Device for synthesizing and generating new energy

Abstract

The invention relates to a device for synthesizing and generating new energy, which is provided with a triangular elastic gear ring assembly consisting of roller groups G, H and K and an elastic gear C. The gravity W of an assembly D above the triangular elastic gear ring assembly can be transmitted to outer teeth of the elastic gear ring at a point b through a section of gear ring which is in a concave arc shape on the right side of the triangular elastic gear ring assembly. The acting force Fb on the gear teeth of the new power gear is generated; under the combined action of the input power N1 and the input power N2, all gear teeth of the elastic gear ring C can move around a supporting mechanism composed of three roller sets G, H and K in the clockwise direction, in the moving process, the acting force Fb and the speed s / t of the input power N2 can be continuously synthesized to generate new power Fb.s / t on outer teeth, located at the point b, of the elastic gear ring C, and the new power Fb.s / t is generated. And in addition, the new power generated through synthesis is larger than the consumed input power N1 and the consumed input power N2, and the new power is a sustainable new energy source.

Description

Technical Field

[0001] This invention relates to a device that continuously combines the force of gravity on other objects with input power to generate new energy. Background Technology

[0002] Regarding the problem of utilizing gravity to do work, traditionally, the work done by an object's gravity can only be done intermittently, not continuously. The device of this invention can convert the gravity of one object into a force F acting on another object, while maintaining the object's potential energy. b Then, when the system is running, the force F will be applied. b The input power, at its velocity s / t, is continuously synthesized and converted into energy that can do work, i.e., new power F. b ·s / t. Summary of the Invention

[0003] The purpose of this invention is to provide a triangular elastic gear ring assembly. Through a section of the gear ring with an inwardly concave arc on its right side, the weight W of the assembly D can be transferred to the outer teeth of the elastic gear ring at point b, generating a force F on the teeth of the new power gear. b Under the combined action of input power N1 and N2, the teeth of the elastic gear ring C will move clockwise around the support mechanism composed of three roller groups G, H, and K. During the movement, the gravitational potential energy of the assembly D will not change. In this way, the force F exerted by the outer teeth of the elastic gear ring C at point b on the teeth of the new power gear will be... b It can continuously generate a new power F by combining with the speed s / t of the input power N2 on the outer teeth of the elastic gear ring C at point b. b The s / t is then transmitted to the teeth of the new power gear at point b, driving the new power gear to rotate and do work; this is a new thing that can become a sustainable new energy source.

[0004] Technical solution of the present invention

[0005] The device for generating new energy includes: two drive gear sets A and S, a new power gear set B, a flexible gear C, a combination body D, and three roller sets G, H, and K.

[0006] The drive gear sets A and S have identical gears, each consisting of two spur gears fixed on the same shaft, and both have a fixed support.

[0007] The new power gear set B consists of two new power gears, identical to those in the drive gear sets A and S, fixed on the same shaft, and has a fixed support.

[0008] The elastic toothed ring C is shaftless and has no fixed support. It has appropriate elasticity and corresponding internal and external teeth. It can continuously change its shape under the action of external force. The magnitude of its elasticity depends on the elasticity of the material used and the distance between the root circles of the internal and external teeth.

[0009] The assembly D consists of two identical spur gears with larger diameters and greater weight, mounted on the same shaft, and two identical cylindrical rollers with larger diameters and greater weight. There is no fixed support. The two cylindrical rollers are positioned at both ends of the shaft and can rotate around it. The two spur gears are fixed to the shaft inside the two cylindrical rollers. The fixing position must ensure that these two gears can mesh with the appropriate two rings of external teeth in the special external teeth of the elastic gear ring. The radius of the cylindrical rollers is slightly larger than the radius of the pitch circle of the spur gears, so as not to affect the meshing of the two spur gears with other gears.

[0010] The roller groups G, H, and K have identical rollers, with two cylindrical rollers fixed at both ends of the shaft. Roller group G has a fixed support, while roller groups H and K do not.

[0011] The portion of the outer teeth of the elastic gear ring C above the root circle is divided into eight conjoined rings of special teeth with different shapes and purposes. Counting from one side of the tooth width, the first and eighth rings are toothless areas, with nothing above the root circle. The radius of the root circle is equal to the radius of the cylindrical rollers of roller sets G, H, and K, plus the full height of the inner teeth, plus the distance between the root circles of the inner and outer teeth of the elastic gear ring C. When the system is running, the two cylindrical rollers of assembly D roll in place on these two toothless rings. The second and seventh rings of teeth can mesh with the two gears of the new power gear set B. The third and sixth rings of teeth can mesh with the gears of the assembly... Two gears from both assembly D and drive gear set A mesh; the fourth and fifth rings of teeth are non-meshing fan-shaped special teeth, with the end face from the pitch circle to the addendum circle being a fan-shaped ring with a short arc on top. The radius of the short arc is smaller than the radius of the root circle. The requirement for the length of the long and short arcs is that, under the action of an external force, these two rings of fan-shaped teeth can be connected one by one to form a long, concave fan-shaped ring. The function of these two special teeth is to allow the outer teeth of the elastic ring C located between roller set K and new power gear set B to generate a supporting force against the gravity W of assembly D.

[0012] The internal teeth of the elastic gear ring C are non-meshing fan-shaped special gear teeth. The end face of the portion from the pitch circle to the tooth tip circle is a fan-shaped ring with a short arc on top. The radius of the short arc is equal to the radius of the rollers in the roller group G, H, and K. The requirement for the arc length of the long and short arcs is that, under the action of external force, any segment of the gear ring can be connected one by one to form a long fan-shaped ring. When the system is running, the rollers of the roller group G, H, and K roll in place on the short arc of the fan-shaped special gear teeth.

[0013] Three roller sets G, H, and K are connected by three pairs of connecting rods of different lengths with shaft holes at both ends, forming a triangular support mechanism. This mechanism is then positioned within the elastic gear ring, forming a triangular elastic gear ring assembly. The driving gear set A is positioned to the left of roller set G, meshing with the third and sixth rings of the elastic gear ring's external teeth. The new power gear set B is positioned to the right of roller set H, meshing with the second and seventh rings of the elastic gear ring's external teeth. The driving gear set S is positioned to the left of assembly D, meshing with the gears in assembly D. The axes of driving gear set A, roller sets G and H, and new power gear set B are on the same horizontal line. Assembly D is positioned above roller set K, connected to a pair of fixed supports via a pair of connecting rods with shaft holes at both ends. Its gravity W acts through the two rollers on... On the toothless areas of the first and eighth rings of the elastic gear ring at point a, the gravity line passes through the axis of the roller assembly K and the teeth of the new power gear at point b. These two gears mesh with the third and sixth rings of the elastic gear ring at point a. Because the gravity W of the assembly D is transmitted to point b through the elastic gear ring between points a and b, under the action of gravity W, this section of the gear ring between the roller assembly K and the new power gear assembly B can bend inward (to the left), forming a concave arc. The radius of this arc is equal to the radius of the short arc of the fourth and fifth rings of the fan-shaped annular teeth. Furthermore, because the second and seventh rings of the elastic gear ring mesh with the teeth of the new power gear at point b, the common tangent of their pitch circles coincides with the gravity line of the gravity W of the assembly D. Therefore, under ideal conditions, the force F... b The magnitude is equal to the gravity W.

[0014] Regarding the support force of the outer teeth of the concave part of the elastic gear ring on gravity W, the closer the short arc radius of the special outer teeth of the fourth and fifth fan rings is to the radius of the tooth root circle, the smaller the curvature of the concave part of the elastic gear ring between points a and b will be, and the greater the support force of the outer teeth of the concave part on gravity W will be. However, the short arc radius must be smaller than the radius of the tooth root circle to ensure that the outer teeth of the concave part do not lose their support force on gravity W. It is possible to make one of the contact surfaces of two connected fan ring gear teeth have a concave part and the other has a corresponding convex part, forming a mortise and tenon structure, which will provide better support force on gravity W. The size of the total tooth height of the fan ring gear teeth will also affect the size of the support force on gravity W.

[0015] Regardless of the degree of inward curvature of the concave part, it is required that the common tangent of the second and seventh rings of external teeth at point b and the teeth of the new power gear coincides with the gravity line of the assembly D, so that the new power generated by the synthesis reaches its maximum. By adjusting the roller radius of roller group K, or adjusting the distance between roller group K and H, it is possible to meet the requirement that the common tangent coincides with the gravity line.

[0016] The requirement for the toothless areas of the first and eighth rings of the outer teeth of the elastic gear ring is that, during system operation, the two cylindrical rollers of assembly D can roll smoothly in place on these two toothless areas.

[0017] The requirements for the second and seventh rings of the external teeth of the elastic gear ring and the teeth of the new power gear are that, during system operation, the second and seventh rings of the external teeth at point b can smoothly transmit the new power F. b ·s / t is transmitted to the teeth of the new power gear at point b.

[0018] Regarding the stability issue of the device of the present invention, in addition to taking traditional technical measures to solve it, long gear shafts and roller shafts can be used to combine two or more devices of the present invention side by side. In this way, the stability of the system operation can be enhanced, and the ability to synthesize and generate new power can be increased.

[0019] When there is no power input, the left end tooth of the new power gear at point b exerts a force F on the device of the present invention. b Without support, a force equal to F needs to be suspended from the right end tooth of the new power gear. b And equal to F b A heavy object to provide resistance to the force F b The supporting force keeps the elastic gear ring assembly stationary.

[0020] When the system is running, the power N1 input to the driving gear set S pushes the teeth of the elastic gear ring at point a horizontally to the right through the gear teeth of the combined body D. The power N2 input to the driving gear set A at the same speed as N1 pulls the teeth of the elastic gear ring at point b vertically downward. In this way, under the combined action of the input power N1 and N2 at the same speed, the number of teeth of the elastic gear ring between points a and b will not increase or decrease, the spatial position of the combined body D will not change, and the gravitational potential energy of the combined body D will always exist.

[0021] Under the combined action of input power N1 and N2, each gear and roller of the device of the present invention will rotate around its own axis. During the rotation, due to the force F b The power N2 input to the driving gear set A is also transmitted through the external teeth of the second and seventh rings of the elastic gear ring at point b, acting on the teeth of the new power gear. Therefore, the two forces must be added together on the external teeth of the second and seventh rings of the elastic gear ring at point b, jointly acting on the teeth of the new power gear at point b, driving the new power gear to rotate and do work. Assume that the input power N2 transmitted to the new power gear through the external teeth of the second and seventh rings of the elastic gear ring at point b during system operation is F. x·s / t (F in the formula) x (A smaller force), plus the force F transmitted to the new power gear through the external teeth of the second and seventh rings of the elastic gear ring, which are also located at point b. b Therefore, under ideal conditions, the force generated on the external teeth of the second and seventh rings of the elastic gear ring at point b would be the sum of the two forces (F). b +F x )·s / t, where F b ·s / t is the force F b The new power generated by combining the input power's velocity s / t is then transmitted to the gear teeth of the new power gear set B at point b, driving the new power gear to rotate and do work, thus becoming a sustainable new energy source. This is manifested in the fact that the gravity suspended at the right end of the new power gear is equal to F. b And equal to F b The heavy object will move upwards.

[0022] Beneficial effects of the present invention

[0023] 1. When the device of the present invention is running, the input power N1 only needs to be sufficient to push the teeth of the elastic gear ring at point a to move horizontally to the right, and the input power N2 only needs to be sufficient to destroy F. b With F b The balance of ′ is achieved by pulling the teeth of the elastic gear ring at point b downwards in a vertical direction. Since both input forces are very small, the new power generated is much greater than the input forces N1 and N2 consumed.

[0024] 2. When the device of the present invention is running, it can continuously generate force F. b The new power F generated by combining the speed s / t of the input power with the speed of the input power b •s / t, and is not restricted by any time or place.

[0025] 3. The new power F generated by the device of the present invention b The velocity s / t is not the free-fall velocity of the object, but rather the velocity of the input forces N1 and N2. Therefore, the new force F b The magnitude of s / t also changes with the speed of the input power; the greater the speed, the greater the new power generated.

[0026] 4. By applying the device of this invention, the elastic force of an object, as well as the persistent force of one object on another, can be combined with the velocity of the input power to generate new power. In this way, even in space, energy capable of doing work can be generated, i.e., new power F. b ·s / t. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the present invention.

[0028] The following is combined Figure 1 The present invention will be further described in detail below with reference to specific embodiments. Detailed Implementation

[0029] Figure 1 The device shown includes: two drive gear sets A and S, a new power gear set B, a flexible gear ring C, an assembly D, and three roller sets G, H, and K.

[0030] The drive gear sets A and S have identical gears, each consisting of two spur gears fixed on the same shaft, and both have a fixed support.

[0031] The new power gear set B consists of two new power gears, identical to those in the drive gear sets A and S, fixed on the same shaft, and has a fixed support.

[0032] The elastic toothed ring C is shaftless and has no fixed support. It has appropriate elasticity and corresponding internal and external teeth. It can continuously change its shape under the action of external force. The magnitude of its elasticity depends on the elasticity of the material used and the distance between the root circles of the internal and external teeth.

[0033] The assembly D consists of two identical spur gears with larger diameters and greater weight, mounted on the same shaft, and two identical cylindrical rollers with larger diameters and greater weight. There is no fixed support. The two cylindrical rollers are positioned at both ends of the shaft and can rotate around it. The two spur gears are fixed to the shaft inside the two cylindrical rollers. The fixing position must ensure that these two gears can mesh with the appropriate two rings of external teeth in the special external teeth of the elastic gear ring. The radius of the cylindrical rollers is slightly larger than the radius of the pitch circle of the spur gears, so as not to affect the meshing of the two spur gears with other gears.

[0034] The roller groups G, H, and K have identical rollers, with two cylindrical rollers fixed at both ends of the shaft. Roller group G has a fixed support, while roller groups H and K do not.

[0035] The portion of the outer teeth of the elastic gear ring C above the root circle is divided into eight conjoined rings of special teeth with different shapes and purposes. Counting from one side of the tooth width, the first and eighth rings are toothless areas, with nothing above the root circle. The radius of the root circle is equal to the radius of the cylindrical rollers of roller sets G, H, and K, plus the full height of the inner teeth, plus the distance between the root circles of the inner and outer teeth of the elastic gear ring C. When the system is running, the two cylindrical rollers of assembly D roll in place on these two toothless rings. The second and seventh rings of teeth can mesh with the gears of the new power gear set B; the third and sixth rings of teeth can mesh with the combined... The gears of body D and the driving gear set A mesh; the fourth and fifth rings of gear teeth are non-meshing sector ring special gear teeth. The end face of the portion from the pitch circle to the tooth tip circle is a sector ring with a short arc on top. The radius of the short arc of the sector ring is smaller than the radius of the tooth root circle. The requirement for the arc length of the long and short arcs is that, under the action of an external force, any segment of the gear ring can be connected one by one to form a long concave sector ring. The function of these two special gear teeth is to allow the outer teeth of the elastic gear ring C located between the roller set K and the new power gear set B to generate a supporting force for the gravity W of the combined body D.

[0036] The internal teeth of the elastic gear ring C are non-meshing fan-shaped special gear teeth. The end face of the portion from the pitch circle to the tooth tip circle is a fan-shaped ring with a short arc on top. The radius of the short arc of the fan-shaped ring is equal to the radius of the rollers of the roller group G, H, and K. The requirement for the arc length of the long and short arcs is that, under the action of external force, any segment of the gear ring can be connected one by one to form a long fan-shaped ring. When the system is running, the rollers of the roller group G, H, and K roll in place on the short arc of the fan-shaped special gear teeth.

[0037] To improve the compressive strength of the elastic gear ring C, a portion of the tooth width of its first and eighth rings of special external teeth and their corresponding special internal teeth can be removed, leaving the shape and function of the remaining six rings of special external teeth unchanged. The special internal teeth of the elastic gear ring C are simply narrowed, while their shape and function remain the same. Assembly D retains only two large-diameter spur gears fixed on the same shaft, with their gravity acting on the original third and sixth rings of external teeth.

[0038] Roller assembly G, H, K, and elastic gear ring C can form a triangular elastic gear ring assembly. Through the concave section of the gear ring on the right side of the assembly, the weight W of assembly D can be transferred to the outer teeth of the elastic gear ring at point b, generating a force F on the teeth of the new power gear. b Under the combined action of input power N1 and N2, each tooth of the elastic gear ring C will continuously move clockwise around the support mechanism composed of roller assembly G, H, and K. During the movement, the force F exerted by the outer tooth of the elastic gear ring C at point b on the teeth of the new power gear is... bThe speed s / t of the input power N2 is continuously synthesized with the speed of the input power N2 on the outer teeth of the elastic gear ring C at point b to generate a new power F. b ·s / t, then the external teeth of the second and seventh rings at point b are transmitted to the teeth of the new power gear at point b, driving the new power gear to rotate and do work, thus becoming a sustainable new energy source that is free from the limitations of time and space.

[0039] The energy that can do work generated by the device of this invention, namely the new power F b ·s / t is not generated out of thin air, but is produced by the force F during system operation. b The velocity s / t of the input power N2 is synthesized on the outer teeth of the elastic gear ring C at point b, and then transmitted to the new power gear set B to do work. This conforms to the law of conservation of energy, which states that "energy cannot be created or destroyed; it can only be transformed from one form to another, or transferred from one object to another, while the total amount of energy remains constant." New power F b ·s / t is a newly created entity.

Claims

1. A device for synthesizing new energy sources, characterized in that: The device includes: two drive gear sets (A, S), a new power gear set (B), a flexible gear (C), a combination body (D), and three roller sets (G, H, K); The drive gear sets (A and S) have identical gears, each consisting of two spur gears fixed on the same shaft, and both have a fixed support. The new power gear set (B) consists of two new power gears fixed on the same shaft, which are the same as the gears in the drive gear set (A, S), and has a fixed support. The elastic toothed ring (C) is shaftless and has no fixed support. It has appropriate elasticity and corresponding internal and external teeth. It can continuously change its shape under the action of external force. The magnitude of its elasticity depends on the elasticity of the material used and the distance between the root circles of the internal and external teeth. The assembly (D) consists of two identical spur gears with larger diameters and greater weight, and two identical cylindrical rollers with larger diameters and greater weight, all mounted on the same shaft. It has no fixed support. The two cylindrical rollers are positioned at both ends of the shaft and can rotate around it. The two spur gears are fixed to the shaft inside the two cylindrical rollers. The fixing position must ensure that these two gears can mesh with the appropriate two rings of external teeth in the special external teeth of the elastic gear ring. The radius of the cylindrical rollers is slightly larger than the pitch circle radius of the spur gears, so as not to affect the meshing of the two spur gears with other gears. The roller groups (G, H, K) have identical rollers, with two cylindrical rollers fixed at both ends of the shaft. Roller group (G) has a fixed support, while roller groups (H, K) do not have a fixed support. The portion of the outer teeth of the elastic gear ring (C) above the root circle is divided into eight conjoined rings of special teeth with different shapes and purposes. Counting from one side of the tooth width, the first and eighth rings are toothless areas, with nothing above the root circle. The radius of the root circle is equal to the radius of the cylindrical rollers of the roller set (G, H, K), plus the total height of the inner teeth, plus the distance between the root circles of the inner and outer teeth of the elastic gear ring (C). When the system is running, the two cylindrical rollers of the assembly (D) roll in place on these two toothless rings; the second and seventh rings of teeth can mesh with the gears of the new power gear set (B); the third and sixth rings of teeth... It can mesh with the gears of the assembly (D) and the drive gear set (A); the fourth and fifth rings of gear teeth are non-meshing fan-shaped special gear teeth. The end face of the portion from the pitch circle to the tooth tip circle is a fan-shaped ring with a short arc on top. The radius of the short arc is smaller than the radius of the tooth root circle. The requirement for the arc length of the long and short arcs is that, under the action of external force, any segment of the gear ring can be connected one by one to form a long concave fan-shaped ring. The function of these two special gear teeth is to enable the outer teeth of the elastic gear ring C located between the roller set K and the new power gear set B to generate a supporting force for the gravity W of the assembly D. The internal teeth of the elastic gear ring (C) are non-meshing fan-shaped special gear teeth. The end face of the portion from the pitch circle to the tooth tip circle is a fan-shaped ring with a short arc on top. The radius of the short arc is equal to the radius of the rollers in the roller group (G, H, K). The requirement for the arc length of the long and short arcs is that, under the action of external force, any segment of the gear ring can be connected one by one to form a long fan-shaped ring. When the system is running, the rollers in the roller group (G, H, K) roll in place on the short arc of the fan-shaped special gear teeth.

2. The apparatus according to claim 1, characterized in that: The elastic gear ring (C) consists of six conjoined special external teeth of different shapes and uses above the root circle of the external teeth. The assembly (D) is composed of two spur gears with larger diameters and greater weight, which are fixed on the same shaft.

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