Movable wing toy

Abstract

The utility model discloses a movable wing toy. The movable wing toy comprises a main body piece, two wing assemblies, a driving assembly and a sliding piece, according to the structure, the driving assembly is matched with the second matching part of the sliding piece, the sliding piece can be driven to do reciprocating linear motion along the sliding groove formed in the main body piece, and in the sliding process of the sliding piece, the sliding piece is in transmission fit with the two wing assemblies through the first matching part of the sliding piece at the same time. The power generated by the driving assembly is synchronously transmitted to the two wing assemblies through the sliding piece and the first matching part of the sliding piece, so that the two wing assemblies are driven to synchronously flap in a reciprocating mode, and the coordination feeling and the visual effect of the toy are improved.

Description

Technical Field

[0001] This utility model relates to a movable winged toy, belonging to the field of children's toy technology. Background Technology

[0002] With the continuous development of the children's educational toys and role-playing toys market, wearable wing toys that can simulate the flight of living beings are becoming increasingly popular.

[0003] Currently, such products on the market are mainly divided into two categories: fixed and movable. Among them, movable toys generally use motors to drive two wings to achieve the flapping function. However, during use, the two wings must maintain the same flapping amplitude and frequency; otherwise, it will lead to uncoordinated movements, directly affecting the visual effect and user experience.

[0004] Therefore, there is an urgent need to provide a movable wing toy to improve the problem of asynchronous and uncoordinated wing movements in existing products. Utility Model Content

[0005] One objective of this application is to provide a movable wing toy that aims to at least solve one of the technical problems existing in the prior art. According to the movable wing toy of this application, the problem of asynchronous and uncoordinated wing movements in existing products can be improved.

[0006] To achieve the above objectives, the technical solution adopted by this utility model is: a movable winged toy, comprising:

[0007] The main body has a groove along the first direction;

[0008] Both wing assemblies are rotatably connected to the main body component;

[0009] A drive component, fixedly mounted on the main body, is used to drive the wing assembly to move;

[0010] A sliding element is slidably disposed within the groove;

[0011] The slider is provided with a first mating part and a second mating part along a second direction, the second direction being perpendicular to the first direction. The first mating part and the second mating part are spaced apart along the first direction. The two wing assemblies are respectively mated with the first mating part, and the driving assembly is mated with the second mating part. The driving assembly is configured to drive the slider to slide back and forth along the first direction through the second mating part, such that the slider drives the two wing assemblies to flap back and forth through the first mating part.

[0012] In this application, the drive component, through its second mating part, can drive the slider to reciprocate linearly along the groove provided in the main body. During the sliding process, the slider simultaneously engages with the two wing assemblies through its first mating part. Based on this structure, the power generated by the drive component is synchronously transmitted to the two wing assemblies via the slider and its first mating part, thereby driving them to achieve synchronous reciprocating flapping motion, which helps to improve the toy's coordination and visual effect.

[0013] In some embodiments, the first mating portion is configured with a first peripheral wall that extends along the second direction, and the wing assembly is constrained by the first peripheral wall and can be driven to reciprocate flapping.

[0014] In some embodiments, the first mating part is configured as a strip structure or an arc structure.

[0015] In some embodiments, the wing assembly is provided with a first mating end, which is configured to abut against the first peripheral wall such that the wing assembly is driven to flap back and forth.

[0016] In some embodiments, the driving component includes:

[0017] A linkage component has an axis and is rotatable along the axis. The linkage component has a second mating end arranged radially along the axis for mating with the second mating part.

[0018] In some embodiments, the driver component further includes:

[0019] The gearbox is fixedly mounted on the main body component;

[0020] The motor is fixedly mounted on the gearbox;

[0021] A gear set is disposed in the gearbox and connected to the motor;

[0022] The output shaft is fixedly connected to the linkage component and is connected to the motor via the gear set to drive the linkage component to rotate.

[0023] The reduction ratio of the gear set is 1:360 to 1:400.

[0024] In some embodiments, the second mating portion is configured with a second peripheral wall extending along the second direction, and the second mating end is configured to abut against the second peripheral wall such that the slider is driven to reciprocate.

[0025] In some embodiments, the second mating portion is configured as a strip structure.

[0026] In some embodiments, the wing assembly includes a base component and a wing component, the base component being rotatably connected to the body component and the wing component being detachably connected to the base component.

[0027] In some embodiments, the wing component is provided with an LED light strip, the LED light strip is provided with a power terminal, the base component is provided with a power port, and the power terminal is electrically connected to the power port for controlling the light emission state of the LED light strip.

[0028] In some embodiments, a speaker is also included, which is fixedly mounted on the main body.

[0029] In this application, the drive assembly adopts a design in which a motor and a linkage are coupled. The output shaft can drive the linkage to rotate around its axis. The linkage has a second mating end in the radial direction of the axis. During the rotation of the linkage, the second mating end can abut against the second peripheral wall formed on the sliding member and apply force. Based on this structure, the continuous rotational motion of the linkage can periodically push the sliding member through the engagement of the second mating end and the second peripheral wall, thereby converting the rotational motion output by the motor into the linear reciprocating motion of the sliding member along the slide groove. This transmission method not only has high stability, but also helps to improve the utilization rate of the internal space of the toy. Attached Figure Description

[0030] Figure 1 This is a structural schematic diagram of the movable winged toy of this utility model;

[0031] Figure 2 This is a cross-sectional schematic diagram of the movable wing toy of this utility model;

[0032] Figure 3 This is a schematic diagram of the structure of the base of this utility model;

[0033] Figure 4 This is a schematic diagram of the structure of the sliding component of this utility model;

[0034] Figure 5 This is a structural schematic diagram of the linkage component of this utility model;

[0035] Figure 6 This is a schematic diagram showing the cooperation between the drive mechanism and the sliding component of this utility model;

[0036] Figure 7 This is a disassembly diagram of the wing assembly of this utility model;

[0037] Figure 8 This is a partial schematic diagram of the wing component of this utility model.

[0038] Explanation of reference numerals in the attached figures:

[0039] 100. Main body; 110. Upper housing; 120. Lower housing; 130. Base; c1. Slide groove; 140. Electrical control unit;

[0040] 200, Wing assembly; 210, Base component; 211, First mating end; 212, Slot; 213, First groove; 214, First protrusion; 215, Protruding post; 220, Wing component; 221, Second groove; 222, Second protrusion; 223, First wing portion; 224, Second wing portion; 225, Fastening block; 226, Fastening groove;

[0041] 300 - Drive assembly; 310 - Linkage component; 311 - Second mating end; P - Shaft; 320 - Gearbox;

[0042] 400, Sliding component; 410, First mating part; m1, First peripheral wall; 420, Second mating part; m2, Second peripheral wall;

[0043] 500. Speaker. Detailed Implementation

[0044] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0045] In related technologies, wearable wing toys mainly include two types: fixed and movable. Movable toys typically employ a scheme where each wing is independently equipped with a motor and corresponding transmission structure to achieve a dynamic flapping effect. However, in actual operation, due to factors such as performance differences and transmission errors between the two motors, it is often difficult to achieve completely synchronized movements of the left and right wings. This can easily lead to deviations in the flapping amplitude and frequency of the two wings, resulting in uncoordinated movements, insufficient realism, and thus affecting the overall visual effect and user experience.

[0046] Please see Figures 1-4In this embodiment of the application, a movable wing toy includes a main body 100, two wing assemblies 200, a drive assembly 300, and a slider 400. The main body 100 has a groove c1 along a first direction. Both wing assemblies 200 are rotatably connected to the main body 100. The drive assembly 300 is fixedly disposed on the main body 100 and is used to drive the wing assemblies 200 to move. The slider 400 has a first mating portion 410 and a second mating portion 420 along a second direction, which is perpendicular to the first direction. The first mating portion 410 and the second mating portion 420 are spaced apart along the first direction. Both wing assemblies 200 are respectively mated to the first mating portion 410, and the drive assembly 300 is mated to the second mating portion 420. The drive assembly 300 is configured to drive the slider 400 to reciprocate along the first direction via the second mating portion 420, such that the slider 400 drives the two wing assemblies 200 to flap reciprocally via the first mating portion 410.

[0047] Please see Figure 1 The first direction is defined as the up-down direction, and the second direction as the front-back direction. The main body 100 has a sliding groove c1 along the up-down direction. Both wing assemblies 200 are rotatably connected to the main body 100. A drive assembly 300 is fixedly mounted on the main body 100 and is used to drive the wing assemblies 200 to move. A sliding member 400 has a first mating part 410 and a second mating part 420 along the front-back direction. The first mating part 410 and the second mating part 420 are spaced apart along the up-down direction. Both wing assemblies 200 are respectively mated to the first mating part 410, and the drive assembly 300 is mated to the second mating part 420. The drive assembly 300 is configured to drive the sliding member 400 to slide back and forth along the up-down direction via the second mating part 420, so that the sliding member 400 drives the two wing assemblies 200 to flap back and forth via the first mating part 410.

[0048] The sliding member 400 is an intermediate transmission component disposed inside the main body 100, capable of reciprocating linear motion along the slide groove c1, and cooperating with the drive assembly 300 and the wing assembly 200 respectively to achieve transmission function. The first mating part 410 is a structural part on the sliding member 400 used to link with the wing assembly 200 to realize action conversion. By cooperating with the wing assembly 200, the reciprocating linear motion of the sliding member 400 can be converted into the flapping motion of the wing assembly 200. The second mating part 420 is a structural part on the sliding member 400 used to link with the drive assembly 300 to receive power. By cooperating with the drive assembly 300, the received power is converted into the linear displacement motion of the sliding member 400 itself.

[0049] When the toy is in use, the user activates the drive assembly 300. The drive assembly 300 drives the slider 400 to reciprocate linearly up and down along the slide groove c1 provided in the main body 100 through the second mating part 420 acting on the slider 400. During the reciprocating sliding process, the slider 400 simultaneously engages with the left and right wing assemblies 200 through its first mating part 410, thereby converting the linear motion into the synchronous and coordinated reciprocating flapping action of the two wing assemblies 200.

[0050] In this application, the drive component 300 interacts with the second mating part 420 on the slider 400 to drive the slider 400 to reciprocate linearly along the slide groove c1 in the main body 100. During the movement, the slider 400 synchronously drives the two wing components 200 through the first mating part 410 provided thereon, so that the two achieve coordinated reciprocating flapping motion, which significantly improves the overall coordination and visual effect of the motion.

[0051] For example, the main body 100 includes an upper shell 110 and a lower shell 120, which are assembled to form a cavity for accommodating the drive assembly 300 and the sliding member 400. The two wing assemblies 200 are rotatably connected to the upper shell 110 respectively.

[0052] For example, the main body 100 also includes a base 130, which is locked and fixed to the upper housing 110 by screws, bolts, etc. The slide groove c1 is directly formed on the base 130 and is used to guide the sliding member 400 to perform reciprocating linear motion. This design integrates the slide groove c1 into an independent component, which not only improves the structural strength of the slide groove c1, but also enhances the stability and reliability of the overall transmission.

[0053] For example, the opening and closing control of the drive component 300 can be achieved either by an electronic switch set on the toy body or by wireless control via an external remote control.

[0054] In some embodiments, please refer to Figures 2-4 The first mating part 410 is constructed with a first peripheral wall m1, which extends along a second direction. The wing assembly 200 is constrained by the first peripheral wall m1 and can be driven to reciprocate flapping.

[0055] Please see Figure 4 The second direction is set as the front-back direction. The first mating part 410 is constructed with a first peripheral wall m1, which extends in the front-back direction. The wing assembly 200 is constrained by the first peripheral wall m1 and can be driven to reciprocate flapping.

[0056] When the slider 400 slides up and down reciprocally within the groove c1, its first mating part 410 engages with the two wing assemblies 200 via the first peripheral wall m1. Specifically, when the slider 400 moves up and down, the first peripheral wall m1 moves synchronously, and based on the mating relationship between its contour and the wing assembly 200, the linear displacement of the slider 400 is converted into the synchronous rotation of the wing assembly 200. This structure enables the two wing assemblies 200 to achieve reciprocating rotation with consistent flapping amplitude and frequency under the single drive of the slider 400, thereby improving the coordination of the wing assembly 200's movements.

[0057] For example, the first circumferential wall m1 refers to the circumferential wall surface of the first mating part 410, which is used to abut against the wing assembly 200 and realize motion transmission.

[0058] In some embodiments, please refer to Figure 4 The first mating part 410 is constructed as a strip structure.

[0059] Please see Figures 2-4 In this embodiment, the first mating part 410 adopts a strip structure design, which forms an area through which the corresponding parts of the two wing assemblies 200 can pass. When the sliding member 400 moves up and down along the slide groove c1 under the action of the driving component 300, the part of the wing assembly 200 that passes through the first mating part 410 can abut against the first peripheral wall m1. Through this abutment action, the linear motion of the sliding member 400 can drive the wing assembly 200 to rotate, so that the two wing assemblies 200 can perform synchronous and coordinated reciprocating flapping actions relative to the main body 100.

[0060] For example, the first mating part 410 may be configured as a through hole or a groove.

[0061] In some embodiments, the first mating part 410 is configured as an arc-shaped structure (not shown in the figure).

[0062] In this embodiment, the first mating part 410 can also adopt an arc-shaped structure design. The first mating part 410 of this design has one longitudinally arranged on each side of the slider 400, which is used to correspond to the two wing assemblies 200 respectively. Similarly, it also forms an area where the corresponding part of the wing assembly 200 can pass through. When the slider 400 moves up and down along the slide groove c1 under the action of the drive assembly 300, the part of the wing assembly 200 that passes through the first mating part 410 can abut against the first peripheral wall m1. Through this abutment action, the linear motion of the slider 400 can drive the wing assembly 200 to rotate, so that the two wing assemblies 200 perform synchronous and coordinated reciprocating flapping actions relative to the main body 100.

[0063] In some embodiments, please refer to Figures 2-4 and Figure 7The wing assembly 200 is provided with a first mating end 211, which is configured to abut against the first peripheral wall m1, so that the wing assembly 200 is driven to flap back and forth.

[0064] The first mating end 211 is a structural part on the wing assembly 200 that mates with the first mating part 410 to achieve power transmission. The first mating end 211 is disposed on the wing assembly 200 and passes through the first mating part 410 of the slider 400. When the drive assembly 300 drives the slider 400 to move back and forth linearly along the slide groove c1, the first mating end 211 can abut against the first peripheral wall m1 of the first mating part 410. Through the mutual cooperation of the two, the linear motion of the slider 400 is converted into a driving force acting on the wing assembly 200, driving the wing assembly 200 to rotate around its connection point with the main body 100. This transmission mechanism enables the two wing assemblies 200 to make coordinated reciprocating flapping movements relative to the main body 100 under the synchronous drive of the first mating end 211.

[0065] For example, the first mating end 211 can be configured as a protruding structure.

[0066] In some embodiments, please refer to Figure 2 and Figure 5 The drive assembly 300 includes a linkage 310. The linkage 310 has an axis P and is rotatable along the axis P. The linkage 310 is provided with a second mating end 311 radially along the axis P for mating with the second mating part 420.

[0067] The second mating end 311 is a structural part on the linkage 310 that mates with the second mating part 420 to achieve power transmission. The second mating end 311 is disposed on the linkage 310 and mates with the second mating part 420 on the sliding member 400. When the drive assembly 300 starts and drives the linkage 310 to rotate around its axis P, the second mating end 311 on the linkage 310 moves accordingly. Since the position of the second mating part 420 on the sliding member 400 is fixed, and the sliding member 400 is constrained by the linear guide of the slide groove c1 in the main body 100, the driving force of the second mating end 311 on the second mating part 420 during rotation is converted into a linear force along the direction of the slide groove c1, thereby repeatedly driving the sliding member 400 to move up and down, realizing the transmission function of converting rotational motion into linear reciprocating motion.

[0068] For example, the second mating end 311 can be configured as a protruding structure.

[0069] In some embodiments, please refer to Figure 2 and Figures 5-6In addition to the above, the drive assembly 300 also includes a gearbox 320, a motor, a gear set, and an output shaft. The gearbox 320 is fixedly mounted on the main body 100, the motor is fixedly mounted on the gearbox 320, the gear set is mounted on the gearbox 320 and connected to the motor, and the output shaft is fixedly connected to the linkage 310 and is driven by the gear set to drive the linkage 310 to rotate. The reduction ratio of the gear set is 1:360 to 1:400.

[0070] The rotational power of the linkage 310 comes from the motor, which is fixed in the gearbox 320 of the main body 100. After it is started, it can drive the gear set connected to it to rotate. The gear set plays the role of deceleration and power transmission. Its final output end drives the output shaft to rotate. Since the linkage 310 is fixedly connected to the output shaft, the rotation of the output shaft directly drives the linkage 310 to rotate synchronously. When the linkage 310 rotates, its second mating end 311 moves circumferentially, thereby cooperating with the second mating part 420 on the sliding member 400, converting the rotational motion into a linear drive for the sliding member 400, causing the sliding member 400 to move up and down along the slide groove c1.

[0071] The gear transmission system in the drive assembly 300 can be configured with a reduction ratio ranging from 1:360 to 1:400. This reduction design converts the high-speed, low-torque output of the motor into low-speed, high-torque motion of the output shaft. At this reduction ratio, the wing assembly 200 can obtain a suitable and stable flapping frequency and sufficient drive torque, thereby simulating a more realistic, smooth, and powerful wing movement, enhancing the visual appeal of the motion.

[0072] In this application, the drive assembly 300 adopts a structure design in which a motor and a linkage 310 cooperate. The motor drives the linkage 310 to rotate continuously around the axis P through the output shaft. When the linkage 310 rotates, its second mating end 311 moves circumferentially and periodically pushes the sliding member 400 by cooperating with the second mating part 420. Based on this cooperation, the rotational motion of the linkage 310 is converted into the linear reciprocating motion of the sliding member 400 along the slide groove c1. This transmission method not only has high stability, but also effectively improves the space utilization and layout rationality inside the toy compared with the traditional scheme that directly adopts a linear drive structure.

[0073] In some embodiments, please refer to Figures 2-6 The second mating part 420 is constructed with a second peripheral wall m2, which extends along a second direction. The second mating end 311 is configured to abut against the second peripheral wall m2, such that the sliding member 400 is driven to slide back and forth.

[0074] Please see Figure 4The second direction is set as the front-back direction. The second mating part 420 is constructed with a second peripheral wall m2, which extends in the front-back direction. The second mating end 311 is configured to abut against the second peripheral wall m2, so that the sliding member 400 is driven to slide back and forth.

[0075] When the drive assembly 300 is started, the linkage 310 can rotate continuously around its axis P. The second mating end 311 provided on the linkage 310 will then make a circular motion. During the rotation, the second mating end 311 can abut against the second peripheral wall m2 of the second mating part 420. Since the sliding member 400 is constrained in the slide groove c1 of the main body 100 and can only make linear motion, the abutting action of the second mating end 311 against the second peripheral wall m2 converts the rotational motion of the linkage 310 into the linear reciprocating motion of the sliding member 400 along the slide groove c1.

[0076] For example, the second peripheral wall m2 refers to the circumferential wall surface of the second mating part 420, and the second mating end 311 abuts against the second peripheral wall m2 to realize motion transmission.

[0077] In some embodiments, please refer to Figure 4 The second mating part 420 is constructed as a strip structure.

[0078] Please see Figure 2 , Figure 4 and Figure 6 In this embodiment, the second mating part 420 adopts a strip structure design, which forms an area into which the second mating end 311 can pass. When the driving component 300 is started and the linkage 310 rotates continuously, the second mating end 311 that passes through the area will make a circular motion. During this motion, the second mating end 311 can abut against the second peripheral wall m2 of the second mating part 420. Through this abutting action, the second mating end 311 can drive the entire sliding member 400 to move back to its original position in a straight line along the slide groove c1.

[0079] For example, the second mating part 420 may be configured as a through hole or a groove.

[0080] In addition, some existing wearable wing toys typically have their wings directly attached to the shell. Due to the large area and extended shape of the wings, the entire toy takes up a lot of space when not in use (such as when stored or transported). Furthermore, the protruding wing parts are easily squeezed, bumped, or bent by external objects. This non-removable integrated design not only makes storage inconvenient but also makes the wings prone to irreversible structural deformation, surface damage, or even breakage, affecting the toy's appearance integrity and lifespan, and reducing the product's practical value.

[0081] In some embodiments, please refer to Figure 2 and Figure 7The wing assembly 200 includes a base component 210 and a wing component 220, wherein the base component 210 is rotatably connected to the main body 100 and the wing component 220 is detachably connected to the base component 210.

[0082] Please see Figure 2 and Figure 7 The base component 210 and the wing component 220 are designed to be detachable. The base component 210 is rotatably connected to the upper shell 110 of the main body 100 to perform the flapping action, while the wing component 220 is detachably combined with the base component 210. When not in use, the user can detach the wing component 220 from the base component 210 for individual storage. This design helps to improve the structural deformation or surface damage problems caused by bending and stacking of traditional one-piece wings during storage, thus extending the product's lifespan.

[0083] In this embodiment, the detachable structure may employ a locking structure; please refer to [link / reference]. Figure 6 The base component 210 has a slot 212, and a first groove 213 extending into the slot 212 is formed on its side. A first protrusion 214 is provided on one side of the first groove 213. Correspondingly, a second groove 221 is formed on the side of the wing component 220, and a second protrusion 222 is provided on one side of the second groove 221. During assembly, the wing component 220 is inserted into the slot 212, and its second protrusion 222 is deformed by the pressure of the inner wall of the slot 212 until it slides into the first groove 213 of the base component 210. At this time, the second protrusion 222 and the first protrusion 214 abut against each other, realizing a stable combination of the wing component 220 and the base component 210. During disassembly, the first protrusion 214 is pressed, causing it to push the second protrusion 222 to deform, thereby causing the second protrusion 222 to come out of the first groove 213. At this time, the wing component 220 can be smoothly pulled out of the slot 212, completing the separation. This structure achieves connection through a snap-fit ​​mechanism, which is easy to operate and facilitates repeated disassembly and maintenance.

[0084] The side of the base component 210 may be locally thinned or have a recessed structure in the area where the first protrusion 214 is located, in order to cooperate with the first groove 213 to reduce the structural strength of that area. This design makes the first protrusion 214 more prone to elastic deformation when pressed, thereby significantly reducing the pressing force required for disassembly and further improving the ease of operation.

[0085] The wing component 220 can adopt a hollow shell structure. The side of its second protrusion 222 that is used to cooperate with the first protrusion 214 is set as an inclined surface. Due to the design of the shell and the second groove 221, the overall structural strength of the area around the second protrusion 222 is correspondingly weakened. During the assembly process, when the inclined surface contacts the edge of the slot 212, the force generated by the contact will cause the second protrusion 222 to deform, so that it can slide into the slot 212 more smoothly and finally engage with the first protrusion 214.

[0086] For example, please refer to Figure 2 and Figure 6 The base component 210 is provided with a protrusion 215, which engages with the corresponding hole of the upper shell 110 to achieve a rotatable connection between the base component and the upper shell 110, thereby providing a rotation fulcrum for the flapping of the wing assembly 200.

[0087] In some embodiments, the wing component 220 is provided with an LED light strip (not shown in the figure), the LED light strip is provided with a power terminal, and the base component 210 is provided with a power port (not shown in the figure). The power terminal and the power port are electrically connected to control the light emission state of the LED light strip.

[0088] LED light strips are installed on the wing component 220 to provide light emission, thereby enhancing the visual effect and fun of the toy. In this embodiment, the main body 100 has an internal electrical control unit 140, and the power connection port in the base component 210 is electrically connected to the electrical control unit 140. When the wing component 220 and the base component 210 are combined, the power connection terminal is inserted into the power connection port, thereby realizing circuit conduction. The LED light strip can be turned on and off either by the electrical control switch on the toy body or by wireless control via an external remote control.

[0089] The wing component 220 can be assembled from two symmetrical housings. The LED light strip is embedded in the cavity formed between the two housings, and its power terminals protrude outward from the housing seams or pre-drilled openings for insertion into the power connection port. This structure not only helps protect the LED light strip but also maintains the overall integrity and aesthetics of the wing assembly 200.

[0090] For example, the electronic control unit 140 is a circuit module for controlling the LED light strip and driver assembly 300.

[0091] In some embodiments, a speaker 500 is also included, which is fixedly disposed on the main body 100.

[0092] The speaker 500 is housed within the cavity of the main body 100 and is used to play sound when the toy is in use, enhancing the interactive experience and fun. It can be electrically connected to the electronic control unit 140 to form a complete audio output circuit. During use, the user can send commands to the electronic control unit 140 via an electronic switch or external remote control. The electronic control unit 140 then drives the speaker 500 to play pre-set sound effects or music, thus providing rich sound feedback while the toy performs its fanning motion.

[0093] In some embodiments, please refer to Figure 8 The wing component 220 can also adopt a folding structure, which includes a first wing 223 and a second wing 224 that are hinged to each other. After the wing component 220 is removed from the overall structure, the first wing 223 and the second wing 224 can be folded relative to each other for easy storage.

[0094] To further define the unfolded state of the wing component 220, a fastening block 225 is provided on the first wing 223, and correspondingly, a fastening groove 226 adapted to the fastening block 225 is provided on the second wing 224. When the fastening block 225 is fastened into the fastening groove 226, the first wing 223 and the second wing 224 are relatively fixed, so that the wing component 220 remains in the unfolded state, thereby enabling it to be combined with the base component 210.

[0095] For example, the first wing 223 is provided with a fastener 225, and the second wing 224 is provided with a fastener groove 226. The fastener 225 can be fastened into the fastener groove 226, so that the wing component 220 is in an open state, thereby enabling it to be combined with the base component 210.

[0096] As an exemplary first implementation, when the toy is in use, the user activates the drive assembly 300. The drive assembly 300 drives the slider 400 to reciprocate linearly up and down along the slide groove c1 provided in the main body 100 through the second mating part 420 acting on the slider 400. During the reciprocating sliding process, the slider 400 simultaneously engages with the left and right wing assemblies 200 through its first mating part 410, thereby converting the linear motion into a synchronous and coordinated reciprocating flapping action of the two wing assemblies 200.

[0097] As an exemplary second implementation, when the toy is in use, the user activates the drive assembly 300. The drive assembly 300 drives the slider 400 to reciprocate linearly up and down along the slide groove c1 provided in the main body 100 through the second mating part 420 acting on the slider 400. During the reciprocating sliding process, the slider 400 simultaneously engages with the left and right wing assemblies 200 through its first mating part 410.

[0098] The first mating part 410 has a first peripheral wall m1 that extends in the front-rear direction. The wing assembly 200 is constrained by the first peripheral wall m1 and can be driven to reciprocate. When the slider 400 slides up and down in the slide groove c1, the first peripheral wall m1 moves synchronously. Based on the mating relationship between its contour and the wing assembly 200, the linear displacement of the slider 400 is converted into the synchronous rotation of the wing assembly 200.

[0099] It should be noted that the terminology used in this utility model is for the purpose of describing specific embodiments only and is not intended to limit the application. Unless otherwise defined, the technical or scientific terms used in this utility model should have the ordinary meaning understood by those skilled in the art. Terms such as "inner," "outer," "upper," and "lower," as used in this utility model specification and claims, are for ease of description only and are not limited to a location or spatial orientation.

[0100] It is understood that this utility model has been described through some embodiments, and those skilled in the art will recognize that various changes or equivalent substitutions can be made to these features and embodiments without departing from the spirit and scope of this utility model. Furthermore, under the teachings of this utility model, these features and embodiments can be modified to adapt to specific situations and materials without departing from the spirit and scope of this utility model. Therefore, this utility model is not limited to the specific embodiments disclosed herein, and all embodiments falling within the scope of the claims of this application are within the protection scope of this utility model.

Claims

1. A movable wing toy, characterized by, The utility model relates to a kind of winged toy, including: Main body, be equipped with sliding slot along first direction; Two wing assemblies, respectively with the main body rotatable connection; Drive assembly, fixedly arranged in the main body, for driving the wing assembly activity; Sliding element, slidably arranged in the sliding slot; Wherein, the sliding element is equipped with first cooperation part and second cooperation part along second direction, the second direction is perpendicular to each other with the first direction, the first cooperation part and the second cooperation part are spaced apart along the first direction, two wing assemblies are respectively matched in the first cooperation part, the drive assembly is matched in the second cooperation part, the drive assembly is configured to be able to drive the sliding element reciprocating sliding along the first direction by the second cooperation part, so that the sliding element drives two wing assemblies reciprocating fan by the first cooperation part.

2. A moveable wing toy as claimed in claim 1, characterized in that The first cooperation part is configured with first peripheral wall, the first peripheral wall extends along the second direction, the wing assembly is limited to the first peripheral wall and can be driven reciprocating fan.

3. A moveable wing toy as claimed in claim 1, characterized in that The first cooperation part is configured as strip structure or arc structure.

4. A moveable wing toy as claimed in claim 2, characterized in that The wing assembly is provided with first matching end, the first matching end is configured to be able to abut with the first peripheral wall, so that the wing assembly is driven and reciprocating fan.

5. The movable wing toy of claim 1, wherein, The drive assembly includes: Linkage, with an axis and can rotate along the axis, the linkage is provided with second matching end along the radial direction of the axis, for and the second cooperation part cooperation.

6. A moveable wing toy as claimed in claim 5, characterized in that The drive assembly further includes: Gearbox, fixedly arranged in the main body; Motor, fixedly arranged in the gearbox; Gear set, arranged in the gearbox, and connected with the motor; Output shaft, fixedly connected with the linkage, and transmission connection with the motor through the gear set, for driving the linkage rotation; The gear ratio of the gear set is 1:360~1:

400.

7. A moveable wing toy as claimed in claim 5, characterized in that The second cooperation part is configured with second peripheral wall, the second peripheral wall extends along the second direction, the second matching end is configured to be able to abut with the second peripheral wall, so that the sliding element is driven reciprocating sliding.

8. A moveable wing toy as claimed in any one of claims 1-7, characterized in that The wing assembly includes base part and wing part, the base part rotatably connected with the main body, the wing part is detachably connected with the base part.

9. A moveable wing toy as claimed in claim 8, characterized in that The wing part is provided with LED lamp strip, the LED lamp strip is provided with power terminal, the base part is provided with power port, the power terminal is electrically connected with the power port, for controlling the light emitting state of the LED lamp strip.

10. The movable wing toy of claim 1, wherein, Also include speaker, the speaker is fixedly arranged in the main body.

Images