball groove 24, and central shaft concave wheel ball groove 25. The role of idling static energy power in electromechanical systems is the suspension of motion force and load cutting, thus creating the idling effect of the electromechanical system. This includes a transverse crankshaft 4, static extrusion ball wheel 22, static extrusion coupling 23, and bearings, etc. This is the working principle and application of a free energy machine.

[0020] When the free energy machine is working, the external curved back pulley 31 of the free energy machine is driven by the electric motor 35 to rotate, and the free energy machine moves forward as a whole. At this time, the internal structure of the free energy machine will form four major static energy systems operating, and combine to form a complete static energy power structure. These four major parts are horizontal static energy power, loading static power, extrusion static energy power, and static power.

[0021] The first part is the lateral static energy power: When the free energy machine is working, its internal crank back 1 contains a crank back sleeve 2, a crank back sleeve hole 3, and a lateral crank bearing 6. The upper end of the lateral crank shaft 4 is connected to the lateral crank bearing 6, and the lower end of the lateral crank shaft 4 is connected to the static loading bearing 9. The contact surface of the static loading wheel 7 connected to the lateral crank shaft 4 has two symmetrical static loading through holes 8, and the static loading bearing 9 is installed on the static loading through holes 8. The static loading wheel 7 has a static loading oval hole 10, and the static loading... The through hole 8 communicates with the stationary loading oblong hole 10. The transverse crankshaft 4 extends through the stationary loading through hole 8 and the stationary loading bearing 9 into the stationary loading oblong hole 10. The bottom of the transverse crankshaft 4 is a transverse crank wheel 5, which is installed in the stationary loading oblong hole 10. There is a hollow stationary gear tooth A12 on the inner right side of the stationary loading oblong hole 10. The gear teeth of the transverse crank wheel 5 and the hollow stationary gear tooth A12 are conical gear teeth. When the transverse crank wheel 5 contacts and moves with the hollow stationary gear tooth A12, the transverse crankshaft 4 will generate a spiral motion. The lateral rotational motion generates lateral static energy power. The main function of the lateral movement of the lateral crankshaft 4 is to cut off the direct transmission of the load. By rotating laterally, the load's internal and external connections are severed, leaving the external structure of the electromechanical system in an idle state. The lateral static energy power technology structure is independent, consisting of, from top to bottom: crank back 1, crank back sleeve 2, crank back sleeve hole 3, lateral crank bearing 6, lateral crankshaft 4, static loading through hole 8, static loading bearing 9, static loading oval hole 10, lateral crank wheel 5, and hollow static gear tooth A1. 2. In its technical structure, the transverse crankshaft 4 and the stationary loading wheel 7 are isolated by the stationary loading bearing 9. The transverse stationary energy power has a motion energy trajectory from top to bottom and is separated from the generator central shaft 26 on the left to form an independent whole structure. Moreover, the transverse stationary energy power of the transverse crankshaft 4 and the motion force of the free energy machine form a dual power. The power generated by the transverse crank wheel 5 contacting the hollow stationary gear tooth A12 is the transverse stationary energy power, and the hollow stationary gear tooth A12 is the source of the transverse stationary energy power.

[0022] The second part is the static loading power: its main structural component is the static loading wheel 7, which is an independent structural component. It consists of the static loading wheel 7, the static loading through hole 8, the static loading bearing 9, the static loading oblong hole 10, the hollow static bearing 14, the static extrusion shaft hole A18, the static extrusion shaft hole B19, the static extrusion bearing A20, and the static extrusion bearing B21. The static loading bearing 9 and the transverse crankshaft 4 are installed in the static loading through hole 8 at the upper end of the static loading wheel 7. The static loading through hole 8 is connected to the static loading oblong hole 10. The transverse crank wheel 5 is installed in the static loading oblong hole 10. The transverse crank wheel 5 is in contact with the hollow static wheel tooth A12, which is located in the inner right side of the static loading oblong hole 10. This is the right side A surface of the static loading wheel 7 (see Figure 4A in the instruction manual). On the left side of the stationary loading wheel 7, a stationary extrusion shaft hole A18 and a stationary extrusion bearing A20 are connected to the left side of the stationary loading wheel 7 via a connecting bridge. The connecting bridge is a suspended body, within which stationary extrusion wheel teeth 17 contact hollow stationary wheel teeth B13. Correspondingly, the stationary loading wheel 7 has a stationary extrusion shaft hole B19 and a stationary extrusion bearing B21. A stationary extrusion shaft 16 is installed within the inner holes of stationary extrusion shaft holes A18, B19, A20, and B21. This is the left side (B side) of the stationary loading wheel 7 (see Figure 4B in the instruction manual). A hollow stationary bearing 14 is installed in the central hole of the stationary loading wheel 7 and connected to the hollow stationary shaft 11. When the free energy machine operates, the load of generator 36 is transmitted along the stationary extrusion shaft 16 to the stationary loading wheel 7. Stationary extrusion bearings A20 and B21 isolate the load during the rotation of the bearing balls, while maintaining a connected yet isolated relationship. Similarly, the stationary loading bearing 9 and the transverse crankshaft 4 also maintain a connected yet isolated relationship during operation. The stationary loading wheel 7 is isolated from the hollow stationary shaft 11 via the hollow stationary bearing 14, thus creating a system of vertical and horizontal load isolation. Therefore, the overall structure of the stationary loading wheel 7 serves as a spatial carrier for the load, which is the static power of the load.

[0023] The third part is the static energy power for extrusion: its main structural component is the static extrusion shaft 16, which comprises static extrusion gear teeth 17, static extrusion shaft holes A18 and B19, static extrusion bearings A20 and B21, static extrusion ball wheels 22, static extrusion couplings 23, coupling concave wheel ball grooves 24 and central shaft concave wheel ball grooves 25, and hollow static gear teeth B13. The static extrusion shaft holes A18 and B19 are diagonally opposite to the static loading oval hole 10 on the right side A of the static loading wheel 7 at a 90° angle, and the static extrusion shaft 16 is matched with the static extrusion shaft holes A18 and B19, and the static extrusion bearings A20 and B21. A stationary extrusion gear 17 is installed in the suspended body on the left side B of the stationary loading wheel 7. It contacts the hollow stationary gear B13 and generates stationary energy power. The upper end of the stationary extrusion ball wheel 22 is connected to the concave ball groove 24 of the stationary extrusion coupling, and the lower end is in contact with the concave ball groove 25 of the central shaft. During the electromechanical operation, the stationary extrusion ball wheel 22 generates stationary energy power in the concave ball groove 25 of the central shaft, and the forward movement and extrusion form extrusion stationary energy power. This causes the load of the generator 36 to be cut off and eliminated in the extrusion and operation of the stationary extrusion ball wheel 22. Therefore, the extrusion movement between the stationary extrusion ball wheel 22 and the concave ball groove 25 of the central shaft cuts off the direct transmission of the load, which is the key to eliminating the load at the starting point. At the same time, the movement and extrusion of the stationary extrusion ball wheel 22 in the concave ball groove 24 of the coupling forms a motion isolation, thereby generating idling movement. Its principle is the same as the rotation principle of the steel ball of the bearing. Their upper ends have an idling function. Furthermore, the static extrusion energy of the stationary extrusion ball wheel 22 and the motion force of the free energy machine form a dual power, which significantly increases the power efficiency of the energy drive of the generator's central shaft 26. Since the load on the generator 36 is cut off and eliminated within the central shaft concave wheel ball groove 25, the internal structure of the free energy machine enters an idling motion state. Combined with the lateral motion of the lateral static energy of the transverse crankshaft 4, the load is cut off from the internal and external connections of the electromechanical system, leaving the external structure of the electromechanical system in an idling state. Therefore, the invention of the free energy machine aims to cut off and eliminate the load, which is the key to breaking the law of conservation of energy. Thus, the static energy generated by the stationary extrusion shaft 16 and the stationary extrusion ball wheel 22 as the main structure is static extrusion energy.

[0024] The fourth part is the static power section, whose main structural component is a hollow stationary shaft 11. It comprises a hollow stationary disc 15, a hollow stationary bearing 14, hollow stationary gears A12 and B13. The hollow stationary disc 15 is connected to the support base 33 by screws. The hollow stationary shaft 11 is cylindrical with a hollow interior, and a generator shaft 26 is installed inside the hollow shaft. A hollow stationary bearing 14 is installed at a corresponding position on the hollow stationary shaft 11 and connects to the stationary loading wheel 7. The two sides of the hollow stationary bearing 14 have hollow stationary gears A12 and B13. Hollow stationary gears A12 are conical and contact the conical gear teeth in the transverse crank wheel 5. Hollow stationary gears B13 contact the stationary extrusion gear teeth 17. The hollow stationary disc 15, connected to the support base 33, is located between the free energy machine and the generator 36. They are in a fixed, stationary state. The hollow stationary shaft 11 extends from the outside inward to the center of the free energy machine, providing the source of stationary power and serving as the starting point for the stationary energy power. Therefore, the hollow stationary shaft 11 and its components constitute stationary power; they do not generate energy power themselves and are auxiliary structures for stationary energy power, thus constituting passive stationary power. Therefore, the overall structure of the hollow stationary shaft 11 is a stationary power system. In summary, this is the explanation of the principle of the core technology power system inside the free energy machine.

Claims

1. A machine for converting free energy into free energy, characterized in that: The free energy conversion machine includes a curved back (1), a curved back sleeve (2), a curved back sleeve hole (3), a transverse crankshaft (4), a transverse crank wheel (5), a transverse crank bearing (6), a stationary loading wheel (7), a stationary loading through hole (8), a stationary loading bearing (9), a stationary loading oval hole (10), a hollow stationary shaft (11), a hollow stationary gear A (12), a hollow stationary gear B (13), a hollow stationary bearing (14), a hollow stationary wheel disc (15), a stationary extrusion shaft (16), a stationary extrusion gear (17), a stationary extrusion shaft hole A (18), and a stationary extrusion shaft. Hole B (19), Static extrusion bearing A (20), Static extrusion bearing B (21), Static extrusion ball wheel (22), Static extrusion coupling (23), Coupling concave wheel ball groove (24), Central shaft concave wheel ball groove (25), Generator central shaft (26), Central shaft fixed bearing (27), Positive curved plate (28), Secondary curved plate (29), Flange shaft (30), Curved back pulley (31), Bearing seat (32), Support seat (33), Bolt (34), Motor (35), Generator (36), Electronic switcher (37), Machine legs (38), Coupling (39), Curved plate bearing (40); The positive curved plate (28), the curved back (1), and the secondary curved plate (29) are connected by bolts (34), wherein the support seat (33) is located between the free energy machine and the generator (36), and the hollow stationary wheel (15) on the right end face of the hollow stationary shaft (11) is connected to the support seat (33) by screws, and the left end face of the hollow stationary shaft (11) extends into the internal mechanism of the free energy machine.

2. The machine for converting free energy into free energy according to claim 1, characterized in that: The curved back (1) includes a curved back sleeve (2), a curved back sleeve hole (3), and a transverse crank bearing (6). The curved back (1) is disc-shaped. There are two symmetrical curved back sleeves (2) with trapezoidal structures on the inner end face of the disc-shaped curved back (1). There is a cylindrical sleeve hole (3) on the center point face of the trapezoidal curved back sleeve (2). The transverse crank bearing (6) is installed in the cylindrical sleeve hole (3). The top surface of the curved back sleeve hole (3) is semi-circular. The semi-circular shape matches the semi-circular shape of the top surface of the transverse crank shaft (4). The transverse crank shaft (4) is installed in the curved back sleeve hole (3) of the curved back (1) through the transverse crank bearing (6).

3. The machine for converting free energy into free energy according to claim 1, characterized in that: The hollow stationary shaft (11) includes hollow stationary gear teeth A (12), hollow stationary gear teeth B (13), a hollow stationary bearing (14), and a hollow stationary disc (15). The hollow stationary shaft (11) is cylindrical and hollow inside. A generator shaft (26) is installed inside the hollow cylinder. The right end face of the hollow stationary shaft (11) is a disc-shaped hollow stationary disc (15). The hollow stationary disc (15) is connected to the support base (33) by screws. A stationary loading wheel (7) is mounted on the middle shaft surface of the stationary shaft (11) and connected to it by a hollow stationary bearing (14). There is a hollow stationary gear tooth A (12) on the shaft surface of the hollow stationary shaft (11) on the inner right side of the stationary loading wheel (7) and a hollow stationary gear tooth B (13) on the shaft surface of the hollow stationary shaft (11) on the left side of the stationary loading wheel (7). The hollow stationary gear tooth A (12) is in contact with the transverse crank wheel (5) and the hollow stationary gear tooth B (13) is in contact with the stationary extrusion gear tooth (17).

4. The machine for converting free energy into free energy according to claim 3, characterized in that: The stationary loading wheel (7) contains a hollow stationary bearing (14), a stationary loading through hole (8), a stationary loading bearing (9), a stationary loading oval hole (10), a stationary extrusion shaft hole A (18), a stationary extrusion bearing A (20), a stationary extrusion shaft hole B (19), and a stationary extrusion bearing B (21). The stationary loading wheel (7) is disc-shaped with a circular through hole in the middle that connects to the hollow stationary bearing (14) via a hollow stationary shaft (11). There are two symmetrical cylindrical stationary loading through holes (8) on the upper end face of the stationary loading wheel. The stationary loading bearing (9) and the transverse crankshaft (4) are installed in the stationary loading through holes (8). The stationary loading through holes (8) are connected to the stationary loading oval hole (10). The transverse crankshaft (5) in the stationary loading oval hole (10) contacts the hollow stationary wheel tooth A (12). On the left side of the loading wheel (7), there is a corresponding extended connecting bridge. The middle of the bridge is a suspended body. In the space of the suspended body, the stationary extrusion shaft gear (17) and the hollow stationary gear B (13) are in contact. On the left side of the stationary extrusion gear (17), there are two symmetrical stationary extrusion shaft holes A (18) and stationary extrusion bearing A (20) extending from the suspended body of the connecting bridge. On the right side of the stationary loading wheel (7), corresponding to the stationary extrusion gear (17), there are stationary extrusion shaft holes B (19) and stationary extrusion bearing B (21). The stationary extrusion shaft (16) is installed in the stationary extrusion shaft holes A (18), B (19), A (20), and B (21). At the same time, the outer end face of the stationary extrusion shaft hole A (18) in the stationary loading wheel (7) is connected to the stationary extrusion coupling (23).

5. The machine for converting free energy into free energy according to claim 4, characterized in that: The transverse crankshaft (4) contains a transverse crank bearing (6), a stationary load bearing (9), and a transverse crank wheel (5). The transverse crankshaft (4) is cylindrical, with a semi-circular top and a transverse crank wheel (5) at the bottom. The transverse crank wheel (5) is in contact with the hollow stationary gear tooth A (12). A transverse crank bearing (6) is installed at the upper end of the transverse crankshaft (4). The transverse crankshaft (4) is connected to the crank back (1) through the transverse crank bearing (6). The transverse crankshaft (4) is connected to the stationary load wheel (7) through the stationary load bearing (9) via the stationary load through hole (8).

6. The machine for converting free energy into free energy according to claim 4, characterized in that: The stationary extrusion shaft (16) includes stationary extrusion gear teeth (17), stationary extrusion ball wheels (22), stationary extrusion shaft holes A (18), B (19), stationary extrusion bearings A (20), and B (21). The stationary extrusion shaft (16) is cylindrical. At the right end of the stationary extrusion shaft (16) is the stationary extrusion gear tooth (17), which contacts the hollow stationary gear tooth B (13). The left end is a stationary extrusion ball wheel (22), which is spherical. The stationary extrusion ball wheel (22) matches the middle position of the generator shaft concave wheel ball groove (25) and the coupling concave wheel ball groove (24). The stationary extrusion shaft (16) is connected to the stationary extrusion shaft hole A (18) and stationary extrusion bearing A (20) in the bridge on the left side of the stationary loading wheel (7) and matches the stationary loading wheel (7), the left side stationary extrusion shaft hole B (19), and the stationary extrusion bearing B (21).

7. The machine for converting free energy into free energy according to claim 6, characterized in that: The static extrusion coupling (23) includes a static extrusion ball wheel (22) and a coupling concave wheel ball groove (24). The static extrusion coupling (23) is disc-shaped. In the contact surface between the static extrusion coupling (23) and the static extrusion ball wheel (22), there are two symmetrical semi-circular coupling concave wheel ball grooves (24). The static extrusion ball wheel (22) is installed in the coupling concave wheel ball groove (24). The upper end of the static extrusion ball wheel (22) is in contact with the coupling concave wheel ball groove (24), and the lower end of the static extrusion ball wheel (22) is in contact with the central shaft concave wheel ball groove (25). The upper end face of the static extrusion coupling (23) is provided with an extension, which is connected to the connection point of the upper end shaft hole surface of the static extrusion shaft hole A (18) in the static loading wheel (7).

8. The machine for converting free energy into free energy according to claim 7, characterized in that: The central shaft concave wheel ball groove (25) contains a generator central shaft (26), a stationary extrusion ball wheel (22), a stationary extrusion coupling (23), and a coupling concave wheel ball groove (24). The central shaft concave wheel ball groove (25) consists of two semi-circular concave wheel structures on the end face of the generator central shaft (26). A stationary extrusion ball wheel (22) is installed inside the central shaft concave wheel ball groove (25). The upper end of the stationary extrusion ball wheel (22) is the coupling concave wheel ball groove (24). The lower end of the stationary extrusion ball wheel (22) is in contact with the central shaft concave wheel ball groove (25), and its upper end face is in contact with the coupling concave wheel ball groove (24). The stationary extrusion coupling (23) matches the outer circle of the central shaft concave wheel ball groove (25).

9. The machine for converting free energy into free energy according to claim 1, characterized in that: In the electronic switch (37), the electronic switch (37) is installed at the power switching point between the motor (35) and the generator (36), forming a free switching and circulation of the power circulation system of the motor (35) and the generator (36), and the power output of the generator (36) is free energy.

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