Multi-movement four-legged motorized toy movement
By designing a multi-motion quadruped electric toy mechanism, and utilizing a complex gear rack and motor drive system, it enables various movements such as walking, lying down, push-ups, sitting, and handstands. This solves the problem of the limited range of movements in existing electric toys, enhances the fun, and ensures the coordination and stability of the movements.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- HUAXIN ELECTRONIC TECH (JIANGSU) CO LTD
- Filing Date
- 2025-07-18
- Publication Date
- 2026-06-26
AI Technical Summary
Existing electric toys have relatively simple movements and lack fun.
Design a multi-motion quadruped electric toy mechanism that enables various movements such as walking, lying down, push-ups, sitting, and inverting through a complex gear rack and motor drive system. Combine limit switches and electrode plates to control the coordination of each movement.
It enables the toy to perform multiple actions, enhancing its fun, and ensures the coordination and stability of the actions through a reasonable transmission mechanism and control method, thereby reducing manufacturing costs.
Smart Images

Figure CN224404345U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of toy technology, and in particular to a multi-mode quadruped electric toy mechanism. Background Technology
[0002] Toys are a popular form of entertainment enjoyed by both children and adults, bringing happiness and sparking imagination in children. The market offers a wide variety of toys, including puzzles, dolls, model cars, building blocks, board games, and card games. Electric toys are motorized toys powered by miniature electric motors, most of which are battery-powered; they are also known as battery-operated toys. Electric toys require minimal effort to play with and help develop children's fine motor skills, spatial awareness, and physical abilities. Some electric toys can also be used for educational purposes to help children develop a wider range of skills.
[0003] In existing technologies, electric toys have relatively simple movements, thus lacking fun. Utility Model Content
[0004] The purpose of this utility model is to provide a multi-mode quadruped electric toy mechanism, in which a single toy can perform actions such as walking, lying down, push-ups, sitting, and standing upside down, which is highly entertaining and solves the problems mentioned in the background art.
[0005] To achieve the above objectives, this utility model provides the following technical solution:
[0006] A multi-mode quadruped electric toy mechanism includes a body with a gearbox inside. The gearbox contains a first reduction gear set and a second reduction gear set. A first motor is driven by the first reduction gear set, and a second motor is driven by the second reduction gear set. Two mutually rotating front half-shafts are connected to the front of the gearbox. The first reduction gear set is driven by the front half-shafts, and eccentric cams are connected to both ends of the front half-shafts. The left front leg and left rear leg are respectively connected to the two eccentric cams. Two mutually rotating rear half-shafts are connected to the rear of the gearbox. The front half-shafts are driven by the rear half-shafts, and eccentric cams are connected to both ends of the rear half-shafts. The left rear leg and right rear leg are driven by the rear half-shafts. Each gearbox is connected to two eccentric cams; the front end of the gearbox is connected to a front axle sleeve, the second reduction gear set is driven and connected to the front axle sleeve, the two ends of the front axle sleeve are connected to front rocker arms, and the left and right front feet are respectively connected to the two front rocker arms; the rear end of the gearbox is connected to a rear axle sleeve, the front axle sleeve is driven and connected to the rear axle sleeve, the two ends of the front axle sleeve are connected to rear rocker arms, and the left and right rear feet are respectively connected to the two rear rocker arms; the gearbox is connected to a front limit rod and a rear limit rod, the front limit rod contacts the front half shaft to keep the two front half shafts relatively stationary, and the left and right front feet are aligned; the rear limit rod contacts the rear half shaft to keep the two rear half shafts relatively stationary, and the left and right rear feet are aligned.
[0007] A further improvement of this utility model is that the front half-shaft includes a left front half-shaft and a right front half-shaft, with the left front half-shaft rotatably connected to the right front half-shaft; one end of the left front half-shaft is connected to a left front eccentric cam, and the left front foot is connected to the left front eccentric cam; one end of the right front half-shaft is connected to a right front eccentric cam, and the right front foot is connected to the right front eccentric cam; one end of the left front half-shaft is provided with a left front arc-shaped block, and one end of the right front half-shaft is provided with a right front arc-shaped block; the two ends of the left front arc-shaped block and the right front arc-shaped block can contact each other so that the left front half-shaft and the right front half-shaft can rotate relative to each other within a fixed range.
[0008] A further improvement of this utility model is that the rear half-shaft includes a left rear half-shaft and a right rear half-shaft, with the left rear half-shaft rotatably connected to the right rear half-shaft; one end of the left rear half-shaft is connected to a left rear eccentric cam, and a left rear foot is connected to the left rear eccentric cam; one end of the right rear half-shaft is connected to a right rear eccentric cam, and a right rear foot is connected to the right rear eccentric cam; one end of the left rear half-shaft is provided with a left rear arc-shaped block, and one end of the right rear half-shaft is provided with a right rear arc-shaped block; the two ends of the left rear arc-shaped block and the right rear arc-shaped block can contact each other so that the left rear half-shaft and the right rear half-shaft can rotate relative to each other within a fixed range.
[0009] A further improvement of this utility model is that a first motor is connected to the gearbox, and the first motor drives a reduction gear set connected to the gearbox through a pulley assembly or gears; a gear A is connected to the power output shaft of the first motor, and gears A, B, C, D and E mesh sequentially; a gear F is connected to the front half shaft, and gear F is a 90° reversing gear; a gear G is connected to the rear half shaft, and gear G is a 90° reversing gear; two first supports are connected to the outer wall of the gearbox, and the two ends of the first transmission shaft are rotatably connected to the two first supports. Both ends of the first transmission shaft are gears, and the gears at both ends of the first transmission shaft mesh with gears F and gear G respectively; a first side cover is connected to the side of the gearbox, and the first supports and the first transmission shaft are located inside the first side cover; or the power output end of the first motor is connected to a first driving pulley, and a first driven pulley is connected to the axle of gear B, and a first belt is connected between the first driving pulley and the first driven pulley.
[0010] A further improvement of this utility model is that a gear H is connected to the first transmission shaft, a base is connected to the outer wall of the gearbox, a 90° reversing gear I is rotatably connected to the base, and a reversing cam is connected to the axle of gear I; a first limit switch and a second limit switch are connected to the outer wall of the first side cover, and the reversing cam can contact the contacts of the first limit switch and the second limit switch; a front limit rod and a rear limit rod are respectively connected to two first supports, a front disc is connected to the front half shaft, two front protrusions are connected to the side of the front disc, and the front limit rod is limited between the two front protrusions on the side of the front disc; a rear disc is connected to the rear half shaft, two rear protrusions are connected to the side of the rear disc, and the rear limit rod is limited between the two rear protrusions on the side of the rear disc.
[0011] A further improvement of this utility model is that the front axle sleeve includes a left front axle sleeve and a right front axle sleeve. The left front axle sleeve is connected to the right front axle sleeve via a front U-shaped bracket. One end of the left front axle sleeve is connected to a left front swing arm, and the left front foot is connected to the left front swing arm. One end of the right front axle sleeve is connected to a right front swing arm, and the right front foot is connected to the right front swing arm. The rear axle sleeve includes a left rear axle sleeve and a right rear axle sleeve. The left rear axle sleeve is connected to the right rear axle sleeve via a rear U-shaped bracket. One end of the left rear axle sleeve is connected to a left rear swing arm, and the left rear foot is connected to the left rear swing arm. One end of the right rear axle sleeve is connected to a right rear swing arm, and the right rear foot is connected to the right rear swing arm. The front half-shaft and the rear half-shaft pass through the front axle sleeve and the rear axle sleeve, respectively.
[0012] A further improvement of this utility model is that a second motor is connected to the gearbox, and the second motor drives a reduction gear set connected to the gearbox through a pulley assembly or gears; a gear J is connected to the power output shaft of the second motor, and gears J, K, L, M, N, Z, and O mesh sequentially; gear O is a 90° reversing gear, a 90° reversing gear P is connected to the rear axle sleeve, and a 90° reversing gear Q is connected to the front axle sleeve; a second support is connected to the outer wall of the gearbox, and both ends of the second transmission shaft are rotatably connected to the second support, both ends of the second transmission shaft are gears, and the gears at both ends of the second transmission shaft mesh with gears P and gear Q respectively; a second side cover is connected to the side of the gearbox, and the second support and the second transmission shaft are located inside the second side cover; or the power output end of the second motor is connected to a second driving pulley, a second driven pulley is connected to the axle of gear K, and a second belt is connected between the second driving pulley and the second driven pulley.
[0013] A further improvement of this utility model is that a conductive wheel is connected to the front U-shaped frame, and the conductive wheel has two contacts. An electrode plate is connected inside the gearbox, and an electrode sheet is provided on the side of the electrode plate near the guide wheel. The electrode sheet includes a positive electrode and a negative electrode. One positive electrode has a continuous structure, and the other negative electrode has an intermittent structure. The two contacts on the conductive wheel are in contact with the positive electrode and the negative electrode, respectively. The negative electrode includes a prone position, a push-up position, a sitting and inverted floating position, a return-to-center position, and a sitting and inverted position.
[0014] A further improvement of this utility model is that a bottom cover is connected to the bottom of the body, a power supply and a circuit board are installed inside the bottom cover, a speaker is connected to the top of the body, and the first motor, the second motor, the charging port, the switch, the speaker and the electrode plate are all electrically connected to the circuit board, and the switch and the charging port are exposed outside the bottom cover.
[0015] A further improvement of this utility model is that a front support rod is connected to the front end of the machine body, a tail rod is connected to the rear end of the machine body, and a counterweight is connected inside the rear end of the machine body.
[0016] The beneficial effects of this utility model are:
[0017] This utility model relates to a multi-mode quadruped electric toy mechanism, in which a single toy can perform actions such as walking, lying down, push-ups, sitting, and standing on its head, making it highly entertaining.
[0018] This utility model relates to a multi-motion quadruped electric toy mechanism with a reasonable layout of each transmission mechanism, high transmission efficiency, stable and reliable structure, and low manufacturing cost.
[0019] This utility model relates to a multi-motion quadruped electric toy mechanism that uses limit switches in conjunction with electrode plates to control each movement, ensuring greater coordination between the movements. Attached Figure Description
[0020] Figure 1 This is a schematic diagram of the overall structure of this utility model.
[0021] Figure 2 This is a schematic diagram of the overall structure of this utility model.
[0022] Figure 3 This is an exploded view of the present invention.
[0023] Figure 4 This is a schematic diagram of the internal structure of the fuselage of this utility model.
[0024] Figure 5 This is a schematic diagram of the internal structure of the dental box of this utility model.
[0025] Figure 6 This is a schematic diagram of the first reduction gear set of this utility model.
[0026] Figure 7 This is a schematic diagram of the first reduction gear set of this utility model.
[0027] Figure 8 This is a schematic diagram of the first reduction gear set of this utility model.
[0028] Figure 9 This is a schematic diagram of the right front half-shaft of this utility model.
[0029] Figure 10 This is a schematic diagram of the structure of the left front half-shaft of this utility model.
[0030] Figure 11 This is a schematic diagram of the second reduction gear set of this utility model.
[0031] Figure 12 This is a schematic diagram of the second reduction gear set of this utility model.
[0032] Figure 13 This is a schematic diagram of the electrode plate structure of this utility model.
[0033] Figure 14This is a schematic diagram of the electrode plate structure of this utility model.
[0034] Figure 15 This is a schematic diagram of the internal structure of the fuselage of this utility model.
[0035] In the diagram: 1-body, 2-gearbox, M1-first motor, M2-second motor, 3-left front foot, 4-right front foot, 5-left rear foot, 6-right rear foot, 7-front limit rod, 8-rear limit rod, 9-left front half-shaft, 10-right front half-shaft, 11-left front eccentric cam, 12-right front eccentric cam, 13-left front arc block, 14-right front arc block, 15-left rear half-shaft, 16-right rear half-shaft, 17-left rear eccentric cam, 18-right rear eccentric cam, 21- Gear A, 22-Gear B, 23-Gear C, 24-Gear D, 25-Gear E, 26-Gear F, 27-Gear G, 28-First Support, 29-First Drive Shaft, 30-First Side Cover, 31-Gear H, 32-Base, 33-Gear I, 34-Reversing Cam, N1-First Limit Switch, N2-Second Limit Switch, 35-Front Disc, 36-Front Protrusion, 37-Rear Disc, 38-Rear Protrusion, 39-Left Front Shaft Sleeve, 40-Right Front 41-Front U-shaped bracket, 42-Left front swing arm, 43-Right front swing arm, 44-Left rear shaft sleeve, 45-Right shaft sleeve, 46-Left rear swing arm, 47-Right rear swing arm, 49-Gear J, 50-Gear K, 51-Gear L, 52-Gear M, 53-Gear N, 54-Gear O, 55-Gear P, 56-Gear Q, 58-Second drive shaft, 59-Second side cover, 60-Conductive wheel, 61-Electrode plate, 62-Lying position, 63-Push-up Points, 64-sitting and inverted floating points, 65-return to center point, 66-sitting and inverted points, 67-bottom cover, 68-circuit board, 69-speaker, 70-charging port, 71-switch, 72-front support rod, 73-tail rod, 74-counterweight, 75-rear U-shaped frame, 76-gear Z, 77-first driving pulley, 78-first driven pulley, 79-first belt, 80-second driving pulley, 81-second driven pulley, 82-second belt. Detailed Implementation
[0036] The present invention will be further explained below with reference to the accompanying drawings and specific embodiments.
[0037] Example 1: As Figures 1-14As shown, a multi-motion quadruped electric toy mechanism includes a body 1, with a gearbox 2 connected inside the body 1. The gearbox 2 contains a first reduction gear set and a second reduction gear set. A first motor M1 is driven and connected to the first reduction gear set, and a second motor M2 is driven and connected to the second reduction gear set. Two mutually rotating front half-shafts are connected to the front end of the gearbox 2. The first reduction gear set is driven and connected to the front half-shafts. Eccentric cams are connected to both ends of the front half-shafts. The left front leg 3 and the left rear leg 5 are respectively connected to the two eccentric cams. Two mutually rotating rear half-shafts are connected to the rear end of the gearbox 2. The front half-shafts are driven and connected to the rear half-shafts. Eccentric cams are connected to both ends of the rear half-shafts. The left rear leg 5 and the right rear leg 5 are respectively connected to the two eccentric cams. Foot 6 is connected to two eccentric cams respectively; the front end of gearbox 2 is connected to a front axle sleeve, the second reduction gear set is driven and connected to the front axle sleeve, the two ends of the front axle sleeve are connected to front swing arms, the left front foot 3 and the right front foot 4 are respectively connected to the two front swing arms; the rear end of gearbox 2 is connected to a rear axle sleeve, the front axle sleeve is driven and connected to the rear axle sleeve, the two ends of the front axle sleeve are connected to rear swing arms, the left rear foot 5 and the right rear foot 6 are respectively connected to the two rear swing arms; the gearbox 2 is connected to a front limit rod 7 and a rear limit rod 8. The front limit rod 7 contacts the front half shaft to keep the two front half shafts relatively stationary, and the left front foot 3 and the right front foot 4 are aligned; the rear limit rod 8 contacts the rear half shaft to keep the two rear half shafts relatively stationary, and the left rear foot 5 is aligned with the right rear corner.
[0038] The front half-shaft includes a left front half-shaft 9 and a right front half-shaft 10. The left front half-shaft 9 is rotatably connected to the right front half-shaft 10. One end of the left front half-shaft 9 is connected to a left front eccentric cam 11, and a left front foot 3 is connected to the left front eccentric cam 11. One end of the right front half-shaft 10 is connected to a right front eccentric cam 12, and a right front foot 4 is connected to the right front eccentric cam 12. One end of the left front half-shaft 9 is provided with a left front arc-shaped block 13, and one end of the right front half-shaft 10 is provided with a right front arc-shaped block 14. The two ends of the left front arc-shaped block 13 and the right front arc-shaped block 14 can contact each other so that the left front half-shaft 9 and the right front half-shaft 10 can rotate relative to each other within a fixed range.
[0039] The rear half-shaft includes a left rear half-shaft 15 and a right rear half-shaft 16. The left rear half-shaft 15 is rotatably connected to the right rear half-shaft 16. One end of the left rear half-shaft 15 is connected to a left rear eccentric cam 17, and a left rear foot 5 is connected to the left rear eccentric cam 17. One end of the right rear half-shaft 16 is connected to a right rear eccentric cam 18, and a right rear foot 6 is connected to the right rear eccentric cam 18. One end of the left rear half-shaft 15 is provided with a left rear arc-shaped block, and one end of the right rear half-shaft 16 is provided with a right rear arc-shaped block. The two ends of the left rear arc-shaped block and the right rear arc-shaped block can contact each other so that the left rear half-shaft 15 and the right rear half-shaft 16 can rotate relative to each other within a fixed range.
[0040] The function of the left front arc block 13 and the right front arc block 14, the left rear arc block and the right rear arc block is to make the left front foot 3 and the right front foot 4, and the left rear foot 5 and the right rear foot 6 staggered or aligned.
[0041] The first motor M1 is connected to the gearbox 2. The first motor M1 is driven by a gear set connected to the gearbox 2. Gear A21 is connected to the power output shaft of the first motor M1. Gears A21, B22, C23, D24 and E25 mesh in sequence. Gear F26 is connected to the front half shaft. Gear F26 is a 90° reversing gear. Gear G27 is connected to the rear half shaft. Gear G27 is a 90° reversing gear. Two first supports 28 are connected to the outer wall of the gearbox 2. The two ends of the first drive shaft 29 are rotatably connected to the two first supports 28. Both ends of the first drive shaft 29 are gears, and the gears at both ends of the first drive shaft 29 mesh with gears F26 and gear G27 respectively. A first side cover 30 is connected to the side of the gearbox 2. The first supports 28 and the first drive shaft 29 are located inside the first side cover 30.
[0042] Gear H31 is connected to the first drive shaft 29. A base 32 is connected to the outer wall of the gearbox 2. Gear I33 with 90° reversing direction is rotatably connected to the base 32. A reversing cam 34 is connected to the axle of gear I33. A first limit switch N1 and a second limit switch N2 are connected to the outer wall of the first side cover 30. The reversing cam 34 can contact the contacts of the first limit switch N1 and the second limit switch N2. The front limit rod 7 and the rear limit rod 8 are respectively connected to the two first supports 28. A front disc 35 is connected to the front half shaft. Two front protrusions 36 are connected to the side of the front disc 35. The front limit rod 7 is restricted between the two front protrusions 36 on the side of the front disc 35. A rear disc 37 is connected to the rear half shaft. Two rear protrusions 38 are connected to the side of the rear disc 37. The rear limit rod 8 is restricted between the two rear protrusions 38 on the side of the rear disc 37.
[0043] The function of the front limit rod 7 and the front protrusion 36, and the rear limit rod 8 and the rear protrusion 38 is to allow the front foot and the rear foot to swing within a fixed range.
[0044] The front axle sleeve includes a left front axle sleeve 39 and a right front axle sleeve 40. The left front axle sleeve 39 is connected to the right front axle sleeve 40 through a front U-shaped bracket 41. One end of the left front axle sleeve 39 is connected to a left front swing arm 42, and a left front foot 3 is connected to the left front swing arm 42. One end of the right front axle sleeve 40 is connected to a right front swing arm 43, and a right front foot 4 is connected to the right front swing arm 43. The rear axle sleeve includes a left rear axle sleeve 44 and a right rear axle sleeve 45. The left rear axle sleeve 44 is connected to the right rear axle sleeve 45 through a rear U-shaped bracket 75. One end of the left rear axle sleeve 44 is connected to a left rear swing arm 46, and a left rear foot 5 is connected to the left rear swing arm 46. One end of the right rear axle sleeve 45 is connected to a right rear swing arm 47, and a right rear foot 6 is connected to the right rear swing arm 47. The front half-shaft and the rear half-shaft pass through the front axle sleeve and the rear axle sleeve, respectively.
[0045] The second motor M2 is connected to the gearbox 2. The second motor M2 is driven by a gear to a reduction gear set inside the gearbox 2. Gear J49 is connected to the power output shaft of the second motor M2. Gears J49, K50, L51, M52, N53, Z76, and O54 mesh in sequence. Gear O54 is a 90° reversing gear. A 90° reversing gear P55 is connected to the rear axle sleeve, and a 90° reversing gear Q56 is connected to the front axle sleeve. A second support is connected to the outer wall of the gearbox 2. Both ends of the second drive shaft 58 are rotatably connected to the second support. Both ends of the second drive shaft 58 are gears, and the gears at both ends of the second drive shaft 58 mesh with gears P55 and gear Q56, respectively. A second side cover 59 is connected to the side of the gearbox 2. The second support and the second drive shaft 58 are located inside the second side cover 59.
[0046] A conductive wheel 60 is connected to the front U-shaped frame 41. The conductive wheel 60 has two contacts. An electrode plate 61 is connected inside the gearbox 2. An electrode plate is provided on the side of the electrode plate 61 near the guide wheel. The electrode plate includes a positive electrode and a negative electrode. One positive electrode has a continuous structure, and the other negative electrode has an intermittent structure. The two contacts on the conductive wheel 60 are in contact with the positive electrode and the negative electrode, respectively. The negative electrode includes a prone position 62, a push-up position 63, a sitting and inverted floating position 64, a return-to-center position 65, and a sitting and inverted position 66.
[0047] The bottom of the body 1 is connected to a bottom cover 67. A power supply and circuit board 68 are installed inside the bottom cover 67. A controller is installed on the circuit board 68. A speaker 69 is connected to the top inside the body 1. The first motor M1, the second motor M2, the charging port 70, the switch 71, the speaker 69 and the electrode plate 61 are all electrically connected to the circuit board 68, and the switch 71 and the charging port 70 are exposed on the bottom cover 67.
[0048] The front support rod 72 is connected to the front end of the body 1, the tail rod 73 is connected to the rear end of the body 1, and a counterweight block 74 is connected inside the rear end of the body 1.
[0049] Example 2: As Figure 15 As shown, this embodiment differs from Embodiment 1, with the main improvements being:
[0050] The first motor M1 drives the reduction gear set connected in the gearbox 2 through the pulley assembly; the power output end of the first motor M1 is connected to the first driving pulley 77, the axle of gear B22 is connected to the first driven pulley 78, and the first driving pulley 77 and the first driven pulley 78 are connected by a first belt 79 for transmission; gears B22, C23, D24 and E25 mesh in sequence.
[0051] The second motor M2 drives the reduction gear set connected in the gearbox 2 through the pulley assembly; the power output end of the second motor M2 is connected to the second driving pulley 80, the axle of gear K50 is connected to the second driven pulley 81, and the second driving pulley 80 and the second driven pulley 81 are connected by a second belt 82 for transmission. Gears K50, L51, M52, N53, Z76 and O54 mesh in sequence.
[0052] Apart from the above, this embodiment is exactly the same as Embodiment 1, and will not be described again here.
[0053] When this utility model is in operation:
[0054] In this embodiment, the mechanism is used as the inner core of an electric plush toy dog.
[0055] The first motor M1 rotates forward to drive the left front half shaft 9, right front half shaft 10, left rear half shaft 15, and right rear half shaft 16 to rotate, cooperating with the left front eccentric cam 11, right front eccentric cam 12, left rear eccentric cam 17, and right rear eccentric cam 18, and cooperating with the left front foot 3, right front foot 4, left rear foot 5, and right rear foot 6 to complete the walking action. Reversing the rotation completes the action of the left front foot 3 and right front foot 4, and the left rear foot 5 and right rear foot 6 being aligned.
[0056] The second motor M2 rotates forward to drive the left front axle sleeve 39, right front axle sleeve 40, left rear axle sleeve 44, and right rear axle sleeve 45 to rotate. This, in conjunction with the left front swing arm 42, right front swing arm 43, left rear swing arm 46, and right rear swing arm 47, and with the left front foot 3, right front foot 4, left rear foot 5, and right rear foot 6, completes the actions of inverting, sitting down, lying down, and doing push-ups.
[0057] The first motor M1 drives gears A21, B22, C23, D24, F26 to mesh and move. Simultaneously, the first transmission shaft 29 transmits power to gear G27. When the first motor M1 rotates forward, it drives the four legs to walk. When walking, it touches either the first limit switch N1 or the second limit switch N2 and then reverses 270° to align the front left and right legs, as well as the rear left and right legs. Only then can the second motor M2 be driven to achieve the actions of inverting, sitting, lying down, and doing push-ups. The first motor rotating forward and touching the first limit switch N1, then reversing 270°, results in an inverted position; rotating forward and touching the second limit switch N2, then reversing 270°, results in sitting.
[0058] The second motor M2 drives gears J49, K50, L51, M52, N53, Z76, and O54 for meshing and transmission. At the same time, the second transmission shaft 58 transmits power to gears P55 and Q56. When the second motor M2 rotates forward, it reaches the limit position 62 for lying down and the limit position 66 for sitting and inverted. When the second motor M2 reaches the return-to-center position 65, it is the normal walking position. The sitting and inverted positions 66 and 64 move up and down, and the lying down position 62 and push-up position 63 move up and down.
[0059] The second motor M2 rotates forward and backward at the push-up position 63 and the sitting position, respectively, while the first motor M1 rotates forward to complete the prone walking and sitting walking movements.
[0060] The above embodiments are only for illustrating the technical concept and features of this utility model, and are intended to enable those skilled in the art to understand the content of this utility model and implement it accordingly. They should not be construed as limiting the scope of protection of this utility model. All equivalent transformations or modifications made in accordance with the spirit and essence of this utility model should be included within the scope of protection of this utility model.
Claims
1. A multi-movement mode four-legged electric toy movement, characterized in that, include: The machine body (1) has a gearbox (2) inside. The gearbox (2) is equipped with a first reduction gear set and a second reduction gear set. A first motor (M1) is connected to the first reduction gear set, and a second motor (M2) is connected to the second reduction gear set. The front end of the gearbox (2) is connected to two mutually rotating front half shafts. The first reduction gear set is driven and connected to the front half shaft. The two ends of the front half shaft are connected to eccentric cams. The left front foot (3) and the left rear foot (5) are respectively connected to the two eccentric cams. The rear end of the gearbox (2) is connected to two mutually rotating rear half shafts. The front half shaft is driven and connected to the rear half shaft. The two ends of the rear half shaft are connected to eccentric cams. The left rear foot (5) and the right rear foot (6) are respectively connected to the two eccentric cams. The front end of the gearbox (2) is connected to a front axle sleeve, and the second reduction gear set is driven and connected to the front axle sleeve. The two ends of the front axle sleeve are connected to front swing arms, and the left front foot (3) and the right front foot (4) are respectively connected to the two front swing arms. The rear end of the gearbox (2) is connected to a rear axle sleeve, and the front axle sleeve is driven and connected to the rear axle sleeve. The two ends of the front axle sleeve are connected to rear swing arms, and the left rear foot (5) and the right rear foot (6) are respectively connected to the two rear swing arms. The gearbox (2) is connected to a front limiting rod (7) and a rear limiting rod (8). The front limiting rod (7) contacts the front half shaft so that the two front half shafts are relatively stationary, and the left front foot (3) is level with the right front foot (4). The rear limiting rod (8) contacts the rear half shaft so that the two rear half shafts are relatively stationary, and the left rear foot (5) is level with the right rear corner.
2. The multi-motion quadruped electric toy mechanism as described in claim 1, characterized in that: The front half-shaft includes a left front half-shaft (9) and a right front half-shaft (10), with the left front half-shaft (9) rotatably connected to the right front half-shaft (10). One end of the left front half-shaft (9) is connected to a left front eccentric cam (11), and the left front foot (3) is connected to the left front eccentric cam (11). One end of the right front half-shaft (10) is connected to a right front eccentric cam (12), and the right front foot (4) is connected to the right front eccentric cam (12). One end of the left front half-shaft (9) is provided with a left front arc-shaped block (13), and one end of the right front half-shaft (10) is provided with a right front arc-shaped block (14). The two ends of the left front arc-shaped block (13) and the right front arc-shaped block (14) can contact each other so that the left front half-shaft (9) and the right front half-shaft (10) can rotate relative to each other within a fixed range.
3. The multi-motion quadruped electric toy mechanism as described in claim 2, characterized in that: The rear half-shaft includes a left rear half-shaft (15) and a right rear half-shaft (16), with the left rear half-shaft (15) rotatably connected to the right rear half-shaft (16). One end of the left rear half-shaft (15) is connected to a left rear eccentric cam (17), and a left rear foot (5) is connected to the left rear eccentric cam (17). One end of the right rear half-shaft (16) is connected to a right rear eccentric cam (18), and a right rear foot (6) is connected to the right rear eccentric cam (18). One end of the left rear half-shaft (15) is provided with a left rear arc-shaped block, and one end of the right rear half-shaft (16) is provided with a right rear arc-shaped block. The two ends of the left rear arc-shaped block and the right rear arc-shaped block can contact each other so that the left rear half-shaft (15) and the right rear half-shaft (16) can rotate relative to each other within a fixed range.
4. The multi-motion quadruped electric toy mechanism as described in claim 1, characterized in that: The first motor (M1) is connected to the gearbox (2). The first motor (M1) is connected to the reduction gear set inside the gearbox (2) via a pulley assembly or gear drive. The first motor (M1) is connected to the gearbox (2). Gear A (21) is connected to the power output shaft of the first motor (M1). Gear A (21), gear B (22), gear C (23), gear D (24) and gear E (25) mesh in sequence. Gear F (26) is connected to the front half shaft. Gear F (26) is a 90° reversing gear. Gear G (27) is connected to the rear half shaft. Gear G (27) is a 90° reversing gear. Two first supports are connected to the outer wall of the gearbox (2). (28), the two ends of the first drive shaft (29) are rotatably connected to two first supports (28), both ends of the first drive shaft (29) are gears, and the gears at both ends of the first drive shaft (29) are respectively meshed with gear F (26) and gear G (27); the gearbox (2) is connected to a first side cover (30), the first support (28) and the first drive shaft (29) are located inside the first side cover (30); or the power output end of the first motor (M1) is connected to a first driving pulley (77), the axle of gear B (22) is connected to a first driven pulley (78), and a first belt (79) is connected between the first driving pulley (77) and the first driven pulley (78).
5. The multi-motion quadruped electric toy mechanism as described in claim 4, characterized in that: A gear H (31) is connected to the first drive shaft (29), a base (32) is connected to the outer wall of the gearbox (2), a 90° reversing gear I (33) is rotatably connected to the base (32), and a reversing cam (34) is connected to the axle of gear I (33); a first limit switch (N1) and a second limit switch (N2) are connected to the outer wall of the first side cover (30), and the reversing cam (34) can contact the contacts of the first limit switch (N1) and the second limit switch (N2); the front The limiting rod (7) and the rear limiting rod (8) are respectively connected to the two first supports (28). A front disc (35) is connected to the front half shaft. Two front protrusions (36) are connected to the side of the front disc (35). The front limiting rod (7) is restricted between the two front protrusions (36) on the side of the front disc (35). A rear disc (37) is connected to the rear half shaft. Two rear protrusions (38) are connected to the side of the rear disc (37). The rear limiting rod (8) is restricted between the two rear protrusions (38) on the side of the rear disc (37).
6. The multi-motion quadruped electric toy mechanism as described in claim 1, characterized in that: The front axle sleeve includes a left front axle sleeve (39) and a right front axle sleeve (40). The left front axle sleeve (39) is connected to the right front axle sleeve (40) via a front U-shaped bracket (41). One end of the left front axle sleeve (39) is connected to a left front swing arm (42), and a left front foot (3) is connected to the left front swing arm (42). One end of the right front axle sleeve (40) is connected to a right front swing arm (43), and a right front foot (4) is connected to the right front swing arm (43). The rear axle sleeve includes a left rear axle sleeve. The sleeve (44) is connected to the right rear axle sleeve (45), the left rear axle sleeve (44) is connected to the right rear axle sleeve (45) through the rear U-shaped bracket (75), one end of the left rear axle sleeve (44) is connected to the left rear swing rod (46), the left rear foot (5) is connected to the left rear swing rod (46), one end of the right rear axle sleeve (45) is connected to the right rear swing rod (47), and the right rear foot (6) is connected to the right rear swing rod (47); the front half axle and the rear half axle pass through the front axle sleeve and the rear axle sleeve respectively.
7. The multi-motion quadruped electric toy mechanism as described in claim 6, characterized in that: The second motor (M2) is connected to the gearbox (2). The second motor (M2) is connected to the reduction gear set inside the gearbox (2) via a pulley assembly or gear drive. The second motor (M2) is connected to the gearbox (2). Gear J (49) is connected to the power output shaft of the second motor (M2). Gear J (49), gear K (50), gear L (51), gear M (52), gear N (53), gear Z (76), and gear O (54) mesh in sequence. Gear O (54) is a 90° reversing gear. A 90° reversing gear P (55) is connected to the rear axle sleeve, and a 90° reversing gear Q (56) is connected to the front axle sleeve. The gearbox (2) A second support is connected to the outer wall. The two ends of the second drive shaft (58) are rotatably connected to the second support. Both ends of the second drive shaft (58) are gears, and the gears at both ends of the second drive shaft (58) are respectively meshed with gear P (55) and gear Q (56); the side of the gearbox (2) is connected to a second side cover (59), and the second support and the second drive shaft (58) are located inside the second side cover (59); or the power output end of the second motor (M2) is connected to a second driving pulley (80), and a second driven pulley (81) is connected to the axle of gear K (50). A second belt (82) is connected between the second driving pulley (80) and the second driven pulley (81).
8. The multi-motion quadruped electric toy mechanism as described in claim 6, characterized in that: The front U-shaped frame (41) is connected to a conductive wheel (60), which has two contacts. The gearbox (2) is connected to an electrode plate (61). The electrode plate (61) is provided with an electrode sheet on the side near the guide wheel. The electrode sheet includes a positive electrode and a negative electrode. One positive electrode has a continuous structure, and the other negative electrode has an intermittent structure. The two contacts on the conductive wheel (60) are in contact with the positive electrode and the negative electrode, respectively. The negative electrode includes a prone position (62), a push-up position (63), a sitting and inverted floating position (64), a return-to-center position (65), and a sitting and inverted position (66).
9. The multi-motion quadruped electric toy mechanism as described in claim 8, characterized in that: The bottom of the body (1) is connected to a bottom cover (67), and a power supply and circuit board (68) are installed inside the bottom cover (67). A speaker (69) is connected to the top of the body (1). The first motor (M1), the second motor (M2), the charging port (70), the switch (71), the speaker (69) and the electrode plate (61) are all electrically connected to the circuit board (68), and the switch (71) and the charging port (70) are exposed outside the bottom cover (67).
10. The multi-motion quadruped electric toy mechanism as described in claim 1, characterized in that: The front end of the fuselage (1) is connected to a front support rod (72), the rear end of the fuselage (1) is connected to a tail rod (73), and a counterweight (74) is connected inside the rear end of the fuselage (1).