Interactive toy and busy board with same

Abstract

The utility model relates to the technical field of toys for children, and discloses an interactive toy and a busy board with the same. The interactive toy comprises a toy body which is provided with a guide piece; the force application assembly is mounted on the guide part and is suitable for moving along the guide part; the action assembly is installed on the toy body, the action assembly and the force application assembly are connected in a matched mode through a linkage assembly, and the action assembly is suitable for being driven by the linkage assembly to move in a linkage mode when the force application assembly moves along the guide part. According to the interactive toy, the force application assembly and the action assembly are separated in position, and the linkage assembly is used for enabling the force application assembly and the action assembly to act in a linkage mode, so that a user applies force to the force application assembly at one position and can observe the movement of the action assembly at the other position, the interestingness of the toy is improved, and the interestingness of the toy is improved. And the participation sense and exploration desire of children are improved.

Description

Technical Field

[0001] This utility model relates to the field of children's toy technology, specifically to an interactive toy and a busy board having the same. Background Technology

[0002] Busyboard toys, as a type of educational children's toy, have become increasingly popular in the market in recent years. By simulating various operational scenarios such as switching on and off, turning on and off, and plugging and unplugging in real life, they help children develop hand-eye coordination, cognitive abilities, and logical thinking while playing.

[0003] In existing busy board toys, the motion components typically use tracks to restrict the movement path of the moving parts. Children manipulate the moving parts by holding them and moving them along the tracks. However, the motion components in these toys lack responsiveness and engagement, causing children to lose interest quickly. They also lack engaging interactive methods, making it difficult to effectively enhance children's sense of participation and desire to explore. Utility Model Content

[0004] In view of this, the present invention provides an interactive toy and a busy board having the same, to solve the problem that the existing busy boards have weak linkage and fun, and children easily lose interest in a short period of time.

[0005] In a first aspect, this utility model provides an interactive toy, comprising:

[0006] The toy body has guide components on it;

[0007] A force-applying component, mounted on a guide member, is adapted to move along the guide member;

[0008] The motion component is installed on the toy body. The motion component and the force application component are connected by a linkage component. The motion component is suitable for linkage motion under the drive of the linkage component when the force application component moves along the guide.

[0009] Interactive toys are suitable for mounting on the base of a busy board, serving as one of the interactive toys on the board. Force-applying components are mounted on guides on the toy body. When the user applies external force to the force-applying component, it moves along the guide. The action components are connected to the force-applying component via linkage components, causing the action components to move in tandem with the force-applying component. This design, where applying force to the force-applying component causes the action components to move in another location, not only enhances interactivity but also diversifies the toy's movements, attracting children to participate for extended periods. Furthermore, by applying force to the force-applying component to trigger the action components, children can learn about cause and effect and the principles of mechanical linkage while playing, improving their hands-on skills and logical thinking abilities. Interactive toys, through the separation of the force-applying and action components and the use of linkage components to enable their coordinated movement, allow users to apply force to the force-applying component in one location while observing the movement of the action components in another, thus enhancing the toy's fun and increasing children's participation and desire to explore.

[0010] In one optional implementation, the linkage component includes:

[0011] The drive bar is rotatably mounted at one end on the drive shaft of the toy body. The force application component is matched with the drive bar in the length direction so that the drive bar swings around the drive shaft when the force application component moves.

[0012] The drive slider is slidably mounted on the toy body and drives the action component. One of the drive slider or the drive crossbar is provided with a connecting post, and the other of the drive crossbar is provided with a connecting port. The connecting post extends into the connecting port. Along the length of the drive crossbar, the inner diameter of the connecting port is larger than the outer diameter of the connecting post.

[0013] By ensuring that the inner diameter of the mating connection port along the length of the drive bar is larger than the outer diameter of the connecting post (i.e., the mating connection port is an oblong hole or a circular hole with an inner diameter larger than the outer diameter of the connecting post), the drive bar is allowed to slide along the toy body when it swings, thereby driving the motion components to move in tandem. This mechanical linkage achieves indirect drive between the force-applying components and the motion components. Furthermore, both the drive bar and the drive slider can be installed inside the toy body, allowing their movements to be concealed by the toy body, thus enhancing the toy's interactivity and fun.

[0014] In one optional embodiment, the motion component includes a motion shaft and an actuating element. The actuating element is fixedly mounted on the motion shaft, which is equipped with a drive gear. A drive rack is mounted on the drive slider, and the drive gear meshes with the drive rack. The linear motion of the drive slider can be converted into rotational motion through the transmission between the drive gear and the drive rack, realizing diverse motion forms of the motion component and further enhancing the toy's fun and interactivity. Simultaneously, the gear transmission has high transmission accuracy and higher transmission stability, ensuring the smoothness and reliability of the motion component's movement.

[0015] In one alternative implementation, multiple sets of motion components are spaced apart, enabling the toy to perform motion effects in multiple positions, thereby enhancing the toy's interactivity and fun, meeting children's needs for operation and observation in different positions, and increasing the toy's attractiveness and playability.

[0016] In one alternative embodiment, a drive reset component is installed between the drive slider and the toy body. The drive reset component can return the drive slider to its initial position after the force-applying component stops applying force, thereby restoring the motion component to its initial state and preparing for the next interaction, thus improving the toy's continuous interactivity.

[0017] In one alternative implementation, the force-applying component includes:

[0018] The force application button is fitted onto the guide component;

[0019] The force-applying inclined block has one side connected to the drive crossbar and the other side provided with a force-applying inclined surface. The force-applying inclined surface abuts against the bottom of the force-applying button so that when the force-applying button moves downward along the guide, it drives the force-applying inclined surface away from the force-applying button.

[0020] When the force-applying button moves downwards along the guide, its bottom pushes the force-applying ramp, causing the force-applying block to move away from the button. This, in turn, causes the drive bar to swing around the drive shaft. By cooperating with the force-applying ramp, the vertical linear motion of the button is converted into the horizontal linear motion of the ramp, achieving efficient force transmission between the force-applying and linkage components. Furthermore, the ramp design makes the process of converting vertical motion into horizontal motion smoother, enhancing the user experience.

[0021] In one alternative embodiment, the toy body is provided with a force-applying groove, and the force-applying inclined block is slidably installed in the force-applying groove, thereby restricting the movement trajectory of the force-applying inclined block, ensuring that it slides along a predetermined path, and improving the stability and reliability of the structure.

[0022] In one optional embodiment, a force-applying shaft is provided on the toy body, and a force-applying inclined block is rotatably mounted on the force-applying shaft, with the force-applying inclined surface parallel to the force-applying shaft. This allows the force-applying inclined block to maintain a stable posture during movement, further enhancing the coordination stability between the force-applying component and the linkage component. Simultaneously, by making the force-applying inclined block swing laterally rather than slide laterally, the driving force required for its movement can be reduced, making the interactive toy easier to operate.

[0023] In one optional implementation, the linkage component includes:

[0024] A linkage horizontal plate is slidably mounted on the toy body. A linkage reset component is installed between the linkage horizontal plate and the toy body. A positioning hook is provided on the side of the linkage horizontal plate facing the force application component, and a linkage inclined surface is provided on the side of the positioning hook facing the action component.

[0025] The force-applying component is equipped with a force-applying block, which is positioned towards the positioning hook. A force-applying inclined surface is provided on the side of the force-applying block that faces the linkage inclined surface. The force-applying inclined surface and the linkage inclined surface are inclined in the same direction and are facing each other.

[0026] Multiple sets of force-applying components are spaced apart along the length of the linkage horizontal plate, and positioning hooks are set one-to-one with the force-applying components along the length of the linkage horizontal plate.

[0027] The force-applying components function as both force-applying and motion components. Multiple force-applying components interact with the linkage components via positioning hooks, linkage ramps, and force-applying blocks and ramps. Pressing one force-applying component causes the force-applying block on that component to move downwards, causing the force-applying ramp to engage with the linkage ramp. This drives the linkage horizontal plate to move along its length. Continuing to press the force-applying component downwards, the force-applying block enters the inner side of the positioning hook. Under the action of the linkage reset component, the linkage horizontal plate resets laterally, causing the positioning hook to catch the force-applying block, thus positioning it and maintaining its current state. When another force-applying component is pressed downwards, the force-applying block and ramp on that component move in the same motion pattern, engaging with the corresponding positioning hook and linkage ramp. When the force-applying component drives the horizontal linkage horizontal plate to move along its length, the previously positioned force-applying block contacts its limit. At this point, the previous force-applying component acts as a motion component, returning to its initial state. The currently acting force-applying component is positioned by its corresponding positioning hook, maintaining its downward pressure state. The use of multiple force-applying components and positioning hooks enables the toy to achieve more limited linkage effects, enhancing its fun and interactivity.

[0028] In one optional embodiment, the force-applying assembly includes a force-applying member slidably mounted on a guide member, and a force-applying reset member is installed between the force-applying member and the guide member. The force-applying reset member is capable of deforming after the force-applying member is subjected to an external force, and after the positioning hook contacts the positioning block, it drives the force-applying member to return to its initial position, thereby preparing for the next force-applying operation and improving the continuous operability of the force-applying assembly.

[0029] Secondly, this utility model also provides a busy board, which includes the interactive toy described in this utility model. Since the busy board includes the interactive toy and has the same effect as the interactive toy, it will not be described further here. Attached Figure Description

[0030] To more clearly illustrate the specific embodiments of this utility model or the technical solutions in the prior art, the drawings used in the description of the specific embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0031] Figure 1 This is a schematic diagram of the structure of the busy plate of the barbecue grill provided in an embodiment of the present invention.

[0032] Figure 2 A schematic diagram of the internal structure of the busy plate of the barbecue grill provided in this embodiment of the utility model.

[0033] Figure 3 This is a schematic diagram of the internal structure of the busy plate of the barbecue grill provided in an embodiment of the present invention from another angle.

[0034] Figure 4 This is a schematic diagram of the structure in which the drive crossbar and drive slider are installed together, according to an embodiment of the present invention.

[0035] Figure 5 This is a schematic diagram of the structure of the French fry loading board provided in an embodiment of the present invention.

[0036] Figure 6 A schematic diagram of the internal structure of the French fry loading board provided in this embodiment of the utility model.

[0037] Figure 7 This is a schematic diagram of the internal structure of the French fry bustling board provided in another embodiment of the present invention.

[0038] Figure 8 This is a schematic diagram of the operation of the French fry busy board provided in an embodiment of the present utility model, wherein the arrow direction indicates the movement direction of the component at the corresponding position.

[0039] Figure 9A schematic diagram of the structure of the busy board provided in an embodiment of this utility model.

[0040] Explanation of reference numerals in the attached drawings: 1. Mounting base plate; 2. Motion mounting plate; 3. Mounting housing; 4. Guide column; 5. Drive crossbar; 6. Drive slider; 7. Drive shaft; 8. Connecting column; 9. Connecting port; 10. Motion shaft; 11. Motion box; 12. Drive gear; 13. Drive rack; 14. Force button; 15. Force application ramp; 16. Force application groove; 17. Force application shaft; 18. French fry simulator; 19. Mounting housing; 20. Fixing plate; 21. Linkage crossbar; 22. Positioning hook; 23. Linkage ramp; 24. Force application block; 25. Force application ramp; 26. Component mounting plate. Detailed Implementation

[0041] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this utility model, not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0042] The following is combined Figures 1 to 9 The following describes embodiments of the present invention.

[0043] According to an embodiment of the present invention, an interactive toy is provided, including a toy body, a force application component, and an action component.

[0044] The toy body is equipped with a guide. A force-applying component is mounted on the guide and moves along the guide. The guide restricts the direction of movement of the force-applying component. An actuating component is mounted on the toy body and is connected to the force-applying component via a linkage component. The actuating component is adapted to move in tandem with the force-applying component under the drive of the linkage component when the force-applying component moves along the guide.

[0045] The interactive toy is suitable for mounting on the mounting base 1 of a busy board, serving as one of the interactive toys on the board. A force-applying component is mounted on a guide on the toy body. When the user applies external force to the force-applying component, it moves along the guide. The action component is connected to the force-applying component via a linkage component, causing the action component to move in tandem with the force-applying component. This design, where applying force to the force-applying component causes the action component to move in another location, not only enhances interactivity but also diversifies the toy's movements, attracting children to participate for extended periods. Furthermore, by applying force to the force-applying component to trigger the action component's movement, children can learn about cause and effect and the principles of mechanical linkage while playing, improving their hands-on skills and logical thinking abilities. The interactive toy separates the force-applying component from the action component and utilizes a linkage component to enable their coordinated movement. This allows the user to apply force to the force-applying component in one location while observing the movement of the action component in another, thereby enhancing the toy's fun and increasing children's participation and exploratory drive.

[0046] It should be noted that the guide component can be a guide post 4 set on the toy body, a guide groove set on the toy body, or any other structure that can restrict the force application component; this embodiment is not limited. The toy body can be a frame structure, a closed shell, or an integral structure assembled from structural components such as plates and frames. The toy body can be installed in conjunction with the action component, force application component, and linkage component. The specific form of the toy body can be adapted according to the specific form of the action component, force application component, and linkage component.

[0047] In one embodiment, such as Figures 1 to 4 As shown, the interactive toy uses a barbecue grill busy board as an example, used to simulate barbecuing on the busy board. In this embodiment, the toy body includes a parallel mounting base plate 1 and an action mounting plate 2, and a mounting shell 3 arranged around the action mounting plate 2 and fixedly mounted to the mounting base plate 1. The mounting base plate 1, the action mounting plate 2, and the mounting shell 3 enclose an internal space, wherein the linkage component is installed in the internal space, the force application component is installed on the mounting base plate 1, and the action component is located above the action mounting plate 2.

[0048] In this embodiment, the linkage component includes a drive crossbar 5 and a drive slider 6. One end of the drive crossbar 5 is rotatably mounted on a drive shaft 7 located at the bottom of the action mounting plate 2. The force-applying component cooperates with the drive crossbar 5 along its length, so that when the force-applying component moves, it drives the drive crossbar 5 to swing around the drive shaft 7. The drive slider 6 is slidably mounted on the toy body. Specifically, in the internal space of the toy body, the action mounting plate 2 has downwardly extending sides around its perimeter. The action mounting plate 2 and the mounting base plate 1 are fixedly engaged by mating posts. A space is reserved between one side of the action mounting plate 2 and the inner sidewall of the mounting shell 3 for the installation of the drive crossbar 5, so as to restrict the drive slider 6 from sliding along the installation space under the drive of the drive crossbar 5. The drive slider 6 is driven to cooperate with the action component to drive the action component to perform actions such as moving, flipping, and rotating. The drive slider 6 is provided with a mating connecting post 8. The drive crossbar 5 is provided with a connecting through hole or connecting groove as a mating connecting port 9. The mating connecting post 8 extends into the mating connecting port 9. Along the length direction of the drive crossbar 5, the inner diameter of the mating connecting port 9 is larger than the outer diameter of the connecting post. In some other embodiments, the drive crossbar 5 is provided with a mating connecting post 8, and the drive slider 6 is provided with a connecting groove as a mating connecting port 9.

[0049] By ensuring that the inner diameter of the mating connection 9 along the length of the drive crossbar 5 is larger than the outer diameter of the connecting post (i.e., the mating connection 9 is an oblong hole or a circular hole with an inner diameter larger than the outer diameter of the connecting post; in this embodiment, an oblong hole is chosen for the mating connection 9), the drive crossbar 5 is allowed to slide along the toy body when it swings, thereby driving the motion components to move in tandem. This mechanical linkage achieves indirect drive between the force application component and the motion component. Furthermore, both the drive crossbar 5 and the drive slider 6 can be installed inside the toy body, allowing their movements to be concealed by the toy body, thus enhancing the toy's interactivity and fun.

[0050] Specifically, in this embodiment, the motion component performs a flipping motion under the drive of the drive plate. The motion component includes a motion shaft 10 and a motion box 11 as the motion element. Images of different foods can be pasted on the motion box 11 to simulate corresponding barbecue foods. One end of the motion shaft 10 extends to the mounting housing 3 and rotates in cooperation with the mounting housing 3. The motion shaft 10 is supported and mounted on the motion mounting plate 2, and both ends of the motion shaft 10 extend beyond the motion mounting plate 2. To facilitate the rotation of the motion component, the motion mounting plate 2 has an arc-shaped inner groove along the length of the motion shaft 10, which enhances the aesthetics of the interactive toy and allows the motion box 11 to make way when flipping, enabling smooth transmission. The motion element is fixedly mounted on the motion shaft 10, and a drive gear 12 is provided on the motion shaft 10. In this embodiment, the drive gear 12 is mounted on the end of the motion shaft 10 that is not rotatably connected to the mounting housing 3. To enable the drive slider 6 to rotate the action box 11, a drive rack 13 is provided on the top surface of the drive slider 6, and the drive gear 12 meshes with the drive rack 13. The transmission between the drive gear 12 and the drive rack 13 converts the linear motion of the drive slider 6 into rotational motion, enabling diverse motion forms of the action components and further enhancing the toy's fun and interactivity. Simultaneously, the gear transmission offers high transmission precision and greater stability, ensuring the smoothness and reliability of the action components' movement.

[0051] Furthermore, the motion components are spaced in multiple sets, and each set of motion components has multiple motion boxes 11 installed on the motion pivot 10, which can enable the interactive toy to achieve synchronous motion effects in multiple positions, thereby enhancing the toy's interactivity and fun, meeting children's needs for operation and observation in different positions, and improving the toy's attractiveness and playability.

[0052] In addition, to ensure that the motion component, linkage component, and force application component can all reset after the external force is removed, a spring is installed between the drive slider 6 and the toy body as a drive reset component. The drive reset component can drive the drive slider 6 back to its initial position after the force application component stops applying force, thereby causing the motion component and drive bar 5 to also return to their initial state, and then driving the force application component to return to its initial position synchronously, preparing for the next interaction and improving the continuous interactivity of the toy.

[0053] In this embodiment, the force application component includes a force application button 14 and a force application ramp 15. The force application button 14 is sleeved and installed on the guide post 4, which serves as a guide member. One side of the force application ramp 15 is connected to the drive crossbar 5, and the other side is provided with a force application ramp. The force application ramp abuts against the bottom of the force application button 14, so that when the force application button 14 moves downward along the guide member, it drives the force application ramp to move away from the force application button 14.

[0054] When the force-applying button 14 moves downward along the guide, the bottom of the force-applying button 14 pushes the force-applying inclined surface, causing the force-applying inclined block to move away from the force-applying button 14, thereby driving the drive crossbar 5 to swing around the drive shaft 7. By cooperating with the force-applying inclined surface and the force-applying button 14, the vertical linear motion of the force-applying button 14 can be converted into the horizontal linear motion of the force-applying inclined block 15, realizing efficient force transmission between the force-applying component and the linkage component. At the same time, the inclined surface design makes the force application process of converting vertical motion into horizontal motion smoother, improving the user's operating experience.

[0055] In this embodiment, a force-applying groove 16 is provided on the mounting base plate 1 of the toy body. The force-applying inclined block 15 includes two force-applying inclined plates arranged in a V shape. One force-applying inclined plate abuts against the bottom of the force-applying button 14, and the other force-applying inclined plate abuts against the auxiliary force-applying rod extending vertically from the drive inclined rod and is slidably installed in the force-applying groove 16. The force-applying groove 16 can restrict the movement trajectory of the force-applying inclined block 15, ensure that it slides along a predetermined path, and improve the stability and reliability of the structure.

[0056] Furthermore, a force-applying shaft 17 is also provided on the motion mounting plate 2 of the toy body. The force-applying inclined block 15 is rotatably mounted on the force-applying shaft 17 at the intersection of the V-shape, and the force-applying inclined surface is arranged parallel to the force-applying shaft 17. This allows the force-applying inclined block 15 to maintain a stable posture during movement, further enhancing the coordination stability between the force-applying component and the linkage component. At the same time, by making the force-applying inclined block 15 swing laterally instead of sliding laterally, the driving force required for the movement of the force-applying inclined block 15 can be reduced, making the interactive toy easier to operate.

[0057] In addition, a voice prompt can be set on the toy itself. When the force application component, linkage component, or action component touches the voice prompt, the voice prompt will play a voice prompt such as "The barbecue is done, please pick up your food!", which can enhance the immersive experience of the scene.

[0058] In another embodiment, such as Figures 5 to 8As shown, the interactive toy uses a French fry busy board as an example. It simulates French fries on the busy board. By pressing one of the French fry simulation pieces 18, that piece remains pressed, while the others automatically spring up. In this embodiment, the French fry simulation piece 18 is both a force-applying component and an action component. The toy body in this embodiment is a housing 19 shaped like a French fry packaging bag. The French fries extend from the top of the housing 19. The linkage component is built into the inner cavity of the toy body. A fixing plate 20 for installing the guide and linkage component is provided in the inner cavity of the toy body. A guide rod, serving as the guide, passes through the fixing plate 20. The linkage component includes a linkage horizontal plate 21 and a linkage reset component. The linkage horizontal plate 21 is slidably mounted on the side of the fixing plate 20. A spring, serving as the linkage reset component, is installed between the linkage horizontal plate 21 and the toy body. A positioning hook 22 is provided on the side of the linkage horizontal plate 21 facing the force-applying component, and a linkage inclined surface 23 is provided on the side of the positioning hook 22 facing the action component. The force-applying component is provided with a force-applying block 24, which is positioned toward the positioning hook 22. A force-applying inclined surface 25 is provided on the side of the force-applying block 24 facing the linkage inclined surface 23. The force-applying inclined surface 25 and the linkage inclined surface 23 have the same inclination direction and are positioned opposite each other.

[0059] Three sets of force-applying components are spaced apart along the length of the linkage plate 21, and three positioning hooks 22 are also provided, corresponding one-to-one with the force-applying components along the length of the linkage plate 21. The number of force-applying components and positioning hooks 22 can be adjusted according to the actual installation space. Within the toy body, multiple sets of force-applying components and one set of linkage components can be arranged in parallel as a unit or multiple sets can be arranged at intervals.

[0060] In this embodiment, the force-applying component serves as both a force-applying component and an action component. Multiple force-applying components and a linkage component are connected via a positioning hook 22, a linkage ramp 23, and a force-applying block 24 and a force-applying ramp 25. Pressing one of the force-applying components causes the force-applying block 24 on that component to move downwards, causing the force-applying ramp 25 to engage with the linkage ramp 23. This drives the linkage horizontal plate 21 to move along its length. Continuing to press the force-applying component downwards causes the force-applying block 24 to enter the inner side of the positioning hook 22. Under the action of the linkage reset component, the linkage horizontal plate 21 resets laterally, causing the positioning hook 22 to catch the force-applying block 24, thus positioning the force-applying block 24 and maintaining its current state. When another force-applying component is pressed down, the force-applying block 24 and force-applying inclined surface 25 on that component move in the same motion pattern in conjunction with the positioning hook 22 and linkage inclined surface 23 at their corresponding positions. When the force-applying component drives the horizontal linkage plate 21 to move along the length direction, the force-applying block 24 previously positioned by the positioning hook 22 contacts the limit switch. At this time, the previous force-applying component acts as an action component and returns to its initial state. The currently acting force-applying component is positioned by its corresponding positioning hook 22 and remains in a pressed state. By setting up multiple sets of force-applying components and positioning hooks 22, the toy can achieve a more limited linkage effect, enhancing the toy's fun and interactivity.

[0061] In this embodiment, the force-applying component includes a French fry simulation component 18 as the force-applying element and a spring as the force-resetting element. The force-applying element is slidably mounted on the guide, and the spring as the force-resetting element is installed between the force-applying element and the guide. The force-resetting element can deform after the force-applying element is subjected to an external force, and after the positioning hook 22 contacts the positioning action of the force-applying block 24, it drives the force-applying element to return to its initial position, thereby preparing for the next force-applying operation and improving the continuous operability of the force-applying component.

[0062] Secondly, this utility model also provides a busy board, including the interactive toy provided by this utility model. For example... Figure 9 As shown, the barbecue grill busy board assembly and the French fry busy board assembly provided in this utility model are installed on the component mounting plate 26 of the busy board. By separating the force application component and the action component, and using the linkage component to make the force application component and the action component move in tandem, the user can apply force to the force application component in one position and observe the movement of the action component in another position, thereby enhancing the fun of the toy and increasing children's participation and desire to explore.

[0063] Although embodiments of the present invention have been described in conjunction with the accompanying drawings, those skilled in the art can make various modifications and variations without departing from the spirit and scope of the present invention, and such modifications and variations all fall within the scope defined by the appended claims.

Claims

1. An interactive toy characterized by, The utility model relates to a toy body is provided with a guide piece on it, a force applying assembly is installed on the guide piece, the force applying assembly is suitable for moving along the guide piece, a motion assembly is installed on the toy body, the motion assembly is connected with the force applying assembly through a linkage assembly, the motion assembly is suitable for linkage motion under the drive of the linkage assembly when the force applying assembly moves along the guide piece. The linkage assembly includes a drive crossbar (5) which is rotatably installed on a drive rotating shaft (7) of the toy body, the force applying assembly cooperates with the length direction of the drive crossbar (5) to drive the drive crossbar (5) to swing around the drive rotating shaft (7) when the force applying assembly moves, a drive sliding block (6) which is slidably installed on the toy body, the drive sliding block (6) cooperates with the motion assembly, one of the drive sliding block (6) or the drive crossbar (5) is provided with a cooperation connecting column (8), the other of the drive crossbar (5) or the drive crossbar (5) is provided with a cooperation connecting port (9), the cooperation connecting column (8) is arranged in the cooperation connecting port (9), the inner diameter of the cooperation connecting port (9) in the length direction of the drive crossbar (5) is greater than the outer diameter of the connecting column. The motion assembly includes a motion rotating shaft (10) and a motion piece which is fixedly installed on the motion rotating shaft (10), the motion rotating shaft (10) is provided with a drive gear (12), the drive sliding block (6) is provided with a drive rack (13), the drive gear (12) meshes with the drive rack (13). The motion assembly is provided with a plurality of groups.

2. The interactive toy of claim 1, wherein, The drive sliding block (6) is provided with a drive reset piece between the toy body. The force applying assembly includes a force applying button (14) which is sleevedly installed on the guide piece, a force applying inclined block (15) which is connected with the drive crossbar (5) on one side and is provided with a force applying inclined surface on the other side, the force applying inclined surface abuts with the bottom of the force applying button (14) to drive the force applying inclined surface to move away from the force applying button (14) when the force applying button (14) moves downward along the guide piece. The toy body is provided with a force applying groove (16) in which the force applying inclined block (15) is slidably installed, and / or the toy body is provided with a force applying shaft (17) on which the force applying inclined block (15) is rotatably installed, and the force applying inclined surface is parallel to the force applying shaft (17).

3. The interactive toy of claim 2, wherein, The linkage assembly includes a linkage horizontal plate (21) which is slidably installed on the toy body, the linkage horizontal plate (21) is provided with a positioning hook (22) on the side facing the force applying assembly, one side of the positioning hook (22) is provided with a linkage inclined surface (23) facing the motion assembly.

4. The interactive toy of claim 3, wherein, ​ 5. An interactive toy according to any one of claims 2 to 4, wherein, ​ 6. An interactive toy according to any one of claims 2 to 4, wherein, ​ ​ ​ 7. The interactive toy of claim 6, wherein, ​ 8. The interactive toy of claim 1, wherein, ​ ​ The force applying assembly is provided with a force applying block (24) arranged towards the positioning hook (22), and the force applying block (24) is provided with a force applying slope (25) on one side of the linkage slope (23), the force applying slope (25) is arranged in the same and opposite direction of the linkage slope (23). The force applying assembly is arranged in multiple groups along the length direction of the linkage horizontal plate (21), and the positioning hook (22) is arranged in one-to-one correspondence with the force applying assembly along the length direction of the linkage horizontal plate (21).

9. The interactive toy of claim 8, wherein, The force applying assembly comprises a force applying member, the force applying member is slidingly installed on the guide member, and a force applying reset member is installed between the force applying member and the guide member.

10. A busy board, characterized by An interactive toy comprising any one of claims 1 to 9.

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