An integrated gyroscope

Abstract

The present invention relates to the technical field of toys, and discloses an integrated spinning top, comprising: a rotating component, a transmission box, a power box, a pull rope, and a pulling member. The bottom of the rotating component is the top of the top, and the transmission box is located on the top of the rotating component. The transmission box is provided with a transmission gear set and a connecting member for driving the rotating component to rotate. The power box and the transmission box are connected by a fixed shaft. The power box has a power spring inside, one end of the power spring is connected to the fixed shaft, and the other end is connected to the power box. The power box has a winding groove on the outside. The lower part of the power box has a gear that meshes with the transmission gear set. One end of the pull rope is tied to the pulling member, and the other end passes through a rope loop and is tied to the winding groove. The present invention integrates the spinning top and the launching device into one, solving the problem of matching the launching device, avoiding the various inconveniences and troubles caused by carrying the launching device, and improving the playing experience of the spinning top. At the same time, the packaging and separation design of the combat components prevents the spinning top from causing damage to the player due to the high-speed rotation of the spinning top.

Description

Technical Field

[0001] The present invention relates to the technical field of toys, in particular to a gyroscope integrating a gyroscope and a launching device. Background Art

[0002] A spinning top is a rigid object that rotates at high speed around a fulcrum and can be used as a toy or fighting tool for entertainment or competition. However, the high-speed rotation of a spinning top often requires the use of various launchers, such as ropes, pull-cord launchers, rack launchers, and other launchers. Once the top has accumulated a certain amount of rotational inertia, it is thrown to the ground and allowed to spin freely or to compete with other spinning tops. Therefore, a spinning top cannot achieve high-speed rotation on its own and must be activated by a launcher. Furthermore, the structure and size of the launchers used for spinning tops designed by different manufacturers vary slightly, and they are generally not interchangeable. Therefore, if the launcher is damaged, lost, or forgotten, the spinning top cannot be played, requiring the purchase of a new launcher. This not only significantly hinders the player's enjoyment but also results in financial losses. Furthermore, some launchers are bulky, making them difficult to carry and a burden.

[0003] In addition to the above defects, the spinning top has different rotation speeds depending on the design of the launching device. The faster the speed, the more interesting it is, but the danger it generates also increases with the rotation speed. For example, when the spinning top is spinning at high speed, if the player grabs the spinning top directly with his hands, it will cause certain injuries to the player. In addition, during the battle, the spinning top has a certain probability of flying out of the battle disk due to the violent collision of the spinning tops, and if it hits any part of the human body, it will also cause corresponding injuries.

[0004] Furthermore, modern spinning top gameplay primarily involves the user first using a whip or launcher to spin the top at high speed, then having the spinning tops collide with each other until one stops to determine the winner. This gameplay and user interaction are quite limited, with the interaction primarily confined to the fixed steps of accelerating, launching, and retrieving the top. The present invention, through a structural design that completely encloses the rotating body, allows the top to be freely grasped or placed at any position by the user at any speed or in any state. This fundamentally changes the interaction method and frequency between the user and the top, creating a completely new way to play with and interact with the top, opening up the possibility for users to independently explore new ways to play with the top. Summary of the Invention

[0005] The purpose of the present invention is to solve the problem that the existing spinning top needs to be equipped with a separate and matching launching device when playing, and the problem that the spinning top itself is likely to cause injuries to the player during high-speed rotation. The present invention provides an integrated spinning top that combines a spinning top and a launching device into one body and has a protective structure to prevent the player's hands or body from being easily injured when the spinning top is rotated at high speed.

[0006] In order to achieve the above-mentioned purpose, the present invention includes: a rotating part, a transmission box, a power box, a pull rope, and a pulling member. The bottom of the rotating part has a top tip, and the transmission box is arranged on the top of the rotating part. A transmission gear group and a connecting member for driving the rotating part to rotate are provided inside the transmission box. The power box is connected to the transmission box through a fixed shaft. The inside of the power box has a power spring, one end of the power spring is connected to the fixed shaft, and the other end is connected to the power box. When the power box rotates on the fixed shaft, it has the function of driving the power spring to tighten or relax. A winding groove is provided on the outside of the power box, and the lower part of the power box has a gear that meshes with the transmission gear group for transmission. One end of the pull rope is tied to the pulling member, and the other end passes through a rope loop and is tied to the winding groove.

[0007] In this technical solution, the gyroscope body and the launching device are integrated into one. In the initial state, the pull cord is wound around the winding groove of the transmission box. At this time, the power spring is in a relaxed state. When the pulling member is pulled by hand, the rope wrapped around the transmission box drives the gear at the bottom of the power box to rotate in the direction of the pull cord. At this time, the power spring is gradually tightened, and at the same time, it drives the transmission gear set in the transmission box to rotate, and then the transmission gear set drives the rotating part to rotate. Conversely, when the pulling member is released, the tightened power spring returns to a relaxed state and drives the lower part of the power box to rotate in the opposite direction of the pull cord. At the same time, the pull cord is rewound around the winding groove of the power box. At this time, the gear at the bottom of the power box drives the transmission gear set to rotate in the opposite direction and disengage the driving rotating part, and the rotating part continues to rotate due to inertia. If the above action is repeated and the pulling member is repeatedly pulled, the rotating part is continuously accelerated. When it reaches a certain speed, the gyroscope is thrown to the ground, and you can start playing and fighting.

[0008] More preferably, the rotating component includes: a rotating ring having a rotating shaft at its center, the lower shaft of the rotating shaft serving as the top of the rotating ring, the upper shaft of the rotating shaft connected to the output end of the transmission gear set, and the shaft is also sleeved with a bearing C.

[0009] In this preferred technical solution, the rotating shaft and the bearing cooperate with each other, and the bearing can relatively reduce the friction and kinetic energy loss of the rotating shaft during the rotation of the rotating component, making it rotate more smoothly.

[0010] More preferably, the gyroscope further comprises: a combat component lower cover and a combat component upper cover, wherein the bottom center of the combat component lower cover is provided with a central hole groove for the top of the rotating component to pass through, and the central hole groove has a bearing D for supporting the top of the gyroscope, or the bottom of the combat component lower cover is provided with a conical head, and a supporting groove is formed inside the conical head, and the supporting groove has a bearing D for supporting the top of the gyroscope, and the combat component upper cover is provided on the transmission box and is closed and connected to the combat component lower cover.

[0011] This preferred technical solution addresses the existing problem of the combat component and rotating component being integrated into a single unit: the faster the rotating component, the stronger the gyroscope's combat capability. However, the probability of injury from the protruding portion of the combat component to the user also increases significantly with the rotational speed, posing a significant risk. Based on this, the combat component is designed to completely enclose the rotating body, separating the combat component and the rotating component, making them independent. When the high-speed rotational force of the rotating component is decoupled by two bearings, any contact between the user's body and the combat component outside the gyroscope will result in minimal impact and no harm, ensuring complete user safety. Furthermore, when the gyroscope is spinning at high speed, if the user's body or hand is not in contact with the combat component, the rotating component, through the action of bearings C and D, drives the combat component along with it in high-speed motion. Conversely, if the user's body or hand contacts the combat component, the combat component immediately stops rotating, and the action of bearings C and D separates the still-rotating rotating component, allowing the inside to rotate while the outside remains, completely preventing any damage to the user caused by the gyroscope's high-speed rotation. Furthermore, because the gyroscope's combat element and rotating element are separate components, when the combat element is struck or collides with an obstacle, the combat element's rotational force is released to the impactor or obstacle, halting rotation. Driven by bearings C and D, the rotating element continues to rotate at a high speed, without slowing down due to interference. Instead, the rotating element naturally consumes its rotational energy, significantly extending the gyroscope's rotation time. Once the combat element leaves the impactor or obstacle, bearings C and D reaccelerate the rotating element, which in turn repeats the process. Furthermore, the dual-bearing design, located on the same axis, minimizes kinetic energy loss in the rotating element, enabling it to achieve extremely high rotational speeds. Furthermore, the high-speed rotation of the rotating shaft is more stable.

[0012] More preferably, a slide groove is provided on the inner bottom of the transmission box, and the transmission gear set includes: double teeth, jump teeth and output teeth that are meshed in sequence. Except for the output teeth, each tooth portion is connected by a shaft. The double teeth are also meshed with the gears at the bottom of the power box. The jump teeth move back and forth in the slide groove through their shafts, and the output teeth are fixed to the rotating component through a connecting piece.

[0013] In this preferred technical solution, the double teeth, jump teeth and output teeth form a three-stage transmission mechanism. When the pulling member is pulled, the power box engages with the upper gear of the double teeth, thereby driving the double teeth to rotate in the opposite direction, and the lower gear of the double teeth drives the jump teeth to rotate. At the same time, the jump teeth move forward in the slide groove. When the jump teeth hits the output teeth and engages with them, it drives the output teeth to rotate, thereby driving the entire rotating part to rotate together. Conversely, when the pulling member is released, the power box drives the double teeth to rotate forward, thereby driving the jump teeth to rotate and at the same time moving along the slide groove away from the output teeth. The jump teeth are separated from the output teeth, and the output teeth and the rotating part continue to rotate as a whole due to inertia.

[0014] More preferably, a slide groove is provided on the inner bottom of the transmission box, and the transmission gear set includes: a first transmission tooth, a second transmission tooth, a double jump tooth and an output tooth that are engaged in transmission in sequence. Except for the output tooth, each tooth portion is connected by a shaft, wherein the first transmission tooth is also engaged with the gear at the lower part of the power box at the same time, the double jump tooth moves back and forth in the slide groove through its shaft, and the output tooth is fixed to the rotating component through a connecting piece.

[0015] In this preferred technical solution, the first transmission teeth, the second transmission teeth, the double jump teeth and the output teeth form a four-stage transmission mechanism, and its working method is similar to the above-mentioned three-stage transmission mechanism. If under the same power box, when the above-mentioned three-stage transmission mechanism is composed of clockwise rotation, the four-stage transmission mechanism can be composed of counterclockwise rotation. Conversely, when the three-stage transmission mechanism is rotated counterclockwise, the four-stage transmission mechanism can be rotated clockwise. The purpose is to ensure that the battle between gyroscopes needs to be achieved through rotation directions opposite to each other. Multiple gyroscopes rotating in the same direction can generally only achieve chasing, and it is difficult to produce fierce fighting, which will reduce the fun of playing with gyroscopes.

[0016] More preferably, a top cover is provided above the transmission case, secured to the transmission case and having a raised portion formed on its top. The pull member is a pull ring that fits snugly over the raised portion of the top cover. This preferred technical solution is based on a gyroscope without a fighting component. After repeated pulling of the pull ring, when it is released, the pull ring quickly fits over the cover, integrating the two and rotating them together with the gyroscope body, thus preventing the pull ring from being dragged during rotation and affecting the gyroscope's balance.

[0017] More preferably, mutually attracting magnets A and B, or magnets and metal, are positioned at corresponding positions within the pull ring and top cover. In this technical solution, the pull ring is automatically retracted and initially returned to its original position by the action of a power box and a rope. That is, after the pull ring is pulled onto the top cover and away from its original position, it is precisely returned to its original position and corrected by the mutual attraction between the magnets, or the magnet and metal.

[0018] More preferably, a top cover is provided above the transmission case, secured to the upper cover of the combat unit. A convex portion is formed at the top of the top cover, and the pull member is a pull ring that fits snugly over the convex portion of the top cover. This preferred technical solution, based on a gyroscope with a combat unit, solves the problem of the pull ring dragging, thereby preventing the gyroscope's balance from being affected.

[0019] Preferably, the pull ring and the combat unit's upper cover are provided with mutually attracting magnets A and B, or magnets and metal iron, at corresponding locations within the pull ring and the upper cover. In this technical solution, the pull ring is automatically retracted and initially returned to its original position by the action of a power box and a rope. That is, after the pull ring is pulled away from its original position, it is precisely returned to its original position and corrected by the mutual attraction between the magnets or the magnet and metal iron.

[0020] Preferably, the rope loop is a metal rope loop or a wear-resistant and high-melting-point rope loop. In this technical solution, the rope generally has a shorter service life than the rope loop due to the friction and heat generated by repeated pulling of the rope. Therefore, a metal rope loop or a wear-resistant and high-melting-point rope loop can extend the service life of the rope.

[0021] More preferably, the power box is provided with an opening on its upper portion, and a cover plate is provided on the opening to be snap-connected to the power box. In this preferred technical solution, the opening is provided to facilitate installation of the power spring, and the cover plate can lock the position of the power spring to prevent it from moving or popping out.

[0022] Compared to existing technologies, this invention integrates the spinning top and launcher into one unit, solving the launcher matching problem and avoiding the inconvenience and hassle of constantly carrying the launcher, thereby enhancing the playing experience. Furthermore, the design of the combat element encasing the rotating body and separating it from the rotating element prevents damage to the user caused by the high-speed rotation of the spinning top. The user can freely grab or place the spinning top anywhere, creating new ways to play with the spinning top and interactive scenarios, opening up the possibility for users to independently explore new ways to play with the spinning top. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is an exploded view of embodiment 1 of the present invention.

[0024] Figure 2 This is a diagram showing the internal structure of the transmission case according to the first embodiment of the present invention.

[0025] Figure 3 This is a cross-sectional view of embodiment 1 of the present invention.

[0026] Figure 4 This is an exploded view of the second embodiment of the present invention.

[0027] Figure 5 It is a cross-sectional view of embodiment 2 of the present invention.

[0028] Figure 6 This is a cross-sectional view of embodiment 3 of the present invention.

[0029] Figure 7 This is a diagram showing the internal structure of the transmission case according to the third embodiment of the present invention.

[0030] Figure 8 This is a cross-sectional view of embodiment 4 of the present invention.

[0031] Explanation of Reference Numerals: 1—pull ring; 2—top cover; 3—rope loop; 4—power box; 5—three-stage transmission gear set; 6—four-stage transmission gear set; 7—transmission box; 8—rotating component; 10—pull rope; 12—combat component lower cover; 13—screw; 14—meson screw; 15—combat component upper cover; 21—cylindrical protrusion; 22—conical protrusion; 42—power spring; 43—cover plate; 44—fixed shaft; 45—connecting seat; 46—open fork groove; 47—winding groove; 48—gear; 50—support groove; 51—double-linked tooth; 52—skip tooth; 53—output tooth; 61—first transmission tooth; 62—second transmission tooth; 63—double-linked skip tooth; 64—output tooth; 81—rotating ring lock; 82—rotating ring; 91—upper shaft of rotating shaft; 92—boss; 93—ring; 94—top of top; 121—center hole groove; conical head 122; A—magnet; B—magnet; C—bearing; D—bearing. DETAILED DESCRIPTION

[0032] The present invention is mainly composed of a rotating part 8, a transmission box 7, a power box 4, a pull rope 10, a pulling member and other parts. In some embodiments, a combat part is also provided. The preferred embodiments of the present invention are described in detail below to facilitate a better understanding of the technical content of the present invention.

[0033] like Figure 1 、 Figure 2 、 Figure 3 As shown, in the first embodiment, the rotating component 8 comprises a rotating ring 82 and a rotating shaft. The rotating ring is conical, with a top tip 94 at its base and an open cavity within. The rotating shaft is centrally located within the rotating ring cavity, coaxially aligned with the top tip. The rotating shaft and rotating ring are integrally formed, resulting in an integrated design. Furthermore, a bearing C is provided on the upper shaft 91 of the rotating shaft.

[0034] The transmission case 7, also known as the accelerator case, is located above the rotating component 8. The top of the transmission case is an open cavity with a chute located at the bottom. It also houses a three-stage transmission gear set 5 consisting of a duplex gear 51, a jump gear 52, and an output gear 53. The duplex gear is composed of upper and lower gears, secured by their shafts. The lower gear of the duplex gear engages with the jump gear, which moves back and forth within the chute via its shaft, changing position and rotating. This shift in position allows the output gear to engage and disengage, transmitting power. The output gear is located at the center of the transmission case, coaxial with the rotating shaft. The output gear is connected to the rotating shaft of the rotating component via a pion screw 14, thereby driving the rotating component's overall rotation. The bottom of the transmission case also forms an outwardly protruding support groove 50 for the bearing C.

[0035] The open cavity of the transmission box 7 is also provided with a transmission box cover, i.e., the top cover 2 of the gyroscope. The transmission box cover and the open cavity are snap-fitted together by means of claws and slots to seal the open cavity. A convex portion is also formed on the top of the transmission box cover, which is a cylindrical convex portion 21.

[0036] The power box 4 is arranged in the open cavity of the transmission box 7, and the two are connected by a fixed shaft 44. The bottom end of the fixed shaft is provided with a connecting seat 45 integrally formed with it. The connecting seat is fixed to the bottom of the open cavity by screws, and the upper end of the fixed shaft is formed with an open fork groove 46. A power spring 42 is provided inside the power box and is sleeved on the fixed shaft together with the power box. One end of the power spring is connected to the open fork groove of the fixed shaft, and the other end is connected to the power box, so that the power spring can tighten or relax as the power box rotates. The outside of the power box is provided with a winding groove 47 for connecting and winding the pull rope. The top of the power box is formed with an open design to facilitate the installation of the power spring. A cover plate 43 is provided on the opening, and the cover plate and the opening are snap-fitted and fixed by claws and slots. The lower part of the power box is provided with a gear 48, which meshes with the upper gear of the double-toothed 51 to realize the operation of the driving transmission box.

[0037] One end of the pull rope 10 is tied to the pull ring 1, and the other end passes through the rope loop 3 and is tied to the winding groove 47 of the power box and is wound.

[0038] The pull ring 1 serves as a pulling member and can be matched and sleeved on the cylindrical protrusion 21 of the transmission box upper cover. When the pull rope is automatically retracted, the pull ring is naturally sleeved on the power box upper cover.

[0039] The above-mentioned rope loop 3 is a metal rope loop and is fixed to the side of the transmission box upper cover (i.e., the top cover 2).

[0040] In this embodiment, the pull ring 1 and the transmission box cover are both equipped with attractive magnets A and magnet B. The positions of magnet A and magnet B correspond to each other. When the pull rope is retracted, the pull ring is put on the transmission box cover and automatically returns to its position. In addition, a combination of magnets and metal iron, or other magnets with magnetic attraction properties can also be used here.

[0041] like Figure 4 、 Figure 5As shown, in the second embodiment, the rotating component includes a rotating ring 82 and a rotating shaft. The rotating ring is a symmetrical hollow ring with a central through-hole at its bottom. The rotating shaft is provided with a ring portion 93 with a larger diameter than the central through-hole. A protrusion 92 is formed on the upper surface of the ring portion, which fits snugly within the central through-hole. A groove is provided on the surface of the protrusion, and the rotating ring 82 and the rotating shaft are secured together by a matching rotating ring locking member 81. The rotating ring locking member's claws engage the grooves of the protrusion 92 for a snap-fit ​​connection. The top of the protrusion forms the upper shaft body 91 of the rotating shaft. The lower shaft body of the rotating shaft is a top tip 94. Furthermore, the lower shaft body (i.e., the top tip) and the upper shaft body of the rotating shaft are respectively fitted with bearings C and D.

[0042] The transmission box 7 is also called the acceleration box. The transmission box is located above the rotating ring 82. A circular groove is formed in the middle of the top of the transmission box. A slide groove is provided at the inner bottom of the circular groove. There is also a three-stage transmission gear set 5 consisting of a double-linked tooth 51, a jump tooth 52 and an output tooth 53. Figure 4 、 Figure 5 . Among them, the double-toothed gear is composed of upper and lower gears, which are fixed by their shaft bodies. The lower gear of the double-toothed gear is engaged with the jump tooth. The jump tooth moves back and forth in the slide groove through its shaft body to change position and rotate, and is engaged with or separated from the output tooth by changing position. The output tooth is arranged at the center of the transmission box and is located on the same axis as the rotating shaft. The output tooth is connected to the upper shaft body of the rotating shaft as a whole through T-shaped nails or screws 13 as connecting parts, so that the rotating parts are driven to rotate as a whole through the rotation of the output teeth. A transmission box cover is also provided above the transmission box, that is, the top cover 2 of the gyroscope. A convex portion is formed on the top of the transmission box cover, and the convex portion is a conical convex portion 22. The transmission box cover is inserted into the upper end of the fixed shaft 44, that is, the end of the open fork groove 46.

[0043] The power box 4 is arranged on the circular groove of the transmission box, and the two are connected by a fixed shaft 44. The bottom end of the fixed shaft is provided with a connecting seat 45 integrally formed with it. The connecting seat is fixed to the bottom of the circular groove by screws. The upper end of the fixed shaft forms an open fork groove 46. A power spring 42 is provided inside the power box and is sleeved on the fixed shaft together with the power box. One end of the power spring is connected to the open fork groove of the fixed shaft, and the other end is connected to the power box, so that the power spring can tighten or loosen as the power box rotates. The outside of the power box is provided with a winding groove 47 for connecting and winding the pull rope. The top of the power box is formed with an open design to facilitate the installation of the power spring. A cover plate 43 is provided on the opening. The cover plate and the opening are fixedly connected by a claw and a slot. The lower part of the power box is provided with a gear 48, which meshes with the upper gear of the double-toothed 51 to realize the operation of the driving transmission box.

[0044] One end of the pull rope 10 is tied to the pull ring 1, and the other end passes through the rope loop 3 and is tied to the winding groove 47 of the power box and is wound.

[0045] The pull ring 1 serves as a pulling member and can be matched and sleeved on the conical protrusion 22 of the transmission box cover. When the pull rope is automatically recovered, the pull ring is naturally sleeved on the transmission box cover.

[0046] The above-mentioned rope loop 3 is a metal rope loop, or the rope loop can be integrally formed with the upper cover of the combat component, or the inner ring of the rope loop is designed as a metal ring.

[0047] This embodiment also includes a combat unit, which consists of a combat unit lower cover 12 and a combat unit upper cover 15. A central hole 121 is located at the bottom center of the combat unit lower cover, through which the rotating unit's top tip passes. This center hole also serves as a support for the bearing D. After installation, the top tip is exposed through the center hole. The combat unit upper cover 15 is an annular body, the inner ring of which is provided with a snap-fitting slot and a rope loop seat. The snap-fitting slot is used for snap-fitting with the transmission case upper cover (i.e., top cover 2), while the rope loop seat is used to secure the rope loop. During installation, the transmission case 7 is clamped between the combat unit upper cover and the combat unit lower cover, and the two are simultaneously secured together into a single unit through snap-fitting fastening.

[0048] In this embodiment, the pull ring 1 and the upper cover 15 of the combat component are both equipped with mutually attractive magnets A and magnet B, and the positions of magnet A and magnet B correspond to each other, so that after the pull rope is recovered, the pull ring is put on the upper cover of the transmission box and automatically returns to its position. In addition, a combination of magnets and metal iron, or a magnet with magnetic attraction properties can also be used here.

[0049] like Figure 6 、 Figure 7 As shown, in Example 3, the difference from Example 2 is that the rotating ring 82 and the rotating shaft of the rotating component are of integrated design, that is, integrally formed, the overall outer shape of the rotating ring is a cone, the bottom of the rotating ring is a top tip 94 (that is, the lower shaft body of the rotating shaft), and the top tip also exposes the central hole groove of the lower cover 15 of the combat component, and an upper shaft body 91 (that is, the upper shaft body of the rotating shaft) protrudes from the inner center position of the rotating ring.

[0050] In addition, a circular groove is formed in the middle of the transmission box 7, and a sliding groove is provided at the bottom of the circular groove, as well as a four-stage transmission gear set 6 consisting of a first transmission tooth 61, a second transmission tooth 62, a double jump tooth 63 and an output tooth 64. Here, the first transmission tooth is fixed by its shaft body, and the first transmission tooth is meshed with the gear 48 and the second transmission tooth 62 at the lower part of the power box at the same time. The second transmission tooth and the double jump tooth 63 are also fixed by their shaft bodies. Among them, the shaft body of the double jump tooth is located in the sliding groove and can move back and forth to change position and rotate. By changing position, the upper gear of the double jump tooth is engaged with the second transmission tooth, and the lower gear of the double jump tooth is engaged or disengaged with the output tooth 64. The output tooth is located in the center of the transmission box 7 and is located on the same axis as the rotating shaft. Then, T-shaped nails or screws are used as connecting members to connect to the upper shaft body of the rotating part as a whole, so that the rotation of the rotating part is driven by the rotation of the output tooth.

[0051] like Figure 8 As shown, in the fourth embodiment, the difference from the third embodiment is that the bottom center of the lower cover 12 of the combat component is a conical head 122, not a center hole groove. The conical head can be used as a fulcrum of the combat component on the ground. A supporting groove is formed inside the conical head, which is located on the same axis as the top of the top or deviated from the axis. The supporting groove can be used for the placement of the bearing D, that is, the top of the top 94 is not exposed to the outside.

Claims

1. An integrated gyroscope, comprising: A rotating component (8) and a transmission box (7), wherein the bottom of the rotating component has a top (94), the transmission box is arranged on the top of the rotating component, and a receiving cavity is provided inside the transmission box, and a transmission gear set and a connecting member for driving the rotating component to rotate are provided in the receiving cavity, wherein the transmission box is characterized in that it also includes: a power box (4), a pull rope (10), a pull ring (1), and a transmission box cover covering the receiving cavity of the transmission box, wherein the power box is arranged inside the receiving cavity of the transmission box and is connected to the transmission box through a fixed shaft (44), and the power box The power spring (42) is provided inside and is sleeved on a fixed shaft together. One end of the power spring is connected to the fixed shaft and the other end is connected to a power box (4). When the power box rotates on the fixed shaft, it drives the power spring to tighten or loosen. A winding groove (47) is provided on the outside of the power box. The lower part of the power box has a gear (48) that meshes with the transmission gear set. One end of the pull rope is tied to the pull ring, and the other end passes through a rope loop (3) and is tied to the winding groove. A convex portion is formed on the top of the transmission box cover. The pull ring can be matched and sleeved on the convex portion of the transmission box cover. At the corresponding positions inside the pull ring (1) and the top cover (2), there are magnets A and magnets B that attract each other, or magnets and metal iron.

2. The integrated gyroscope according to claim 1, characterized in that: The rotating component comprises: a rotating ring (82), a combat component lower cover (12) and a combat component upper cover (15), wherein the center of the rotating ring has a rotating shaft, the lower shaft body of the rotating shaft serves as the top of the rotating ring (94), the upper shaft body of the rotating shaft is connected to the transmission gear set, and the shaft body is also sleeved with a bearing C, the bottom center of the combat component lower cover is provided with a central hole groove (121) for the top of the rotating component to pass through, and the central hole groove has a bearing D supporting the top, or the bottom of the combat component lower cover is provided with a conical head (122), and the conical head has a supporting groove formed therein, and the supporting groove has a bearing D supporting the top, and the combat component upper cover is provided on the transmission box and is closed and connected to the combat component lower cover.

3. The integrated gyroscope according to claim 2, characterized in that: The transmission box upper cover is fixed to the combat component upper cover, and the magnet A and the magnet B, or the magnet and the metal iron, are respectively arranged inside the pull ring (1) and the combat component upper cover (15), and correspond to each other.

4. The integrated gyroscope according to claim 1, wherein: The rope loop (3) is a metal rope loop.

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