Reciprocating rotation series one-way bearing with same rotation

Abstract

The invention relates to a reciprocating rotation series one-way bearing with the same rotation in the field of bearings, in particular to a one-way bearing with the function of a reciprocating rotation device. According to the main technical scheme, two unilateral bearing inner rings and two unilateral bearing outer rings which rotate in the same or different modes are used for designing and manufacturing combined accessories of different shapes respectively, the combined accessories can rotate in the opposite directions through reciprocating motion, and outer reciprocating and inner rotation, inner reciprocating and outer rotation or reciprocating pushing of other equipment to rotate is formed. And the one-way bearing is endowed with different reciprocation to form a new function of rotating in one direction. The device is mainly used in mechanical vibration, operation of motor vehicles, airplanes and trains such as new energy automobiles, and operation of steamships and ships, reciprocating is changed into continuous rotation towards one direction through seawater wave vibration and periodically-changing driving force existing between media, and mechanical reciprocating motion in a vibration mode is used for driving a generator to move or generating power.

Description

1. Technical field

[0001] The invention relates to a series of one-way bearings with the same rotation and reciprocating rotation in the field of bearings, which is a single bearing with the function of a reciprocating motion rotating device. 2. Background Technology

[0002] Since they are all fixed and installed in parallel on one axis, two one-way rotating devices with the same rotation are installed, gears are installed on the periphery of the one-way rotating device, and the gears on the two opposite sides are meshed with reciprocating rotating devices through racks; or ball pits are set on the periphery of the one-way rotating device, and two relatively exposed half balls are placed in the rifling grooves in opposite directions by making two rifling grooves in the steel pipe. The steel pipe is used to make reciprocating motion, which pushes the balls to run in the rifling grooves, giving the one-way rotating device a reciprocating rotation function; and the inner ring of the one-way rotating device is set as an inner square hole, and a piece of twisted steel spoiler sheet 4 is provided with opposite threads on both sides, and they slide through the two oppositely rotating inner square holes of the one-way rotating device and reciprocate at the same time, pushing the twisted steel spoiler sheet to reciprocate and rotate, driving the shaft head to rotate. During reciprocating motion, one set of one-way rotating devices idles while the other set of one-way bearings drives the shaft to rotate. There is always one set of one-way bearings driving the shaft to rotate during reciprocating motion. Energy can be used for both reciprocating motions to make the shaft rotate continuously in one direction. These are all achieved by separately installing two one-way rotating devices with the same rotation, and then setting gears, ball pits, or inner square holes on the outside. Reciprocating rotation can only be achieved through the operation of external equipment. Since two one-way rotating devices with the same rotation need to be installed and used separately, and gears, ball pits, or inner square holes need to be installed on the periphery of the one-way rotating devices, it is relatively troublesome because the one-way rotating devices are high in hardness and setting the above process is very difficult. The present invention relates to a series of reciprocating one-way bearings with the same rotation in the field of bearings. The functions of the above-mentioned one-way rotating device are concentrated on an integrated bearing by utilizing such a bearing method. That is, the structure of the one-way bearing is changed directly from the design and manufacture of an integrated one-way bearing. The outer gear, ball pit, inner square hole, outer propeller, inner square hole outer gear (groove wheel) with a frame and other reciprocating bearings of two one-way bearings with the same rotation are utilized as a whole, which is easy to install and use, convenient and efficient, and has a high utilization rate. 3. Summary of the invention

[0003] like Figure 1 、 Figure 2As shown, the same-rotation external gear one-way bearing comprises an inner ring 1, a center connection distance 2, an outer ring 3, a retainer 4, a sealing ring 5, balls 6, and an outer ring gear 7. The two same-rotation one-way bearing inner rings are designed and manufactured as a whole, and the center connection distance 2 is extended. The outer ring 3, retainer 4, sealing ring 6, and balls 6 are manufactured separately and relatively independently according to existing bearing technology. The outer rings of the one-way bearings are directly designed and manufactured as an integral outer ring gear 7, and the resultant outer ring gear one-way bearing is formed. Alternatively, a separate outer ring gear one-way bearing can be designed and manufactured. In this way, two racks are set on the inner oblique opposite sides of both sides of a U-shaped bracket, and are respectively set on the opposite surfaces of the two outer ring gears 7 to match the gear teeth for reciprocating motion. When reciprocating motion occurs, one set of one-way bearings rotates freely, and the other set of one-way bearings is locked to drive the shaft to rotate. The reciprocating motion is in opposite directions, and the two one-way bearings that rotate in the same direction are locked. There is always one set of one-way bearings locked to drive the shaft to rotate. The reciprocating motion can be used to form different reciprocating motions, so that the shaft rotates continuously in one direction. At the same time, the design and production of an arc The inner concave rack 8 is staggered with an arc-shaped outer convex rack 9, and there is a certain distance between them to form a double-layer integral arc-shaped inner and outer convex and concave rack semi-ring. A connecting rod 10 is provided at the back, which reciprocates around the fulcrum shaft 11 on the bracket, and the vertical center position is connected to the generator 12 shaft head on the bracket. The two gears of the installed outer gear one-way bearing 13 are engaged in opposite directions on the front and rear sides. By adjusting the position of the fulcrum shaft 11, the driving wheel gear is enlarged and reduced, and the rotation speed is adjusted. When the connecting rod 10 is connected When the vibration source is connected and the reciprocating motion is performed simultaneously, the arc-shaped inwardly concave rack 8 pushes the one-way bearing to rotate freely, and the arc-shaped outwardly convex rack 9 pushes the one-way bearing to lock and drive the shaft to rotate. The reciprocating motion directions are opposite, and the two one-way bearings that rotate in the same direction are locked. There is always a set of one-way bearings locked to drive the shaft to rotate. The reciprocating motion can be used to form different reciprocating motions and rotate in one direction. A flywheel 14 is installed on the outer shaft head of the generator 12 to compensate and make the shaft rotate continuously in one direction to generate electricity, forming an integrated one-way rotating bearing; the main use is in mechanical vibration, motor vehicles, airplanes, train operations and ships using the reciprocating motion of sea waves. There is a periodically changing driving force between the media to make different reciprocating motions through a connecting rod 10 to make a hole, use a bracket shaft to pass through the hole at one end, and the other end is connected to the wheel axle of the motor vehicle by screws to form vibration. The generator 12 on the bracket is fixedly installed under the frame of the motor vehicle. Due to the continuous reciprocating motion of the suspension system, the different reciprocating motions are converted into continuous rotation in one direction through the rotating bearing to generate electricity;

[0004] like Figure 3As shown, the same-rotation outer pit one-way bearing comprises an inner ring 1, a center connection distance 2, an outer ring 3, a retainer 4, a sealing ring 5, balls 6, and a ball pit 7. The inner rings 1 of two same-rotation one-way bearings are designed and manufactured as a whole, and the center connection distance 2 is extended, so that the outer ring 3, retainer 4, sealing ring 5, and balls 6 are manufactured separately and remain relatively independent. The middle positions of the opposing surfaces of each one-way bearing outer ring are directly designed and manufactured as two ball pits 7, which can accommodate half of the ball 6 and expose half of the ball 6. The two one-way bearings are relatively exposed with half of the ball 6, and are combined to form the same-rotation outer pit one-way bearing. A separate outer pit one-way bearing can also be designed and manufactured. A steel tube with an inner diameter that can tightly accommodate the outer diameter of a one-way bearing and slide inside is used. Two grooves in opposite directions are then made inside the steel tube. The relatively exposed halves of the two one-way bearings are installed in the grooves in the grooves in the steel tube. The rotation of the steel tube is fixed and connected to a vibration source, so that the steel tube performs reciprocating motion, pushing the balls to run in the grooves, giving the one-way bearings the ability to rotate and driving the shaft head to rotate. During the reciprocating motion, one set of one-way bearings rotates idly while the other set of one-way bearings drives the shaft head to rotate. During the reciprocating motion, there is always one set of one-way bearings driving the shaft head to rotate. Energy can be used for both reciprocating motions, so that the shaft head rotates continuously in one direction.

[0005] like Figure 4 、 Figure 5As shown, the inner square hole one-way bearing comprises a rectangular inner square hole 1, an outer ring 2, a screw nut 3, a twisted steel spoiler 4, a steel bar 5, and a shaft head 6. The inner ring of the one-way bearing is directly provided with a rectangular inner square hole 1, and the opposite surface of the outer ring 2 of the one-way bearing is designed and manufactured as a whole to be installed and fixed with a screw nut 3. The retainer, sealing ring, and ball bearing are designed, manufactured, and installed according to the existing technology. At the same time, a section of steel bar 5 is used to fix the outer rings 2 of the two oppositely rotating inner square hole one-way bearings with screws through the screw nut 3, so that the two inner square hole one-way bearings are kept at a certain distance. One end of the steel bar 5 is connected to the vibration source, and a section of twisted steel spoiler 4 is provided with opposite threads on both sides, and slides through the inner square holes 1 of the two oppositely rotating inner square hole one-way bearings respectively. The steel bar 5 drives the two oppositely rotating inner square hole one-way bearings to reciprocate at the same time, pushing the twisted steel spoiler to reciprocate. The twisted steel spoiler piece 4 is connected to the shaft head 6 at one end by welding or through a coupling to drive the shaft head 6 to rotate. During reciprocating motion, one inner square hole one-way bearing is idling, and the other inner square hole one-way bearing is locked to drive the shaft head to rotate. There is always one set of one-way bearings to drive the shaft head to rotate during reciprocating motion, and both reciprocating motions can be used to make the shaft head rotate continuously in one direction. When a section of the twisted steel spoiler piece 4 is fixed and connected to the vibration source for reciprocating motion, the inner rings of the two oppositely rotating inner square hole one-way bearings can be locked back and forth respectively, pushing the outer rings to rotate continuously in one direction at the same time. The outer rings can be used to rotate separately, or the two outer rings can be fixed with steel pipes at the same time to form a rotation in one direction, and the rotation function can be transmitted through gears or pulleys.

[0006] like Figure 6 As shown, the same-rotation external propeller one-way bearing comprises an inner ring 1, a center connection distance 2, an outer ring 3, a retainer 4, a sealing ring 5, a ball 6, and a propeller 7. The inner rings of the two same-rotation one-way bearings are designed and manufactured as a whole, and the center connection distance 2 is extended. The outer ring 3, retainer 4, sealing ring 5, and ball 6 are manufactured separately and remain relatively independent. Each one-way bearing outer ring is directly designed and manufactured as an integrated propeller 7. One set of propellers 7 is installed in the normal direction, and the other set of propellers 7 is installed in the reverse direction. The two sets of propellers 7 are combined to form the same-rotation external propeller one-way bearings. Alternatively, separate external propeller one-way bearings can be designed and manufactured. It is installed in a tube with one end sealed and the other end sealed, allowing the shaft to reciprocate and rotate. A hollow slider is installed at the shaft head inside the tube, and a spring is installed in front of the slider. Liquid is added to the tube to fix the tube's rotation, causing the tube to reciprocate, driving the propeller to rotate. When the shaft head rotates, one set of single-direction rotating devices rotates freely, while the other set of single-direction rotating devices is locked and drives the shaft to rotate. The reciprocating motion is opposite, causing the shaft to rotate continuously in one direction. A special feature of this device is that it can be installed with four, six, eight, or more sets of single-direction rotating devices and propellers with the same rotation, forming a combined force, which is easy to promote and use.

[0007] like Figure 7As shown in the figure, the same rotating internal square-hole external gear (grooved pulley) belt-mounted one-way bearing consists of an inner ring 1, an internal square-hole area 2, an outer ring 3, ④ ball bearings 4, a cage 5, a sealing ring 6, extended shafts 7 on both sides of the inner ring, an outer peripheral gear (grooved pulley) 8, a "C"-shaped fixing bracket 9, and fixing screws 10. The inner rings 1 of the two one-way bearings with the same rotating direction are designed and manufactured to be relatively independent. The two sides of the two inner rings 1 are extended respectively and protrude from both sides of the outer ring, which can be used as shafts, simply referred to as extended shafts 7 on both sides of the inner ring. The inner diameters of the extended parts of the extended shafts on both sides of the two one-way bearing inner rings 1 are directly designed and manufactured into a rectangular square hole (internal square-hole area) 2. The central circular hole of the non-extended part of the inner ring 2 is the same as that of other one-way bearing inner rings. The cage 5, the sealing ring 6, and the ball bearings 4 are designed and manufactured and installed simultaneously with the two one-way bearing inner rings 1. The two one-way bearing outer rings 3 are designed and manufactured as a whole and made into a transmission device, which can be designed and manufactured as an outer peripheral gear 8 or can be designed and manufactured as an outer peripheral grooved pulley 8. In this way, it can drive other devices to rotate or provide rotational power to a generator by using gears, belts, etc. The inside of the outer ring 3 and the cage 5, the sealing ring 6, and the ball bearings 4 are designed and manufactured to correspond to each other, and they are combined into the same rotating internal square-hole external gear or grooved pulley one-way bearing. It can also be designed and manufactured as a single internal square-hole external gear (grooved pulley) one-way bearing. A "C"-shaped fixing bracket 9 is made, with holes drilled on the upper and lower sides for installing the extended shafts on both sides of the inner ring that protrude from both sides of the single internal square-hole external gear one-way bearing and are used as shafts. Holes are drilled on the side, and the "C"-shaped fixing bracket 9 can be installed in a stable place with fixing screws. At the same time, when needed, the outer ring gear (grooved pulley) 8 of the one-way bearing can be fixed. The fixing screws 10 can be fixed bidirectionally as required. When the internal square-hole external gear one-way bearing is installed in the holes drilled on the upper and lower sides inside the "C"-shaped fixing bracket 9, it is ensured that the internal square-hole external gear (grooved pulley) 8 one-way bearing can rotate flexibly inside the "C"-shaped fixing bracket 9. When fixing the twist drill steel spoiler plate and connecting the vibration source to make the twist drill steel spoiler plate slide through the internal square hole (internal square-hole area) 2 of the one-way bearing, just like a key inserted into a keyhole and making a reciprocating motion, it can push the outer ring gear of the one-way bearing to rotate inside the "C"-shaped fixing bracket 9 and drive other devices to rotate. When a section of twist drill steel spoiler plate forms relative spiral threads respectively from both sides of the center, and then two same rotating internal square-hole external gear (grooved pulley) belt-mounted one-way bearings with opposite rotations are respectively corresponding to a section of twist drill steel spoiler plate that forms relative spiral threads respectively from both sides of the center. When making a reciprocating motion, one set of one-way shafts rotates freely, and the other set of one-way bearings is locked to drive the shaft head to rotate, so that the outer ring gear (grooved pulley) 8 of the one-way bearing rotates continuously in one direction;When fixing the outer ring gear (grooved pulley) 8 of the one-way bearing and installing the "C"-shaped fixing bracket 9 on the vibration source to make a reciprocating motion, the twist drill steel spoiler slides through the inner square hole of the one-way bearing, so as to drive the twist drill steel spoiler to rotate, and then drive the shaft head to rotate. When making a reciprocating motion, one group of one-way shafts rotate idly, and the other group of one-way bearings drive the shaft head to rotate. There is always one group of one-way bearings driving the shaft head to rotate during the reciprocating motion. All the energy available during the reciprocating motion enables the twist drill steel spoiler to push the shaft head to continuously rotate in one direction. In this way, according to needs, the twist drill steel spoiler can be fixed to make a reciprocating motion, pushing the outer ring gear (grooved pulley) 8 of the one-way bearing to rotate within the "C"-shaped fixing bracket 9. It is also possible to install the "C"-shaped fixing bracket 9 on the vibration source to make a reciprocating motion, pushing the twist drill steel spoiler to rotate and driving the shaft head to rotate, forming a double-direction reciprocating rotating bearing where fixing either side can make the other side rotate;

[0008] Such as Figure 8 , Figure 9As shown, the same rotating inner reciprocating shaft sleeve synchronous gear external rotary transmission one-way bearing consists of an inner ring 1, an extended shaft 2, an outer ring 3, a side gear 4, a retaining frame 5, a sealing ring 6, a ball 7, a round steel sheet outer ring shaft 8, a screw hole 9, an inner ring with a shaft 10, an inner ring with an inner diameter 11, a synchronous gear 12, two end shafts 13, and a sleeve 14. The two inner rings 1 of the one-way bearings that rotate in the same direction are designed and manufactured to be relatively independent. An extended shaft 2 (with a shaft inner ring) 10 is directly designed and manufactured inside the inner ring 1 of the one-way bearing. One end of the shaft is flush with one side of the inner ring 1 of the one-way bearing. The other end of the shaft can be extended by continuing to extend the shaft 2 to the outside through the inner diameter of the inner ring 1 of the other one-way bearing to form a shaft head that can rotate freely (inner diameter inner ring 11); a shaft sleeve 14 is installed on the intermediate shaft at the relative center position between the one-way bearing inner ring 1 and the extended shaft 2 after the inner diameter, which can rotate freely on the shaft. Two corresponding shafts (two-end shafts) 13 are welded outwardly on the surface of the vertical sleeve by dividing the circle into two parts. The shaft head has a step, and two synchronous gears 12 are installed on the shafts with steps at both ends. The slots made in the shaft head can be sealed with spring cards, or four corresponding shafts can be welded by dividing the circle into four parts to install four synchronous gears 12 respectively. After the shaft 2 passes through the inner diameter inner ring 11, gears are designed and manufactured on the edges of the opposite surfaces of the one-way bearing inner ring 1, and the two synchronous gears 12 installed on the two end shafts are matched and can rotate synchronously and freely. The side gears 4, when the extended shaft 2 rotates, the shaft inner ring 10 rotates forward through the synchronous gear to make the inner diameter inner ring 11 reverse, and they rotate synchronously, which just fits the opposite direction of the reciprocating motion, forming synchronous rotation in opposite directions, and can reciprocate at the same time. One is locked to drive the outer ring shaft to rotate, and the other can rotate freely. The reciprocating motion forms the outer ring shaft to rotate in one direction; the extended shaft head can be installed with sheaves, gears and other equipment as needed (shaft with mounting groove), or it can be directly installed with a coupling; the two one-way bearing outer rings 3 are designed and manufactured as a whole, so that the retainer 5, sealing ring 6, and ball 7 are designed and manufactured separately and installed on the two relatively independent one-way bearing inner rings 1;On the edge of the outer ring behind the inner ring 10 with a shaft, three holes are designed and made vertically and tapped to become screw holes. A round steel sheet with the same diameter as the outer ring is made, and three holes are made like the outer ring, which can be fixed to the edge of the outer ring with screws. A groove is made in the center position of one side of the round steel sheet that rotates close to the inner ring without affecting the rotation. A shaft (shaft with mounting groove) is welded and installed in the center position of the other side of the round steel sheet. It is also possible to directly design and make a round steel sheet outer ring shaft and a round steel sheet outer ring shaft 8 with a mounting groove, or directly fix it with a coupling and connect it to a fixed generator or a generator that needs to rotate. On power equipment, by extending the shaft 2 and utilizing the mechanical reciprocating motion in the form of vibration, the inner ring 10 with the shaft rotates forward and the inner ring 11 with the inner diameter rotates in the reverse direction through the synchronous gear to rotate synchronously. The two inner rings are locked and push the outer ring to rotate in one direction to form the outer ring shaft to rotate in one direction, in order to drive the generator to move or generate rotational power, thus forming a group and forming the same rotating inner reciprocating shaft sleeve synchronous gear outer rotation transmission one-way bearing; for new energy vehicles and other motor vehicles, it is installed under the frame and above the axle or on a steel plate fixing frame, and the vibration is utilized between the frame and the axle. The receiver and rack (with bracket) fully receive the reciprocating vibration of the suspension system axle. Multiple sets of identical rotating shaft sleeves are installed above each axle. The reciprocating synchronous gears on the outer rotating transmission one-way bearing drive the generator to generate electricity to charge the battery, thereby improving the endurance of new energy vehicles. When the shaft is extended to install the gear, only one rack is used to make the gear reciprocate. In addition, a vibration bracket is made. The lower end is fixed to the vibration source with screws and installed as above in the energy vehicle. The rack is welded to one end of the bracket facing the back of the gear. The gear and rack match. When making reciprocating motion, The rack drags the gear back and forth to rotate, and the rack pushes and pulls the gear on the extended shaft back and forth to make the shaft rotate back and forth; when doing reciprocating motion, the two inner rings are locked and push the outer ring to rotate in one direction. When doing reciprocating motion, one group of the two inner rings rotates freely, and the other group is locked to drive the outer ring to rotate. The reciprocating motion is in opposite directions. The two identical rotating one-way bearings are locked in the same direction. In the reciprocating motion, there is always one group locked to drive the outer ring and the outer ring shaft to rotate, and the other group rotates freely. The reciprocating motion can be used. The reciprocating motion keeps the outer ring and the outer ring shaft rotating continuously in one direction; such as; Figure 8As shown, when the extended shaft is installed with a groove wheel, it is only necessary to use a wire rope to wrap 1-2 circles around the groove wheel installed on the extended shaft to make a reciprocating motion. At this time, another vibration receiver is made, which consists of a vibration source pull rod 3 and a force pull rod 4. The force pull rod 4 is shaped like a "T". The upper horizontal side is a fixed frame, which consists of an upper rod inner pulley 5, an upper rod belt pulley 6, and a lower rod inner pulley 7. It is fixed in a stable place opposite to the vibration source, such as under the frame of a new energy vehicle. The lower vertical side is composed of an upper rod inner pulley. The upper rod inner pulley is a square window opened vertically on both sides of the upper rod head under the upper horizontal side as a fixed frame. Both sides are transparent, and a hole is drilled through the center of the square window on the front of the upper rod head to the back Surface, install the shaft, install the pulley in the square opening through the shaft, pass the wire rope at one end of any pulley E2 through the square window and slide on the pulley inside the upper rod, the upper rod frame pulley is installed vertically on the upper rod with the frame pulley just below the square window of the pulley inside the upper rod, and the wire rope can be installed by passing 1-2 circles around the reserved wire rope at both ends or on the left or right when installing the groove wheel according to the extension shaft, and the wire rope slides on the pulley; the pulley inside the lower rod is slotted in the lower rod head of the stressed pull rod, and a slot is opened vertically on both sides of the lower rod head, and the three sides are transparent. A hole is drilled from the center of the slot on the front of the lower rod head to the back, and the pulley is installed in the slot through the installation shaft. The pulley is larger than the lower rod head of the stressed pull rod. When passing through any pulley E1 When the wire rope slides on the pulley from the left and right sides, it must not rub against the two sides of the force-bearing pull rod; the vibration source pull rod looks like the number "1", and the horizontal line at the bottom is a fixed frame, which can be fixed on the vibration source 9. For example, the vibration source pull rod is fixedly installed above the axle of a new energy vehicle or on a steel plate fixed frame, and the vertical line at the top is a pull rod, and the rod head has a rod head screw 8 with a fixing screw or a screw hole, which is used to fix the two ends E1 and E2 of the wire rope passing around the groove wheel to form a closed loop; when the vibration source pull rod is pulled up and down, the force-bearing pull rod causes the entire wire rope to form a reciprocating motion, and the vibration source pull rod and the force-bearing pull rod interact with the wire rope and are referred to as vibrators, and the reciprocating motion causes the extension of the wire rope passing around the groove wheel. The long shaft sheave reciprocates, and the inner ring of the belt shaft rotates forward, which in turn causes the inner ring of the inner diameter to rotate in the opposite direction through the synchronous gear, thus forming separate rotations. One can rotate freely, while the other is locked, driving the outer ring shaft to rotate. Because the locking directions are consistent and the reciprocating directions are opposite, the reciprocating motion causes the outer ring shaft to rotate in the locked direction, forming the outer ring shaft to rotate in one direction. The continuous reciprocating motion can continuously rotate in the locked direction. The characteristic is that the wire rope is pulled back and forth by the vibration of the vibration source pull rod and the support of the force-bearing pull rod. It can be connected, connected, and changed in direction with any number of pulleys E1, E2, E3, E4..., without being affected by the vibration amplitude and the distance from the vibration source.

[0009] like Figure 10 、 Figure 11As shown, the outer reciprocating inner rotating one-way bearing is composed of an inner ring 1, an extended shaft 2, an outer ring 3, a side gear 4, a retainer 5, a sealing ring 6, a roller 7, a round steel sheet shaft 8, a screw hole 9, an outer ring 10 close to the shaft, an opposite outer ring 11, a synchronous gear 12, a two-end shaft 13, a sleeve 14, a gear with a side block 15, and a groove wheel 16; the two inner rings of the one-way bearing that rotate in the same direction are designed and manufactured as a whole and the center connection distance is extended, and the extended shaft 2 is directly designed and manufactured as an integral whole inside the inner ring of the one-way bearing. One end of the shaft is flush with one side of the one-way bearing inner ring 1, and the other end of the shaft can be extended by connecting with the inner diameter of the inner ring 1 of another one-way bearing to extend outside the inner ring to form an extended shaft 2 with two inner rings integrated. The outer ring 3, retainer 5, seal ring 6, and roller 7 are made separately to remain relatively independent and are also designed and manufactured to match the two one-way bearing outer rings 3; gear teeth (side gears) 4 are designed and manufactured on the edges of the opposite sides at the extended center connection distance between the one-way bearing outer rings 3; on the two side gears The two synchronous gears 12 are installed on the shafts with steps at the shaft head. The slots made in the shaft head can be sealed with spring cards, or four corresponding shafts can be welded in a four-division method to install four synchronous gears 12. The two synchronous gears 12 installed on the shafts at the two ends match the side gears 4 designed and manufactured on the edges of the opposite surfaces at the extended center connection distance between the outer rings 3 of the one-way bearings, and can rotate synchronously. When one outer ring rotates, the forward rotation of one outer ring causes the other outer ring 3 to reverse through the synchronous gear 12, which becomes synchronous rotation. It just matches the opposite direction of the reciprocating motion, forming synchronous rotation in opposite directions, and can reciprocate at the same time. One is locked to drive the inner ring shaft to rotate, and the other can rotate freely. The reciprocating motion causes the inner ring extended shaft to rotate in one direction.In order to clarify, the outer ring on the side close to the extended shaft is called (shaft outer ring) 10, and the outer ring opposite to the shaft outer ring is called (relative outer ring 11). The shaft outer ring 10 and the relative outer ring 11 are directly designed and manufactured as gears with side blocks 15 or grooves 16. According to the usage, they can be designed as grooved gears or groove wheels at the same time. They can also be designed as shaft outer ring 10 with side block gears 15 or relative outer ring groove wheels at the same time. They can also be designed as relative outer ring with side block gears or shaft outer ring groove wheels at the same time. The gear with side block 15 is to have two side blocks on both sides of the gear. When the rack is used to match the gear for reciprocating motion, it will not swing left and right, ensuring stability and no shaking. When the outer ring is installing the gear, only one rack is used to make the gear reciprocate. Yes, when the outer ring is installed on the groove wheel, you only need to use the wire rope to wrap around the groove wheel 1-2 times for reciprocating motion. No matter it is designed and made as a gear or a groove wheel, it can form two outer rings that rotate synchronously in opposite directions, and can also reciprocate at the same time. One is locked to drive the inner ring shaft to rotate, and the other can rotate freely. The reciprocating motion causes the inner ring shaft to rotate in one direction; you can also directly design and make 3 vertical holes on the back side of the gear relative to the outer ring and tap them into screw holes, then make a round steel plate with the same diameter as the outer ring, and punch 3 holes like the outer ring, which can be fixed to the edge of the outer ring with screws, make a groove at the center position of one side of the round steel plate that rotates close to the inner ring without affecting the rotation, and weld and install a shaft at the center position of the other side of the round steel plate. Directly design and manufacture the round steel sheet outer ring shaft and the shaft has a mounting groove (round steel sheet shaft) 8, which can be used to install slotted gears, gears, and sheaves, which has the same effect as directly designing and manufacturing the outer ring as a gear or sheave. When the slotted gears, gears, and sheaves are installed using the round steel sheet shaft 8, the rotation speed is faster than the speed of the slotted gears, gears, and sheaves installed on the outer ring of the shaft or relative to the outer ring during the same reciprocating motion, because the passive wheel is small; the mounting groove can be installed and manufactured on the extended shaft head as needed, or it can be directly fixed and connected with a coupling, and connected to a fixed generator or other equipment that requires rotational power; the mechanical reciprocating motion in the form of vibration is utilized through the outer ring, and the reciprocating motion of the slotted gears, racks, and sheaves installed on the outer ring of the shaft or relative to the outer ring is utilized , forming synchronous rotation, the outer ring of the shaft rotates forward through the synchronous gear to make the relative outer ring counter-rotate and rotate synchronously. The two outer rings are locked and push the inner ring to rotate in one direction, forming the inner ring extension shaft to rotate in one direction, in order to drive the generator to move or generate rotational power, thus forming a group and becoming an external reciprocating internal rotating one-way bearing; for new energy vehicles and other motor vehicles, the generator is fixedly installed under the frame and the rack (with bracket) above the axle or on the steel plate fixing frame, and the reciprocating vibration of the suspension system axle is fully received by the vibration receiver and the rack (with bracket) between the frame and the axle. Multiple groups of external reciprocating internal rotating one-way shafts are installed above each axle to drive the generator to generate electricity to charge the battery, thereby improving the endurance of new energy vehicles;When installing the sheave, you only need to use the wire rope to wrap around the sheave 1-2 times to make reciprocating motion. At this time, make another vibration receiver, which is composed of a vibration source pull rod and a force pull rod. The force pull rod is shaped like a "T". The upper horizontal side is a fixed frame, which is composed of an upper rod inner pulley, an upper rod belt pulley, and a lower rod inner pulley. It is fixed in a stable place opposite to the vibration source, such as under the frame of new energy vehicles. The lower vertical side is composed of an upper rod inner pulley. The upper rod inner pulley is a square window opened vertically on both sides of the upper rod head under the upper horizontal fixed frame. Both sides are transparent. Drill a hole through the center of the square window on the front of the upper rod head to the back, install the shaft, and install the pulley in the square window through the shaft. Pass the wire rope at one end of any pulley E2 through the square window and slide on the upper rod inner pulley. The upper rod belt pulley is installed on the upper rod with a frame pulley just below the square window of the pulley inside the upper rod. The wire rope can be reserved for installation at both ends or on the left or right side according to 1-2 circles when installing the groove wheel. The wire rope slides on the pulley; the pulley inside the lower rod is slotted in the lower rod head of the stressed pull rod, and a slot is opened vertically on both sides of the lower rod head. The three sides are transparent, and a hole is drilled from the center of the slot on the front of the lower rod head to the back. The pulley is installed in the groove through the installation shaft. The pulley is larger than the lower rod head of the stressed pull rod. When the wire rope passing through any pulley E1 slides on the pulley from the left and right sides, it shall not rub against the two sides of the stressed pull rod; the vibration source pull rod is shaped like the number "1", and the horizontal line below is a fixed frame, which can be fixed to the vibration source. For example, the vibration source pull rod is fixedly installed in new energy vehicles The upper part of the axle or the steel plate fixing frame is a pull rod with a fixing screw or a screw hole 9 on the rod head, which is used to fix the two ends E1 and E2 of the wire rope passing around the groove wheel to form a closed loop; when the vibration source pull rod is pulled up and down, the force pull rod causes the entire wire rope to form a reciprocating motion, and the vibration source pull rod and the force pull rod interact with each other through the wire rope, which is referred to as a vibrator. The reciprocating motion causes the reciprocating motion of the wire rope passing around the groove wheel, causing one outer ring to rotate forward and the other outer ring to rotate backward through the synchronous gear, thus forming separate rotations. One outer ring can then rotate freely, and the other outer ring is locked to drive the inner ring integrated shaft to rotate. Because the locking direction is consistent and the reciprocating motion direction is opposite, the reciprocating motion causes the inner ring integrated shaft to rotate in the locking direction, forming an inner ring. The body axis rotates in one direction, and the inner ring integrated shaft can rotate continuously in one direction of the lock by continuous reciprocating motion. The characteristic is that the wire rope is pulled back and forth by the vibration of the vibration source pull rod and the support of the force pull rod. It can be connected, connected and changed in direction with countless pulleys E1, E2, E3, E4..., which are not affected by the vibration amplitude and the distance from the vibration source. When installing the gear, only one rack is used to make the gear reciprocate. In addition, a vibration bracket is made, and the lower end is fixed to the vibration source with screws. The rack is welded to one end of the bracket facing the back of the gear. The gear and rack match. When reciprocating motion is performed, the rack drags the gear back and forth to rotate, and the rack pushes and pulls the gear on the outer ring or round steel sheet shaft to make it rotate back and forth.When doing reciprocating motion, the two outer rings are locked to push the inner ring to rotate in one direction. When doing reciprocating motion, one group of the two outer rings rotates freely, and the other group is locked to drive the inner ring to rotate. The reciprocating motion is in the opposite direction. In the reciprocating motion, there is always one group locked to drive the inner ring and the inner ring integrated shaft to rotate, and the other group rotates freely. The reciprocating motion can be used to make the inner ring integrated shaft rotate continuously in one direction.

[0010] like Figure 12 、 Figure 13 、 Figure 14As shown, the outer ring three-sided gear inner sleeve ten-star gear reciprocating rotation combined application single bearing is to use an independent single bearing outer ring on both sides of the design and production of gears collectively referred to as two-side gears, the outer periphery of the single bearing is respectively designed as a peripheral gear or a peripheral groove wheel, forming an external gear single bearing, an external groove wheel single bearing, the two-side gears and the peripheral gear can be designed and produced into various tooth shapes such as helical gears, spur gears, bevel gears, arc gears, spiral gears, herringbone gears, etc. as needed, the outer groove wheel can be produced into various groove shapes such as groove, V-shape, H-shape, U-arc shape, etc. as needed, suitable for various wheels, teeth, easy to combine and install; The inner ring of a single bearing is designed to have a larger diameter and used as a sleeve. When installed on the same shaft, the sleeve can rotate freely. Four vertical corresponding shaft heads are welded on the periphery of the sleeve circle according to the 4-division method of the circle. A cross-shaped shaft head with a convex top step is provided. Four identical synchronous gears are installed on the shaft heads. The cross-shaped shaft heads are respectively made into slots and sealed with spring cards. The synchronous gears can be made into gear teeth of corresponding sizes according to the position and selection of the gears on both sides to mesh with each other. When in use, the two sides of the sleeve should not be larger than the diameter of the synchronous gear and shall not rub against the two sides installed between the two inner rings of the single bearings. Since one outer ring rotates on the synchronous gear Under the action of the , one outer ring rotates forward, and the other outer ring rotates counterclockwise to form separate rotations. The reciprocating motion is in the opposite direction, so that the inner ring of the single bearing drives the shaft to rotate in one direction of the lock, forming an inner sleeve ten-star gear. When two identical rotating external gear single bearings and outer groove wheel single bearings are used to fix the inner rings on the same generator or other shaft head through mounting grooves and bars, when the four synchronous gears are in the middle position and mesh with the gears on both sides, these three independent parts can form a shaft head combined reciprocating rotation device. When the outer peripheries of the two single bearings are designed as gears or groove wheels, the gears or groove wheels are used first. Just adjust the following single The front and rear positions on both sides of the bearing can be adjusted or gears or groove wheels can be used at the same time. The forward and reverse positions on both sides of the following single bearing can also be adjusted at the same time so that the locking direction adjustment is adjusted in the direction of rotation. If the gear on one side is worn during use, the gear on the other side can be adjusted. It is more convenient to replace the inner ring of the four synchronous gears by removing one single bearing on the side from the shaft head. In addition, the use time of four synchronous gears is longer than that of two synchronous gears. Multiple groups of the same rotation can be installed on the same shaft and connected to different reciprocating motion sources for comprehensive application. The shaft head can be easily selected for installation and replacement according to the usage situation. It is convenient and improves the utilization rate of the technology.When making a "1" type spur rack, you only need to fix the "1" type spur rack base to the vibration source with screws or welding. When the "1" type spur rack and the external gear single bearing are installed in the middle position on the same fixed motor or other shaft, they will mesh with each other to reciprocate and push the shaft head combined reciprocating rotating device to rotate, so that one outer ring rotates forward and the other outer ring is reversed through the synchronous action of the inner sleeve ten-star gear, thus forming separate rotations. One outer ring can then rotate freely, and the other outer ring is locked to drive the shaft to rotate. Because the two identically rotating single bearings are locked in the same direction, the reciprocating motion directions are opposite when they rotate separately. The reciprocating motion causes the inner ring to drive the shaft to rotate in the locked direction, forming the shaft rotating in one direction, and the reciprocating motion continues. The technology can rotate continuously in one direction of locking respectively; when making a "T"-shaped arc-shaped side rack and a "T"-shaped arc-shaped top rack, it is only necessary to punch a through hole in the middle position of the "T"-shaped handle to fix the installation shaft as the fulcrum hole of the lever, and by installing the fulcrum frame under the vehicle frame, a long strip through hole is punched between the ends of the "T"-shaped handle to give it a certain range of movement. Because the up and down movement of the end of the lever is an arc-shaped process, by making a "1"-shaped mounting frame, the base of the "1"-shaped mounting frame is fixed with screws or welding on the axle of the vehicle with suspension device under the frame or on any one suspension arm of single suspension or double suspension at an appropriate position with a large reciprocating range as a vibration source, and by utilizing the vibration of the vehicle tire to make its steel plate frame Or the shock absorber forms reciprocating motion, a slot is opened on the left and right sides of the upper end of the "1"-shaped mounting frame, a through hole is drilled vertically on both sides of the slot, and a shaft is screwed to fix it in the long strip through hole, and a "T"-shaped lever fulcrum frame is made as a fulcrum, and the upper end of the "T"-shaped lever fulcrum frame is installed under the frame with screws or welding, a slot is opened on the left and right sides of the lower rod head, a through hole is drilled vertically on both sides of the slot, and the lever fulcrum is fixed to it with a shaft screw, and the "T"-shaped arc side rack and the "T"-shaped arc top rack reciprocate through the vibration lever of the vibration source, and the "T"-shaped arc side rack, the "T"-shaped arc top rack and the external gear single bearing are selected to engage with each other according to the direction and position of the generator or other shaft head fixed under the frame. The technology of reciprocatingly pushing the shaft head combined with the reciprocating rotating device to rotate; when making a "?"-shaped arc-shaped internal rack, the rack is made inside the arc. It is only necessary to drill a through hole in the middle of the "?"-shaped arc to fix the installation shaft as the fulcrum of the lever. By installing the fulcrum frame and the vibration source under the vehicle frame according to the above method, the "?"-shaped arc-shaped internal rack and the external gear single bearing are engaged with each other and can also reciprocately push the shaft head combined reciprocating rotating device to rotate. You can also make a "?"-shaped arc-shaped top rack, which uses the outer top part of the arc to make a rack and the external gear single bearing to engage with each other and can also reciprocately push the shaft head combined reciprocating rotating device to rotate. It has the same use effect as the "?"-shaped arc-shaped internal rack, and the use technology can be selected according to actual conditions;The outer groove wheel single bearing can be connected to each other through belts, wire ropes and other pulleys, and the reciprocating motion of other pulleys drives the reciprocating pulling to rotate the shaft head combined reciprocating rotating device. It is mainly installed in off-road vehicles and ships by installing multiple groups of "A" type brackets in the front, back, left and right. The bottom of the "A" type is used as a base and is screwed or welded to the deck or the bottom plate of the vehicle. A through hole is punched in the center of the "A" type tip, and a planetary speed increaser is fixed with screws. The speed ratio range is determined according to actual conditions. A semicircular pendulum is formed at the position above the center of the semicircle welded and fixed on one side of the low-speed shaft, which can rotate and swing freely around the axis. The pulley is fixed on the high-speed shaft with a mounting groove. The reciprocating motion of off-road vehicles and ships passing through uneven roads or waves is semicircular. The swing of the "T"-shaped pendulum drives the pulley to rotate back and forth, and the outer groove wheel single bearing is pulled back and forth through the belt and wire rope connection to make the generator shaft head on the opposite side of the "A"-shaped bracket fixed in parallel on the deck and the bottom plate of the vehicle, so that the shaft head combination reciprocating rotating device rotates to generate electricity, and then the generator line head and the inverter are connected to form a semicircular pendulum power generation form. Multiple groups of "T"-shaped brackets can also be installed on the front, back, left and right of off-road vehicles and ships. The top of the "T" is used as a base and is screwed or welded to the deck or the bottom plate of the vehicle. A through hole is punched in the center of the lower bar of the "T", and a planetary speed increaser is fixed with screws. The speed ratio range is determined according to the actual situation. The generator itself is formed as a pendulum by welding and fixing the upper center side of the low-speed shaft. The generator pendulum has a pulley fixed on the high-speed shaft with a mounting groove. The swing of the generator pendulum drives the pulley to rotate back and forth. The pulley and the shaft head installed on the generator shaft head are connected with a belt and a wire rope. The outer groove wheel of the reciprocating rotating device rotates. The planetary speed increaser rotates through the swing of the generator pendulum to drive the power generation. The -pole of the wire end is used as the iron wire, and the +pole is fixed to the upper side of the shaft of the generator pendulum near the side of the "T" bracket with a piece of insulating material with glue. By installing a "Z"-shaped copper probe brush, the "Z" is fixed to the +pole wire end insulating material with screws on the bottom. An insulating material circle is fixed around the shaft of the low-speed shaft on one side of the "T" bracket with glue, and the same copper sheet circle is fixed to the insulating material circle with glue. On one side of the circle, the "Z"-shaped copper brush is exhibited on the top and frictionally connected with the copper circle. One side of the copper circle is connected to the inverter through a welding wire end to form a pendulum generator, and can also be installed into a gear at the place where the pulley is fixed on the other side of the high-speed shaft. The gear and the external gear single bearing are engaged with each other on the generator shaft head to drive the shaft head combined reciprocating rotating device to rotate through the reciprocating motion of the generator pendulum. In off-roading, ships passing through uneven roads or waves, multiple sets of connecting wire ends and inverters are installed according to the above method from left and right, front and back, and 45-degree angles to form a comprehensive power generation effect, driving the generator to rotate and generate electricity. You can also install a trapezoidal bearing with the big head on the vertical rod on the upper part of the "T"-shaped bracket, and then make another one; The bottom of the "T" bracket is shaped like a bowl. The four protruding parts are punched with holes and can be fixed with screws under the deck or the bottom plate of the vehicle. The center circle of the "T" bracket is fixedly welded and installed on the outer ring of the trapezoidal bearing to form a freely rotating axis. Since the generator pendulum has a certain eccentricity, it will automatically rotate when it swings back and forth in that direction. No matter where it is installed, it can swing back and forth from left to right, front to back, and at a 45-degree angle. Punch a center hole on the vertical rod at the top of the "T" bracket, punch an oblique opening on one side of the copper circle, pass the welded wire end through the copper circle, and pass it through the punched center hole. Fix the circular insulating material around the top of the center hole with glue, weld the + pole wire end to the bottom of a "<" shaped copper probe brush, and fix it to the circular insulating material with screws at the bottom. The "<" shaped copper probe brush has a certain elasticity and is pressed against a copper sheet on the top. The sheet is fixed to the bottom of an insulating material with screws, and the insulating material is fixed with screws or glue and installed under the deck or vehicle's bottom plate. A hole is punched in the deck or vehicle's bottom plate, and one end of the wire is welded to the copper sheet. The other end is connected to the inverter through the welding wire to form a generator circuit. An anti-collision spring with an upward tilt of 45 degrees is designed and manufactured on both sides of the generator body to avoid excessive collision with the deck or vehicle's bottom plate and to accelerate the swing. A flywheel is also installed on the generator shaft head to solve the problem of uneven and unstable waves and vibrations. The shaft head is combined with a reciprocating rotating device to rotate to generate current for the generator. Multiple generators are connected with wires and then charged through the inverter to charge the battery or directly use the technology on off-road vehicles or ships.

[0011] like Figure 15The one-way bearing shown in the figure comprises an inner ring 1, a semicircular pit 2, a round ball 3, a mounting groove 4, and an outer ring 5. The inner diameter center wall of the inner ring 1 of the one-way bearing is relative to the four opposite walls of the cross shape, and are directly designed and produced as four semicircular semicircular pits 2 parallel to the inner diameter center wall of the inner ring; each semicircular pit 2 can accommodate half of the round ball 3 and can rotate freely inside, with half of the round ball 3 exposed outside; when designing and producing the inner ring 1 of the one-way bearing with the semicircular pit 2, two or four mounting grooves 4 are set, respectively between the semicircular pits 2 or on the opposite surfaces perpendicular to the inner diameter The mounting groove 4 is arranged axially, and is chamfered and arc-shaped facing the shaft surface, which does not affect the rotation of the shaft. The mounting groove 4 can not only ventilate and dissipate heat during reciprocating motion or distribute lubricating oil on the shaft surface when using it, but also play a role in ensuring a stable and long-term installation when a fixed inner ring 1 is required. The provision of two or more mounting grooves 4 on the periphery of the outer ring 5 makes the fixation more firm and stable to meet the needs of different violent reciprocating rotations, forming a one-way bearing with a cross-shaped four-head semicircular pit relative to the inner diameter center wall of the inner ring. All accessories between the inner ring 1 and the outer ring 5 are designed and produced according to the conventional technology of existing one-way bearings.

[0012] like Figure 17 The one-way bearing with a sleeve in the shaft with the inner ring inner diameter center wall vertically protruding is shown in the figure, which includes an inner ring 1, a small shaft 2, a small sleeve 3, an outer ring 4, and a mounting groove 5. The one-way bearing directly designs and produces a small shaft 2 with a vertical protrusion of 1 / 4 of the entire inner diameter on the inner ring inner diameter center wall. The head of the small shaft 2 is set to be an arc shape. A small sleeve 3 is directly designed and produced on the small shaft, and the small sleeve can rotate freely on the small shaft. The outer sides of the two sides of the small sleeve 3 are chamfered arcs, which do not produce any more friction with the inner diameter center wall. The large friction rotates freely, and the other end forms an arc shape with the two ends of the small shaft protruding vertically inside. When designing and producing the inner ring of the one-way bearing with a sleeve in the shaft with the inner ring inner diameter center wall protruding vertically, no mounting groove is provided. The provision of two or more mounting grooves 5 on the periphery of the outer ring 4 makes the fixation more firm and stable to meet the needs of different violent reciprocating rotations, forming a one-way bearing with a sleeve in the shaft with the inner ring inner diameter center wall protruding vertically. All accessories between the inner ring 1 and the outer ring 4 are designed and produced according to the conventional technology of existing one-way bearings.

[0013] like Figure 19As shown, the one-way bearing with the same rotating outer gear edge and rack adjustment hole is designed to make the inner rings of two one-way bearings that rotate in the same way as a whole and extend the center connection distance. The inner diameter of the inner ring is designed to make a mounting groove, which is convenient for fixed installation on a generator in a stable place or a shaft that needs to rotate; the outer ring, retainer, sealing ring, and ball are made separately and remain relatively independent; the outer rings of the two one-way bearings are directly designed to be gears (outer ring gears), and the edges of the gears on the opposite sides of the two outer rings are directly designed to be protruding edges, or the edges of the two adjacent outer ring gears can be directly designed to be protruding edges, and can also be Two protruding side ridges are directly designed and manufactured on both sides of the outer ring gear. When two racks are used to make reciprocating motion on the opposite surfaces of the two gears, they do not swing left and right, and are combined into a rack rack with an outer gear side ridge that rotates in the same direction, and a rack rack with an adjustment hole and a one-way bearing. A separate rack rack with an outer gear side ridge that rotates in the same direction can also be designed and manufactured. Another rack rack is manufactured, and the open upper end of the rack rack is staggered and corresponds to the two outer rings of the gears, and the lower end is connected together like the letter "Y". The two racks are welded face to face in the rack rack at the open end of the rack rack, or a rack rack with racks is directly designed and manufactured. At the open end of the rack frame, two racks and two gear rings installed on the periphery of the one-way bearings are respectively provided with gears on the opposite surfaces to match each other, and a plurality of mounting holes are directly designed and made under the rack frame connecting rod; at the same time, a vibration source base is designed and made, and the base can be fixed to the vibration source with fixing screws. A plurality of mounting holes are also prefabricated on the base connecting rod, and a plurality of mounting holes are prefabricated under the rack frame connecting rod. The distance from the vibration source can be adjusted with fixing screws during installation; when making reciprocating motion, the rack is dragged by the gear ring at the same time through the vibration source base, connecting rod, and rack frame, so that one one-way bearing can rotate freely, and the other one-way bearing is locked to drive the shaft to rotate , the reciprocating motion is in the opposite direction, there is always a set of one-way bearings locked to drive the shaft to rotate, and the reciprocating motion can be used to make the shaft rotate continuously in one direction; the inner diameters of the inner rings of the two identically rotating one-way bearings are fixedly installed on a fixed and stably installed generator or a shaft that needs to rotate. For example, for motor vehicles such as new energy vehicles, the generator is installed under the frame or on the shaft that needs to rotate. The vibration source base is installed above the axle or on a steel plate fixing frame. Through the vibration of the vibration source, the rack rack, the rack and the outer ring gear are fully matched to receive the reciprocating motion of the suspension system axle, so as to drive the generator to move or generate rotational power;

[0014] like Figure 20 、 Figure 21As shown, the one-way bearing with an outer reciprocating sleeve synchronous gear rotating in the same direction is designed and manufactured as a whole by designing the inner rings of two one-way bearings rotating in the same direction and extending the center connection distance. An extended shaft is directly designed and manufactured inside the inner ring of one of the one-way bearings. One end of the shaft is flush with one side of the inner ring of the one-way bearing, and the other end of the shaft can be extended to the outside of the inner ring through the inner diameter of the inner ring of another one-way bearing to become an extended shaft (extended shaft) with two inner rings as one. The outer ring, retainer, sealing ring and ball are made separately to remain relatively independent and are also designed and manufactured to match the outer rings of the two one-way bearings. Gear teeth (side gears) are designed and manufactured on the edges of the opposite surfaces at the extended center connection distance between the outer rings of the one-way bearings. A shaft sleeve is installed on the intermediate shaft at the relative center position between the two side gears, which can rotate freely on the shaft. Two corresponding shafts (two-end shafts) are welded outwardly on the vertical sleeve surface by dividing the circle into two parts. For the shaft with a step on the shaft head, two synchronous gears are installed on the shafts with steps at both ends. The slots made on the shaft head can be sealed with spring cards, or four corresponding shafts can be welded by dividing the circle into four parts and four synchronous gears are installed on each of the four corresponding shafts. The two synchronous gears installed on the two end shafts and the side gears designed and manufactured on the opposite sides of the extended center connection distance between the outer rings of the one-way bearing are matched and can rotate synchronously freely. When one outer ring rotates, one outer ring rotates forward and the synchronous gear causes the other outer ring to reverse, thus becoming synchronous rotation, which is just right for reciprocating motion. The directions of movement are opposite, forming synchronous rotation in opposite directions, and they can also reciprocate at the same time. One is locked to drive the inner ring shaft to rotate, and the other can rotate freely. The reciprocating motion forms the inner ring shaft to rotate in one direction; in order to clearly define the outer ring on the side close to the extended shaft (the outer ring close to the shaft), the other one-way bearing outer ring is directly designed and made into a gear or a groove wheel (reciprocating outer ring). When a gear is installed on the outer ring of the reciprocating outer ring, the outer ring groove wheel can reciprocate the gear through a rack. When a groove wheel is installed on the outer ring of the reciprocating outer ring, it is only necessary to use a wire rope to wrap 1-2 circles around an outer ring groove wheel installed on the reciprocating outer ring for reciprocating movement. Regardless of whether the reciprocating outer ring is designed as a gear or a groove wheel, it can form two outer rings that rotate synchronously in opposite directions, and It can reciprocate at will at the same time, one is locked to drive the inner ring shaft to rotate, and the other can rotate freely, and the reciprocating motion causes the inner ring shaft to rotate in one direction; it is also possible to directly design and make 3 vertical holes on the back of the reciprocating outer ring gear and tap them into screw holes, and then make a round steel plate with the same diameter as the outer ring, and make 3 holes like the outer ring, which can be fixed to the edge of the outer ring with screws, and make a groove at the center position of one side of the round steel plate that rotates close to the inner ring without affecting the rotation, and weld and install a shaft at the center position of the other side of the round steel plate, or directly design and make the round steel plate outer ring shaft and the shaft with a mounting groove (round steel plate shaft), which can be used to install gears and sheaves, which is convenient for the same use as directly designing and making the reciprocating outer ring as a gear or sheave;The extended shaft head can be installed with a mounting groove as needed, or it can be directly fixed with a coupling and connected to a fixed generator or other equipment that requires rotational power; the round steel shaft or the reciprocating outer ring uses mechanical reciprocating motion in the form of vibration, and the reciprocating outer ring rotates forward through the synchronous gear to make the outer ring close to the shaft reverse to rotate synchronously, and the two inner rings are locked and push the inner ring to rotate in one direction to form the inner ring extension shaft to rotate in one direction, in order to drive the generator to move or generate rotational power, thus forming a group and forming an outer reciprocating shaft sleeve with the same rotation and the synchronous gear inner rotation transmission one-way bearing; for new energy vehicles and other motor vehicles, it is installed under the frame and above the axle or On the steel plate fixing frame, the reciprocating vibration of the suspension system axle is fully received by the vibration receiver and the rack (with bracket) between the bottom of the frame and the axle. Multiple sets of identical rotating shaft sleeves are installed above each axle. The reciprocating synchronous gears and the external rotating transmission one-way bearings drive the generator to generate electricity to charge the battery, thereby improving the endurance of new energy vehicles. When the sheave is installed on the extended shaft, it is only necessary to use a steel wire rope to wrap 1-2 circles around a sheave installed on the extended shaft for reciprocating motion. At this time, another vibration receiver is made, which consists of a vibration source pull rod and a force pull rod. The force pull rod has a "T" shape. The upper horizontal side is a fixed frame, which consists of an upper rod inner pulley, an upper rod belt pulley, and a lower rod inner pulley. In a stable place opposite to the vibration source, such as under the frame of new energy vehicles, the lower vertical part is the pulley inside the upper rod. The pulley inside the upper rod is a square window opened vertically on both sides of the upper rod head under the upper horizontal fixed frame. Both sides are transparent. A hole is drilled through the center of the square window on the front of the upper rod head to the back, and the shaft is installed. The pulley is installed in the square opening through the shaft. The wire rope at one end of any pulley E2 slides on the pulley inside the upper rod through the square window. The upper rod belt pulley is installed on the upper rod with a frame just below the square window of the pulley inside the upper rod. The wire rope can be installed on both ends of the upper rod or on the left or right side according to the extension shaft when the groove wheel is installed. The wire rope slides on the pulley; the lower rod inner The pulley is slotted in the lower rod head of the stressed pull rod, with a slot opened vertically on both sides of the lower rod head, and three sides are transparent. A hole is drilled from the center of the slot on the front of the lower rod head to the back, and the pulley is installed in the slot through the mounting shaft. The pulley is larger than the lower rod head of the stressed pull rod. When the wire rope passing through any pulley E1 slides on the pulley from the left and right sides, it shall not rub against the two sides of the stressed pull rod; the vibration source pull rod looks like the number "1", and the horizontal part at the bottom is a fixing frame, which can be fixed to the vibration source. For example, the vibration source pull rod is fixedly installed above the axle of a new energy vehicle or on a steel plate fixing frame. The vertical part at the top is a pull rod, and the rod head has a fixing screw or screw hole, which is used to fix the two ends E1 and E2 of the wire rope passing around the groove wheel to form a closed loop;When the vibration source pull rod is pulled up and down, the entire wire rope is caused to reciprocate through the force-bearing pull rod. The interaction between the vibration source pull rod and the force-bearing pull rod through the wire rope is referred to as a vibrator. The reciprocating motion causes the extended shaft of the wire rope that passes around the groove wheel to reciprocate, causing one outer ring to rotate forward and the other outer ring to reverse through the synchronous gear, thus forming separate rotations. One outer ring can then rotate freely, and the other outer ring is locked to drive the inner ring integrated shaft to rotate. Because the locking direction is consistent and the reciprocating motion direction is opposite, the reciprocating motion causes the inner ring integrated shaft to rotate in the locking direction, forming the inner ring integrated shaft to rotate in one direction. The reciprocating motion can continuously rotate in the locked direction. The characteristic is that the wire rope is pulled back and forth by the vibration of the vibration source pull rod and the support of the force-bearing pull rod, and can be connected and connected with countless arbitrary pulleys E1, E2, E3, E4... The gears can be inserted and changed in direction without being affected by the vibration amplitude and the distance from the vibration source. When the shaft is extended to install the gear, only one rack is needed to make the gear reciprocating. In addition, a vibration bracket is made, and the lower end is fixed to the vibration source with screws. The rack is welded to one end of the bracket facing the gear. The gear and rack match. When reciprocating motion is performed, the rack drags the gear back and forth to rotate, and the rack pushes the reciprocating outer ring or the gear on the round steel sheet shaft to make it rotate back and forth. When reciprocating motion is performed, the two outer rings are locked and push the inner ring to rotate in one direction. When reciprocating motion occurs, one group of the two outer rings rotates freely, and the other group is locked to drive the inner ring to rotate. The reciprocating motion is in the opposite direction. There is always one group locked to drive the inner ring and the inner ring integrated shaft to rotate, and the other group rotates freely. Reciprocating motion can be used to make the inner ring integrated shaft rotate continuously in one direction.

[0015] The reciprocating rotating series one-way bearings with the same rotation are fixedly installed on the same shaft at the same time with more than two single bearings with the same rotation, that is, the locking directions are the same. When they rotate in opposite directions, one is locked to drive the shaft to rotate, and the other can rotate freely. On the contrary, one can rotate freely, and the other is locked to drive the shaft to rotate, which just matches the opposite direction of the reciprocating motion. Different structural methods of the inner ring or outer ring are adopted to design and manufacture different shape combinations, especially by using a series of methods such as double-layer integral arc-shaped inner and outer convex and concave rack semi-rings to adjust the position of the fulcrum axis to enlarge and reduce the driving wheel gear, adjust the rotation speed, etc., so that the inner ring or outer ring can rotate in opposite directions respectively, and can reciprocate at the same time. One can be locked to drive the shaft or outer ring to rotate, and the other inner ring or outer ring can rotate freely. On the contrary, one can rotate freely and the other is locked to drive the shaft to rotate. Because the locking directions of the two single bearings with the same rotation are The two inner rings of the one-way bearings with opposite rotations are respectively matched with the opposite threads on both sides, pushing the twisted steel spoiler piece to reciprocate and rotate. When a twisted steel spoiler piece is fixed to connect the vibration source for reciprocating motion, the inner rings of the one-way bearings with opposite rotations can be locked back and forth respectively, pushing the outer ring to rotate continuously in one direction at the same time, concentrating many setting elements of the reciprocating rotation device, forming a reciprocating rotating bearing in which the shaft or outer ring and other equipment where it is installed can rotate in one direction, changing the simple locking function of the one-way bearing to form a different reciprocating motion and one direction rotation function, taking up little space, and being easy and simple to install and use. 4. Description of the accompanying drawings

[0016] Figure 1 These are the front and side views of the one-way bearing for the external gear that rotates in the same direction.

[0017] Figure 2 It is the front view, top view and side view of the specific implementation of the external gear one-way bearing with the same rotation.

[0018] Figure 3 These are the top and side views of the outer pit one-way bearing that rotates in the same direction.

[0019] Figure 4 These are the front and side views of the one-way bearing with an inner square hole.

[0020] Figure 5 It is a specific implementation diagram of the inner square hole one-way bearing.

[0021] Figure 6These are the top and side views of the outer propeller single bearing rotating in the same direction.

[0022] Figure 7 These are exploded top and side views of a one-way bearing with an inner square hole and an outer gear (groove wheel) that rotates in the same direction and has a fixed frame.

[0023] Figure 8 It is a top view and a side view of the one-way bearing of the outer rotary transmission of the inner reciprocating synchronous gear that rotates in the same direction.

[0024] Figure 9 It is a top view and side view of the vibration receiver when the inner reciprocating synchronous gear and the outer rotating transmission one-way bearing are specifically implemented with the extended shaft to install the groove wheel.

[0025] Figure 10 This is a top view and side view of an external reciprocating internal rotating one-way bearing. It consists of ① inner ring, ② extended shaft, ③ outer ring, ④ side gear, ⑤ cage, ⑥ sealing ring, ⑦ roller, ⑧ round steel shaft, ⑨ screw hole, ⑩ outer ring close to the shaft, Relative outer ring, Synchronous gears, Two-end shaft, Bushings, With side gear, Grooved wheel composition.

[0026] Figure 11 This diagram shows a top and side view of the vibration receiver used when installing a sheave with an external reciprocating, internal rotating one-way bearing. It consists of ① pulley E1, ② pulley E2, ③ vibration source rod, ④ force-bearing rod, ⑤ upper rod inner pulley, ⑥ upper rod support pulley, ⑦ lower rod inner pulley, ⑧ rod head screw, and ⑨ vibration source.

[0027] Figure 12 This is a top view and side view of a single bearing with a reciprocating combination of a three-sided outer ring gear and a ten-segment inner sleeve. It consists of ① single bearing, ② two-sided gears, ③ peripheral gear, ④ peripheral groove wheel, ⑤ outer gear single bearing, ⑥ outer groove wheel single bearing, ⑦ sleeve, ⑧ cross shaft, ⑨ synchronous gear, ⑩ slot, spring card, Mounting slot, The shaft head is combined with a reciprocating rotating device.

[0028] Figure 13 This is a comprehensive application diagram of a reciprocating rotating device with a three-sided outer ring gear and a ten-segment inner sleeve, and a single bearing shaft. It consists of ① "1" type straight rack, ② "T" type arc side rack, ③ "T" type arc top rack, ④ fulcrum hole, ⑤ long strip through hole, ⑥ "1" type mounting frame, ⑦ "T" type lever fulcrum frame, ⑧ generator, ⑨ outer gear single bearing, ⑩ "?" type arc inner rack, Frame, Shaft head combined reciprocating rotating device, Axles, Single suspension, double suspension, tire, Steel plate rack, shock absorbers, Vibration source composition.

[0029] Figure 14 This is a top view and side view of a single bearing with a reciprocating combination of a three-sided outer ring gear and a ten-segment inner sleeve. It consists of ① an outer gear single bearing, ② an "A" type bracket, ③ a pulley, ④ an outer groove wheel single bearing, ⑤ an inner sleeve ten-segment gear, ⑥ a planetary speed increaser, ⑦ a low-speed shaft, ⑧ a high-speed shaft, ⑨ a semicircular pendulum, ⑩ a generator, flywheel, Circle-shaped insulating material, +Pole, -pole, Insulation materials, "Z" type copper probe brush, Copper circle, Belts, wire ropes, Trapezoidal bearings, Type bracket, Copper sheet, Center hole, Oblique mouth, "<" type copper probe brush, Anti-touch spring, + Extremely insulating material.

[0030] Figure 15 It is the front and top view of the one-way bearing with a cross-shaped four-head semicircular pit relative to the center wall of the inner ring inner diameter.

[0031] Figure 16 It is a front view and a top view of the specific implementation of the inner ring inner diameter center wall relative to the cross-shaped four-head semicircular pit one-way bearing.

[0032] Figure 17 It is the front and top view of a one-way bearing with a sleeve and the inner ring inner diameter center wall protruding vertically into the shaft.

[0033] Figure 18 It is a front view of a specific embodiment of a one-way bearing with a sleeve in which the inner diameter center wall of the inner ring protrudes vertically into the shaft.

[0034] Figure 19 This is a top view and side view of a one-way bearing with an outer gear, edge, and rack adjustment hole that rotates in the same direction. It consists of ① inner ring, ② center connection distance, ③ outer ring, ④ cage, ⑤ sealing ring, ⑥ ball, ⑦ outer ring gear, ⑧ mounting groove, ⑨ protruding edge, ⑩ rack, rack, Rack connecting rod, Mounting holes, Base connecting rod, Fixing screws, Vibration source base composition.

[0035] Figure 20 It is a top view and side view of the one-way bearing with an outer reciprocating sleeve and synchronous gear rotating in the same direction. It consists of ① inner ring, ② extended shaft, ③ outer ring, ④ side gear, ⑤ cage, ⑥ sealing ring, ⑦ ball, ⑧ round steel shaft, ⑨ screw hole, ⑩ outer ring close to the shaft, Reciprocating outer ring, Synchronous gears, Two-end shaft, Shaft sleeve composition.

[0036] Figure 21 Top and side views of the vibration receiver when the outer reciprocating sleeve, synchronous gear, and internal rotating transmission one-way bearing are specifically implemented with an extended shaft and a sheave. It consists of ① pulley E1, ② pulley E2, ③ vibration source rod, ④ force-bearing rod, ⑤ upper rod inner pulley, ⑥ upper rod frame pulley, ⑦ lower rod inner pulley, ⑧ rod head screw, and ⑨ vibration source. 5. Specific implementation methods

[0037] like Figure 1 ,like Figure 2As shown, the inner rings of two identically rotating one-way bearings are designed and manufactured as a single unit, with the center connection distance 2 extended. The outer ring 3, retainer 4, seal ring 6, and ball bearing 6 are manufactured separately and relatively independently according to existing bearing technology. The outer rings of the one-way bearings are directly designed and manufactured as an integral outer ring gear 7, forming an identically rotating one-way bearing. Alternatively, a separate outer ring gear one-way bearing can be designed and manufactured. In this manner, two racks are disposed diagonally on opposite sides of a U-shaped bracket, and are positioned on opposing surfaces of the two outer ring gears 7 to mate with the gear teeth. During reciprocating motion, one set of one-way bearings rotates freely, while the other set of one-way bearings is locked, driving the shaft. The reciprocating motions are in opposite directions. Since the two identically rotating one-way bearings are locked in the same direction, one set of one-way bearings is always locked, driving the shaft. Energy can be used for both reciprocating motions, forming different reciprocating motions, causing the shaft to rotate continuously in one direction. At the same time, an arc-shaped inward-concave rack 8 is designed and manufactured, and an arc-shaped outward-convex rack 9 is staggered front and back respectively, with a certain distance between them to form a double-layer integral arc-shaped inner and outer convex-concave rack half ring. A connecting rod 10 is set at the back, which reciprocates around the fulcrum shaft 11 on the bracket, and the vertical center position is connected to the generator 12 shaft head on the bracket. The front and rear sides of the two gears of the installed external gear one-way bearing 13 are meshed in opposite directions. The driving wheel gear is enlarged and reduced by adjusting the position of the fulcrum shaft 11, and the rotation speed is adjusted. When the connecting rod 10 is connected to the vibration source and reciprocates at the same time, the arc-shaped inward-concave rack 8 pushes the one-way bearing to rotate freely, and the arc-shaped outward-convex rack 9 pushes the one-way bearing to lock and drive the shaft to rotate. The reciprocating directions are opposite, and the two identically rotating one-way bearings are locked in the same direction. There is always a reciprocating motion. A set of one-way bearings are locked to drive the shaft to rotate, and both reciprocating motions can be used to generate energy, forming different reciprocating motions and rotating in one direction. A flywheel 14 is installed on the outer shaft head of the generator 12 to compensate for the shaft rotating continuously in one direction to generate electricity, forming an integrated one-way rotating bearing; its main use is in mechanical vibration, motor vehicles, airplanes, train operations and ships using the reciprocating motion of sea waves. There is a periodically changing driving force between the media to cause different reciprocating motions. A hole is punched through the connecting rod 10, and a bracket shaft is used to pass one end through the hole, and the other end is connected to the wheel axle of the motor vehicle by screws to form vibration. The generator 12 on the bracket is fixed together under the frame of the motor vehicle. Due to the continuous reciprocating motion of the suspension system, the different reciprocating motions are converted into continuous rotation in one direction through the rotating bearing to generate electricity.

[0038] like Figure 3As shown, the same-rotation outer pit one-way bearing is designed and manufactured by designing two same-rotation inner rings of one-way bearings as a whole with an extended center connection distance 2. The outer ring 3, retainer 4, seal ring 5, and ball 6 are manufactured separately and remain relatively independent. Two ball pits 7 are directly designed and manufactured in the middle of the opposing surfaces of each one-way bearing outer ring, which can accommodate half of the ball 6 and leave half of the ball 6 exposed. The combination becomes a same-rotation outer pit one-way bearing, or a separate outer pit one-way bearing can be designed and manufactured. The ball 6 runs in two oppositely directed grooves, giving the one-way bearing the ability to rotate and drive the shaft head. The main application is in mechanical vibration, motor vehicles, airplanes, train operations, and ships utilizing sea wave vibration, where the periodic driving force between the media turns reciprocating motion into continuous rotation in a single direction.

[0039] like Figure 4 、 Figure 5 As shown, the inner square hole one-way bearing, the inner ring of the one-way bearing is directly provided with a rectangular inner square hole 1, the opposite surface of the outer ring 2 of the one-way bearing is designed and made into a whole installation and fixing screw nut 3, the retaining frame, sealing ring, and ball are respectively designed and manufactured and installed according to the existing technology; when a section of steel bar 5 is used to fix the two inner square hole one-way bearing outer rings 2 rotating in opposite directions with screws through the screw nut 3, the two inner square hole one-way bearings are kept at a certain distance, one end of the steel bar 5 is connected to the vibration source, and a section of twisted steel spoiler sheet 4 is respectively provided with opposite threads on both sides, and respectively slides through the inner square holes 1 of the two oppositely rotating inner square hole one-way bearings, the steel bar 5 drives the two oppositely rotating inner square hole one-way bearings to do reciprocating motion at the same time, pushing the twisted steel spoiler The discs reciprocate and rotate. One end of the twisted steel spoiler disc 4 is connected to the shaft head 6 by welding or a coupling, driving the shaft head 6 to rotate. During reciprocating motion, one inner square hole one-way bearing rotates idly, while the other inner square hole one-way bearing is locked, driving the shaft head to rotate. Reciprocating motion always uses one set of one-way bearings to drive the shaft head, and reciprocating motion can be used to continuously rotate the shaft head in one direction. When a section of the twisted steel spoiler disc 4 is fixed and connected to a vibration source, the inner rings of the two counter-rotating inner square hole one-way bearings are locked back and forth, driving the outer rings to rotate simultaneously in one direction. This function can be utilized to rotate the outer rings separately, or by simultaneously fixing the two outer rings in one direction using steel pipes, and the rotation function can be transmitted through gears or pulleys. The main application of the inner square hole one-way bearing is in mechanical vibration, automobiles, aircraft, trains, and ships using sea wave vibration, where the periodic driving force between the media can convert reciprocating motion into continuous rotation in one direction.

[0040] like Figure 6As shown in the figure, for the same rotating external propeller one-way bearing, the inner rings 1 of two same rotating one-way bearings are designed and manufactured as a whole and the central connection distance 2 is extended, so that the outer rings 3, cages 4, sealing rings 5 and balls 6 are respectively manufactured to be relatively independent. Each one-way bearing outer ring is directly designed and manufactured as an integral propeller 7. One set of propellers is installed in the normal direction and the other set is installed in the reverse direction. They are combined to form the same rotating external propeller one-way bearing, or a separate external propeller one-way bearing can also be designed and manufactured. It is installed in a pipe with one end sealed and the other end with a sealing shaft that can reciprocate and rotate. A hollow sliding groove is installed at the shaft head inside the pipe, a spring is installed in front of the sliding groove, and liquid is added into the pipe. The rotation of the pipe is fixed and the pipe makes reciprocating motion to push the propeller 7 to run and rotate. When the shaft head is driven to rotate, one set of single-rotation devices rotates idly and the other set of single-rotation devices drives the shaft to rotate, so that the shaft rotates continuously in one direction. Its feature is that 4 sets, 6 sets, 8 sets... of the same rotating propeller reciprocating rotation bearings can be installed to form a combined force, which is convenient for popularization and use. Its main use is in mechanical vibration, motor vehicles, airplanes, trains during operation and ships using the vibration of sea waves. When there is a periodically changing driving force between media, it can change reciprocation into a propeller reciprocating rotation bearing that rotates continuously in one direction.

[0041] As Figure 7 shown, for the same rotating internal square-hole external gear (sprocket) one-way bearing, when the twist drill steel spoiler is fixed and the vibration source is connected through the rectangular square hole (internal square-hole area) of the one-way bearing to make reciprocating motion, it pushes the outer ring gear of the one-way bearing to run and rotate in the "C"-shaped fixed frame to drive the rotation of other devices. When a section of twist drill steel spoiler forms relative spiral threads respectively from both sides of the center, and then two same rotating internal square-hole external gear (sprocket) with-holder one-way bearings rotating in opposite directions are respectively corresponding to a section of twist drill steel spoiler that forms relative spiral threads respectively from both sides of the center. When making reciprocating motion, one set of one-way shafts rotates freely and the other set of one-way bearings is locked to drive the shaft head to rotate. There is always one set of one-way bearings locked to drive the shaft head to rotate in the opposite reciprocating motion directions. The reciprocating motion can all be utilized, so that the outer ring gear (sprocket) of the one-way bearing rotates continuously in one direction. Its main use is to utilize vibration to change reciprocation into rotational power, and through the external gear (sprocket) 8, it uses gears, belts, etc. to drive other devices to rotate or provide rotational power to a generator.

[0042] As Figure 8 、 Figure 9As shown, the inner reciprocating sleeve synchronous gear external rotating transmission one-way bearing that rotates in the same direction is a single bearing of a reciprocating rotating device. The inner rings of the two one-way bearings that rotate in the same direction are designed and manufactured separately to remain relatively independent. The inner rings of the two one-way bearings that rotate in the same direction are designed and manufactured separately to remain relatively independent. One of the inner rings of the one-way bearing is directly designed and manufactured as an integrated extended shaft (with a shaft inner ring). One end of the shaft is flush with one side of the inner ring of the one-way bearing. The other end of the shaft can be extended through the inner diameter of the inner ring of another one-way bearing to the outside to become a shaft head that can rotate freely (inner diameter inner ring); a sleeve is installed on the intermediate shaft at the relative center position between the one-way bearing inner ring extension shafts after the inner diameter, which can rotate freely on the shaft. Two corresponding shafts (two-end shafts) are welded outwards on the vertical sleeve surface by dividing the circle in half. For a shaft with a step at the head, two synchronous gears are installed on the shafts with steps at both ends. The slots made in the shaft head can be sealed with spring cards, or four corresponding shafts can be welded in four parts of the circle to install four synchronous gears respectively. After the extended shaft passes through the inner ring of the inner diameter, gears are designed and made on the edges of the opposite surfaces of the inner rings of the one-way bearing, which match the two synchronous gears installed on the shafts at both ends and can rotate synchronously. When the extended shaft rotates, the inner ring of the shaft rotates forward and the inner ring of the inner diameter is reversed through the synchronous gear, which becomes synchronous rotation. It just fits the opposite direction of the reciprocating motion, forming synchronous rotation in opposite directions, and can reciprocate at the same time. One is locked to drive the outer ring shaft to rotate, and the other can rotate freely. , the reciprocating motion forms the outer ring shaft rotating in one direction; on the extended shaft head, groove wheels, gears and other equipment can be installed as needed (shaft with mounting groove), or they can be directly installed with a coupling; the two one-way bearing outer rings are designed and manufactured as a whole, so that the retainer, sealing ring, and ball are designed and manufactured separately and installed on the two relatively independent one-way bearing inner rings; three holes are designed and manufactured vertically on the edge of the outer ring behind the inner ring with shaft and tapped into screw holes, and a round steel plate with the same diameter as the outer ring is made, and three holes are punched like the outer ring, which can be fixed to the edge of the outer ring through screws, and a groove is made in the center position of one side of the round steel plate that rotates close to the inner ring without affecting the rotation, and a groove is made in the center position of the other side of the round steel plate It can be installed by welding a shaft (shaft with mounting groove), or it can be directly designed and manufactured with a round steel sheet outer ring shaft and a shaft with mounting groove, or it can be directly fixed with a coupling and connected to a fixed generator or other equipment that requires rotational power. By extending the shaft and utilizing the mechanical reciprocating motion in the form of vibration, the inner ring of the shaft rotates forward and the inner ring of the inner diameter is reversed through the synchronous gear to rotate synchronously. The two inner rings are locked and push the outer ring to rotate in one direction to form an outer ring shaft that rotates in one direction to drive the generator or generate rotational power. This forms a group and an inner reciprocating shaft sleeve synchronous gear outer rotation transmission one-way bearing with the same rotation. As a whole, it is easy to install and simple and clear.

[0043] like Figure 10 、 Figure 11 As shown, the outer reciprocating inner rotating one-way bearing is designed and manufactured as a whole by designing two inner rings of the same rotating one-way bearings and extending the center connection distance. An inner ring of one of the one-way bearings is directly designed and manufactured as an integrated extended shaft. One end of the shaft is flush with one side of the inner ring of the one-way bearing, and the other end of the shaft can be extended to the outside of the inner ring through the inner diameter of the inner ring of another one-way bearing to become an extended shaft (extended shaft) with two inner rings as one. The outer ring, retainer, sealing ring, and roller are manufactured separately to remain relatively independent and are also designed and manufactured to match the outer rings of the two one-way bearings. Gear teeth are designed and manufactured on the edges of the opposite surfaces of the extended center connection distance between the outer rings of the one-way bearings. (Side gear); A shaft sleeve is installed on the intermediate shaft at the relative center position between the two side gears, which can rotate freely on the shaft. Two corresponding shafts (two-end shafts) are welded outwardly on the vertical sleeve surface by dividing the circle into two parts. For shafts with steps on the shaft head, two synchronous gears are installed on the shafts with steps on both ends. The slots made on the shaft head can be sealed with spring cards, or four corresponding shafts can be welded by dividing the circle into four parts to install four synchronous gears. The two synchronous gears installed on the two-end shafts and the side gears designed and manufactured on the edges of the opposite surfaces at the extended center connection distance between the outer rings of the one-way bearings are matched and can rotate synchronously and freely. When one outer ring rotates, the other outer ring rotates forward through the same The step gear makes the other outer ring reverse, and they rotate synchronously, which just matches the opposite direction of the reciprocating motion, forming synchronous rotation in opposite directions, and can reciprocate at the same time. One is locked to drive the inner ring shaft to rotate, and the other can rotate freely. The reciprocating motion forms the inner ring extension shaft to rotate in one direction; in order to clarify the outer ring close to the extended shaft (the outer ring close to the shaft), and the outer ring opposite to the outer ring close to the shaft is called (the relative outer ring). The two outer rings of the outer ring close to the shaft and the relative outer ring are directly designed and made into grooved gears or grooved wheels. According to the usage, they can be designed as grooved gears or grooved wheels at the same time, or they can be designed as grooved gears on the outer ring close to the shaft or relative outer rings at the same time. The ring groove wheel can also be designed as a grooved gear relative to the outer ring or as an outer ring groove wheel on the shaft. The grooved gear has two side blocks on both sides of the gear. When the rack is used to match the gear for reciprocating motion, it does not swing left and right, ensuring stability and no shaking. When the outer ring is installed with the gear, only one rack is used to make the gear reciprocate. When the outer ring is installed with the groove wheel, only the wire rope needs to be wrapped around the groove wheel 1-2 times for reciprocating motion. Regardless of whether it is designed and made as a gear or a groove wheel, it can form two outer rings that rotate synchronously in opposite directions, and can reciprocate at the same time. One is locked to drive the inner ring shaft to rotate, and the other can rotate freely. The reciprocating motion causes the inner ring shaft to rotate in one direction.

[0044] like Figure 12 、 Figure 13 、 Figure 14As shown, the outer ring three-sided gear and inner sleeve ten-segment gear reciprocatingly rotate in a combined application single bearing, which relates to the field of bearings for reciprocating rotation combined application single bearings. Two identical rotating single bearings are designed and manufactured with an outer ring three-sided gear and a sheave combined with an inner sleeve ten-segment gear to form a combined application single bearing that rotates separately. By connecting multiple reciprocating racks and sheaves, they are fixedly mounted on the shaft head of a generator or a device that requires rotation, driving the generator or the device that requires rotation. The gear and sheave single bearings can be used individually, or combined with the inner sleeve ten-segment gear to form a combined application reciprocating rotation device, filling a technological gap in the existing field. The working principle of the single bearing is that one direction is locked while the other direction can rotate freely. Two identical rotating single bearings are installed on the same shaft at the same time, and the locking and free rotation directions are the same. When rotating in opposite directions, one is locked to drive the shaft, while the other can rotate freely. On the contrary, one can rotate freely, and the other is locked to drive the shaft to rotate; it just fits the opposite direction of the reciprocating motion, forming rotation in opposite directions respectively, and can reciprocate at the same time, one is locked to drive the shaft to rotate, and the other can rotate freely. On the contrary, one can rotate freely, and the other is locked to drive the shaft to rotate. Two or more single bearings with the same rotation are installed on the same shaft at the same time, and they can rotate freely, lock to rotate, and stop respectively without affecting each other. The shaft rotates in one direction, because two or more single bearings rotating in the same direction are locked in the same direction and the reciprocating motion is opposite, the reciprocating motion causes the shaft to rotate in the locked direction, forming the shaft rotating in one direction. The main use is in mechanical vibration, new energy vehicles and other motor vehicles, airplanes, trains and ships using sea wave vibration. The periodic changing driving force between the medium turns the reciprocating into continuous rotation in one direction, and the mechanical reciprocating motion in the form of vibration is used to drive the generator or generate rotational power.

[0045] like Figure 15 、 Figure 16As shown, the inner diameter center wall of the inner ring is relative to the cross-shaped four-head semicircular pit one-way bearing. The specific implementation method only requires that four grooves 3 with two opposite directions be directly designed and manufactured on the extended shaft head 2 of the generator 1 or the shaft head that requires a rotating device. The inner ring 10 of the one-way bearing 4 is first used to install round balls and the same two grooves 3 on the shaft head through two adjacent semicircular pits on the four sides of the cross, which can tightly accommodate and reciprocate freely. The inner ring 10 of another one-way bearing 4 is installed with round balls and the same two grooves on the shaft head through two adjacent semicircular pits on the other four sides of the cross on the opposite side. The other two identical grooves tightly accommodate the reciprocating movement. The above-mentioned semicircular pits are combined with the round balls and are referred to as ball pits 5 for short. The above-mentioned one-way bearings rotate in the same manner. Only two of the four semicircular pits of each one-way bearing are used. The other two semicircular pits can be replaced after wear. The grooves 3 are designed to be axially perpendicular to the axial surface and are made of four spiral lines in opposite directions that can accommodate the free rolling of half a circular ball. When the outer rings 9 of the two identically rotating one-way bearings 4 are fixed by screws 6 at the same time and connected to the vibration source 7, the two fixed outer rings 9 can be reciprocated back and forth. Movement, pushing the ball pit 5 to rotate back and forth spirally in the groove of the shaft head; the vibration source 7 refers to the reciprocating motion of different reciprocating motions of mechanical vibration, motor vehicle, airplane, train operation and ship using the wave vibration of sea water to rotate in one direction, driving the generator to move or generate rotational power, the connection vibration source 7 is the suspension system installed respectively during the operation of mechanical vibration, motor vehicle, airplane and train, and the reciprocating space of the reciprocating motion of the suspension system and the shock absorber are respectively installed together, and the lever principle of the suspension system itself is used to install the two ends in parallel according to the distance between the fulcrums to adjust the general reciprocating spacing, in the vehicle A generator is fixedly installed at one end of the frame, and a vibration source 7 is fixedly installed at the other end. The length of the shaft can be tailored according to the reciprocating stroke of the shock absorber so that the shaft length is slightly longer than its stroke to prevent the two sides from falling off and ensure the normal operation of the reciprocating rotation. When the different reciprocating motions of the wave vibrations of the seawater on the ship are utilized, brackets can be installed in the front, back, left, and right sides of the hull and a pendulum can be installed on it. As the waves of the seawater push the ship to sway, the pendulum forms a reciprocating motion connected by a movable connecting rod to form a reciprocating multiple vibration sources 7. Direct application of the wave vibrations of the seawater can be achieved by installing a float of a certain weight at the other end of the connecting rod to form a reciprocating vibration source 7;The outer rings of the two identically rotating one-way bearings 4 are fixed to the vibration source 7 with screws 6 or corresponding brackets 8 at the same time, and the inner rings 10 are respectively arranged in two semicircular pits and pushed to reciprocate along the spiral rifling grooves through the ball pits 5, giving the one-way rotating device the ability to rotate separately, driving the shaft head to rotate, which is consistent with the reciprocating motion in the opposite rifling grooves. When reciprocating, one group of one-way bearings rotates freely, and the other group of one-way bearings is locked to drive the shaft head to rotate. There is always one group of one-way bearings to drive the shaft head to rotate for the reciprocating motion, and the reciprocating motion can drive the rotation energy. The two identically rotating one-way bearings 4 rotate freely on the same axis, and the locking directions are consistent. They are locked in opposite directions for the reciprocating motion, forming a shaft head that can rotate freely and reciprocate. Continuously rotate in a locked direction to form different reciprocating motions. The rotation in one direction and the reciprocating motion can be used to make the shaft head rotate continuously in one direction. The technology can also be used to fix two identical rotating single bearings 4 in parallel on the two shafts according to the above method and fix gears or pulleys on one end of the two shaft heads, and fix them around the fuselage of the generator with a triangular bracket. Holes are opened on the triangular brackets on the two shaft heads for installing gears or pulleys. The generator set 11 that can only rotate flexibly and cannot reciprocate is provided with slots on both sides of the shaft. The other ends of the two shafts can also be connected to the same or different vibration sources 7 at the same time. The above method is fixed with screws. The generator is in a stable place, and a gear or pulley is also fixedly installed on the generator shaft head. The middle positions of the gears or pulleys fixedly installed facing the two shaft heads are meshed with each other or transmitted through the pulleys. The different reciprocating locks on both sides drive the shaft head of the generator to rotate continuously in one direction. The inner ring 10 of the one-way bearing 4 and the shaft head respectively have a small contact area with the outer ring, which reduces the friction resistance and is convenient for production, design and installation. The one-way bearing is not affected by the vibration amplitude, and the length of the shaft can be lengthened according to the needs, or the multi-stage lever principle can be used to reduce or increase the arm ratio to adjust the size of the special vibration amplitude according to the special circumstances of using different reciprocating motions. The above-mentioned specific implementation method can also use a one-way bearing The unidirectional rotating device is applied and implemented. The unidirectional rotating device is a rotating device that can rotate freely in one direction but is locked in the other direction. Examples include: one-way bearings, also known as backstops or overrunning clutches, bicycle flywheels, ratchet gears made using helical teeth, ratchet teeth, springs, flat blocks, cores, jacks, jack springs, washers, conversion strips, etc., and unidirectional rotating devices with unidirectional rotation functions. Their working principles generally conform to unidirectional rotating devices that can rotate freely in one direction but are locked in the other direction. Unidirectional rotating devices with a cross-shaped four-head semicircular pit formed by the inner diameter center wall of the inner ring can be implemented in the above manner to form different reciprocating motions and rotations in one direction.

[0046] like Figure 17 、 Figure 18As shown, the inner diameter center surface wall of the inner ring vertically protrudes from the shaft with a sleeve. The specific implementation method includes a generator 1, an extended shaft head 2, a rifling groove 3, a one-way bearing 4, an inner ring 5, a small shaft sleeve 6, a vibration source 7, a screw 8, a corresponding bracket 9, an outer ring 10, and a generator set 11. On the extended shaft head 2 of the generator 1 or the shaft head requiring a rotating device, two rifling grooves 3 with opposite directions are directly designed and manufactured axially perpendicular to the axial surface. The inner diameter center surface wall of the inner ring 5 of a one-way bearing 4 is first used to directly design and produce a small shaft that protrudes vertically and is 1 / 4 of the entire inner diameter to install a small shaft sleeve 6, which is connected to the extended shaft through the inner ring 5. One of the rifling grooves 3 on the head 2 is tightly accommodated and can be freely rotated back and forth through the small shaft sleeve 6. The inner diameter center surface wall of the inner ring 5 of the other one-way bearing 4 is directly designed and produced to have a vertical protrusion that is 1 / 4 of the entire inner diameter. The small shaft sleeve 6 is installed on the small shaft, collectively referred to as the small shaft sleeve 6. Through the inner ring 5 and the other rifling groove 3 on the extended shaft head 2, it is tightly accommodated and can be freely rotated back and forth through the small shaft sleeve 6. The above is a one-way bearing with the same rotation; the rifling groove 3 is axially perpendicular to the axial surface and is designed and produced in two opposite directions spirally, which can accommodate the small shaft and the small shaft sleeve 6 to rotate freely, and the bottom of the groove is arc-shaped. Wire groove; when the outer rings 10 of two identically rotating single bearings are fixed by screws 8 at the same time and connected to the vibration source 7, the two fixed outer rings 10 are made to reciprocate back and forth, pushing the small shaft and the small shaft sleeve 6 to reciprocate and spirally run in the groove of the shaft head respectively; the vibration source 7 refers to the use of mechanical vibration, motor vehicles, airplanes, trains and ships using the wave vibration of sea water to rotate in one direction of different reciprocating motions, drive the generator to move or generate rotational power, the connection vibration source 7 is the use of mechanical vibration, motor vehicles, airplanes, trains installed in the operation of the suspension system, the reciprocating space of the reciprocating motion of the suspension system and the shock absorber at both ends. They are installed side by side, with a generator fixedly installed at one end under the frame and a vibration source 7 fixedly installed at the other end. The length of the shaft can be tailored according to the reciprocating stroke of the shock absorber so that the shaft length is slightly longer than its stroke to prevent the two sides from falling off, thereby ensuring the normal operation of the reciprocating rotation. When utilizing the different reciprocating motions of the wave vibrations of the seawater on the ship, brackets can be installed in the front, back, left, and right sides of the hull and a pendulum can be installed on it. Since the waves of the seawater push the ship to swing, the pendulum forms a reciprocating motion, which is connected by a movable connecting rod to form a reciprocating multiple vibration sources. The wave vibrations of the seawater can be directly applied by installing a float of a certain weight at the other end of the connecting rod to form a reciprocating vibration source 7;The outer rings of the two identically rotating one-way bearings are fixed with screws 8 or corresponding brackets 9 on the vibration source 7. The inner rings 5 ​​are respectively arranged on the two small shafts and the small shaft sleeves 6. They push the extended shaft head 2 to rotate in one direction by reciprocating along the spiral rifling grooves, giving the one-way rotating device the ability to rotate separately, driving the shaft head to rotate, which conforms to the reciprocating motion in the opposite rifling grooves. When reciprocating, one group of one-way bearings rotates freely, and the other group of one-way bearings is locked to drive the shaft head to rotate. There is always one group of one-way bearings to drive the shaft head to rotate in the reciprocating motion, and the reciprocating motion can drive the rotation energy. The two identically rotating one-way bearings rotate freely on the same axis, and the directions of the locking are The two shafts are fixed with one another in parallel, and two single bearings 4 with the same rotation are fixed on one end of the two shafts respectively, and gears or pulleys are fixed on one end of the two shafts respectively. The other ends of the two shafts can also be connected to the same or different vibration sources 7 at the same time. When the generator is fixed in a stable place with screws, a gear or pulley is also fixed on the generator shaft head at the same time, facing the center of the gears or pulleys fixed on the two shaft heads respectively. The positions are meshed with each other or driven by a pulley, and the different reciprocating locks on both sides drive the shaft head of the generator to rotate continuously in one direction. The relative contact area between the inner ring of the one-way bearing and the shaft head is small, which reduces the friction resistance, and the production design and installation are convenient. The inner ring of the one-way bearing and the shaft head are small, which reduces the friction resistance, and the production design and installation are convenient. It is not affected by the vibration amplitude, and the length of the shaft can be lengthened according to the needs, or the multi-stage lever principle can be used to reduce or increase the arm ratio to adjust the size of the special vibration amplitude according to the special circumstances of using different reciprocating motions. The above-mentioned specific embodiment can also be applied using a one-way rotating device. The one-way rotating device is a rotating device that can rotate freely in one direction but is locked in the other direction. Examples include: one-way bearings, also known as backstops or overrunning clutches, bicycle flywheels, ratchet gears made using helical teeth, ratchet teeth, springs, flat blocks, cores, jacks, jack springs, washers, conversion strips, etc., and other one-way rotating devices with a one-way rotating function. Their working principles generally conform to one-way rotating devices that can rotate freely in one direction but are locked in the other direction. One-way rotating devices with a sleeve in a shaft with a vertical protruding inner diameter center wall of the inner ring can be implemented in the above manner to produce different reciprocating motions and one-way rotations.

[0047] like Figure 19As shown, the one-way bearing with an outer gear edge rack adjustment hole of the same rotation is designed and manufactured as a whole by designing two inner rings of the one-way bearings of the same rotation and extending the center connection distance. The inner diameter of the inner ring is designed and manufactured with a mounting groove, which is convenient for fixed installation on a generator in a stable place or a shaft that needs to rotate; the outer ring, retainer, sealing ring, and ball are manufactured separately and remain relatively independent; the outer rings of the two one-way bearings are directly designed and manufactured as gears (outer ring gears), and the edges of the gears on the opposite sides of the two outer rings are directly designed and manufactured as protruding edges, or the edges of the two adjacent outer ring gears are directly designed and manufactured as protruding edges, or two protruding edges are directly designed and manufactured on both sides of the outer ring gear. When two racks are used to make reciprocating motion on the opposite sides of the two gears, they do not swing left and right, and are combined into a one-way bearing with an outer gear edge rack adjustment hole of the same rotation. A separate one-way bearing with an outer gear edge rack adjustment hole of the same rotation can also be designed and manufactured; a rack rack is manufactured separately, and the top of the rack rack is open One end is staggered with two gear outer rings corresponding to each other, and the bottom is connected together like the letter "Y". The two racks are welded face to face in the rack rack at the open end of the rack rack, or the rack rack with racks is directly designed and manufactured. The two racks at the open end of the rack rack and the gear rings installed on the periphery of the two one-way bearings are respectively provided with gears on the opposite surfaces to match each other, and the rack rack connecting rod is directly designed and manufactured to prefabricated multiple mounting holes; at the same time, a vibration source base is designed and manufactured, and the base can be fixed to the vibration source with fixing screws. A plurality of mounting holes are also prefabricated on the base connecting rod, and a plurality of mounting holes are prefabricated under the rack rack connecting rod. The distance between the vibration source and the rack rack connecting rod can be adjusted by fixing screws during installation; when reciprocating motion is performed, the rack is simultaneously dragged by the vibration source base, the connecting rod, and the rack rack to make one one-way bearing rotate freely, and the other one-way bearing is locked to drive the shaft to rotate. The reciprocating motion is in the opposite direction, and there is always a set of one-way bearings locked to drive the shaft to rotate. Both reciprocating motions can be used to make the shaft rotate continuously in one direction. This is based on the working principle of the single-phase bearing. Two or more single-phase bearings rotating in the same direction are fixedly installed on the same shaft at the same time. That is, the locking directions are consistent. When they rotate in opposite directions, one is locked and drives the shaft, while the other can rotate freely. Conversely, one can rotate freely, while the other is locked and drives the shaft. This just matches the opposite directions of reciprocating motion, resulting in rotation in opposite directions, while they can reciprocate at will at the same time, with one locked and drives the shaft while the other can rotate freely. Conversely, one can rotate freely, while the other is locked and drives the shaft. Because the two single-phase bearings rotating in the same direction have the same locking direction and opposite reciprocating directions, the reciprocating motion causes the shaft to rotate in the locked direction, resulting in the shaft rotating in one direction.The main purpose is to use the vibration of sea waves in mechanical vibration, new energy vehicles and other motor vehicles, airplanes, trains and ships, and through auxiliary equipment, the driving force with periodic changes between the media is used to convert the reciprocating motion into continuous rotation in one direction, and the mechanical reciprocating motion in the form of vibration is converted into continuous rotation in one direction to drive the generator or generate rotational power.

[0048] like Figure 20 、 Figure 21The same rotating outer reciprocating shaft sleeve synchronous gear inner rotating transmission one-way bearing is shown, which is a single bearing of a reciprocating rotating device. The inner rings of two one-way bearings rotating in the same direction are designed and manufactured as a whole and the center connection distance is extended. An extended shaft is directly designed and manufactured inside an inner ring of the one-way bearing. One end of the shaft is flush with one side of the inner ring of the one-way bearing, and the other end of the shaft can be extended and connected to the inner diameter of the inner ring of another one-way bearing to extend outside the inner ring, becoming an extended shaft (extended shaft) with two inner rings as a whole; the outer ring, retainer, sealing ring, and ball are manufactured separately to remain relatively independent and are also designed and manufactured to match the two one-way bearing outer rings; gear teeth (side gears) are designed and manufactured on the edges of the opposite surfaces at the extended center connection distance between the one-way bearing outer rings; a shaft sleeve is installed on the intermediate shaft at the relative center position between the two side gears, which can rotate freely on the shaft, and two corresponding shafts (two-end shafts) are welded outwardly on the surface of the vertical sleeve by dividing the circle in half. The shaft head has a step, and two synchronous shafts are installed on the shaft with steps at both ends. The slots in the shaft heads can be capped with spring clips, or four corresponding shafts can be welded in a quarter-circle pattern, each with four synchronous gears mounted on them. The two synchronous gears mounted on each shaft mate with the side gears designed and manufactured on the opposite sides of the one-way bearing outer rings, extending the distance between the center connections. They rotate freely and synchronously. When one outer ring rotates, the other rotates counterclockwise via the synchronous gears, creating synchronized rotation. This perfectly matches the opposite directions of the reciprocating motion, resulting in synchronized rotation in opposite directions. They can also reciprocate freely at the same time, with one locked to drive the inner shaft while the other is free to rotate. This reciprocating motion causes the inner shaft to rotate in one direction. This is based on the working principle of single-way bearings. When two or more single-way bearings are fixed on the same shaft, rotating in the same direction, they lock in the same direction. When they rotate in opposite directions, one locked to drive the shaft while the other is free to rotate. Conversely, if one is free to rotate, the other locked to drive the shaft. It just fits the opposite direction of the reciprocating motion, forming rotation in opposite directions respectively, and can reciprocate at will at the same time. One is locked to drive the shaft to rotate, and the other can rotate freely. On the contrary, one can rotate freely, and the other is locked to drive the shaft to rotate. Because the two single bearings rotating in the same direction have the same locking direction and opposite reciprocating motion, the reciprocating motion causes the shaft to rotate in the locked direction, forming the shaft rotating in one direction. The main use is in mechanical vibration, new energy vehicles and other motor vehicles, airplanes, trains and ships using sea wave vibration. The periodic changing driving force between the medium turns the reciprocating into continuous rotation in one direction, and uses the mechanical reciprocating motion in the form of vibration to drive the generator or generate power.

[0049] The above description is only a preferred specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any person familiar with the present technology can make equivalent replacements or changes based on the technical solution and inventive concept of the present invention within the explicit technical scope of the present invention, and these changes should be covered by the scope of protection of the present invention.

Claims

1. The reciprocating rotating series one-way bearings with the same rotation are two or more single bearings with the same rotation fixedly installed on the same shaft at the same time, that is, the locking directions are the same. When they rotate in opposite directions, one is locked to drive the shaft to rotate, and the other can rotate freely. On the contrary, one can rotate freely, and the other is locked to drive the shaft to rotate, which just fits the opposite direction of the reciprocating motion. Different structural methods of the inner or outer ring are adopted to design and manufacture different shape combinations, especially by using a series of methods such as double-layer integral arc-shaped inner and outer convex and concave rack semi-rings to adjust the position of the fulcrum axis to enlarge and reduce the driving wheel gear, adjust the rotation speed, etc., so that the inner or outer rings can rotate in opposite directions respectively, and can reciprocate at the same time, and can form a locked drive shaft or outer ring to rotate, and the other inner or outer ring can rotate freely. On the contrary, one can rotate freely and the other is locked to drive the shaft to rotate. Because the two same rotations The locking direction of the one-way bearing is consistent, and the reciprocating direction is opposite. The reciprocating motion causes the shaft to rotate in the locking direction, forming external reciprocating internal rotation and internal reciprocating external rotation, giving the one-way bearing a new function of rotating in one direction with different reciprocating motions; a piece of twisted steel spoiler is used to set opposite threads on both sides, and at the same time, two outer rings of the inner square hole one-way bearings that rotate in opposite directions are fixed to respectively match the opposite threads set on both sides, pushing the twisted steel spoiler piece to reciprocate and rotate. When a piece of twisted steel spoiler is fixed and connected to the vibration source for reciprocating motion, the inner rings of the two inner square hole one-way bearings that rotate in opposite directions can be reciprocated and locked respectively, pushing the outer ring to rotate continuously in one direction at the same time, concentrating many setting elements of the reciprocating motion rotating device, forming a reciprocating rotating bearing in which the shaft or outer ring where it is installed and other equipment can rotate in one direction, changing the simple locking function of the one-way bearing to form a different reciprocating motion and one direction rotation function.

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