Finger pressing toy
By designing a sharp toy that combines the mandrel assembly, the pressing sliding assembly and the rotating body, the toy produces rotational movement after finger pressing is achieved, solving the problem of the single style and gameplay of the existing sharp toy, bringing a more interesting decompression experience.
Patent Information
- Application Number
- CN202421282107.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-06-06
- Publication Date
- 2025-06-17
- Estimated Expiration
- 2034-06-06
AI Technical Summary
The existing acupressure toys have a single style and gameplay, which is less interesting, and no decompression toys that can produce rotational movement after pressing has been found.
A finger pressing toy is designed, which can generate rotational movement after pinching with fingers. Through the combination of mandrel assembly, pressing sliding assembly and rotating body, the ratchet and pawl are able to push the drum to rotate quickly after finger pressing.
During the play, the toy can produce a rotational movement after pinching the fingers, bringing a decompression effect, and resetting the toy through the action of the thrust spring, creating conditions for the next press. At the same time, the rotation of the ratchet and pawls can also make a "dak da" sound, enhancing the psychological understanding of the pressure effect.
Smart Images
Figure CN222983695U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of toys, and in particular relates to a finger pressure toy. Background Art
[0002] The pace of life in contemporary society is getting faster and faster. People often face various kinds of pressure and need to try various ways to relieve stress. Decompression toys have emerged as a result. Among them, the most common decompression toys are finger pressure toys. The finger pressure toys are provided with a pressing member (such as a pressing piece, a pressing cover) on the shell that can be pressed by fingers. After squeezing, the toy can rebound or move. People can squeeze it at will to make the toy produce a certain reaction, which helps to relieve stress. However, the existing finger pressure toys have a single style and gameplay, and are less interesting. There is no decompression toy that can produce a rotating motion after pressing. Utility Model Content
[0003] The utility model aims to overcome the above disadvantages and provide a finger pressure toy which can generate rotational motion after being squeezed by fingers and has a decompression effect.
[0004] The purpose can be achieved according to the following scheme: A finger pressure toy includes a core shaft assembly, characterized in that it is also provided with a pressing sliding assembly and a rotating body;
[0005] The spindle assembly includes a spindle, a ratchet, an inner collar, and an outer collar, wherein the ratchet, the inner collar, and the outer collar are fixed on the spindle and rotate synchronously with the spindle, wherein the ratchet is located at the axial middle position of the spindle, and the inner collar is located inside the outer collar and outside the ratchet;
[0006] The push-slide assembly includes a sliding collar, a sleeve, and a push cover that are fixedly connected together. The sliding collar is sleeved around the core shaft and can rotate and move axially relative to the core shaft. The sliding collar is fixedly sleeved inside the sleeve, and the push cover is fixedly connected to the outside of the sleeve. The sliding collar, the sleeve, and the push cover move synchronously. The sliding collar is located between the inner collar and the outer collar, and the outer collar is located inside the sleeve cavity and can rotate and move axially relative to the sleeve.
[0007] The rotating body is provided with a rotating drum; the central axes of the rotating drum, the sleeve and the core shaft are in the same position; the ratchet is located in the center of the inner cavity of the rotating drum, the axial positions of the rotating drum and the ratchet are fixed but can rotate relatively, the end of the rotating drum is sleeved around the sleeve, the rotating drum and the sleeve can rotate relatively, and the sleeve can also move axially relative to the rotating drum; a pawl cooperating with the ratchet is installed inside the rotating body, and the pawl and the rotating body rotate synchronously around the central axis of the core shaft;
[0008] The end face of the inner collar facing the outside is formed with a first inclined surface, and the end face of the sliding collar facing the inside is formed with a second inclined surface that cooperates with the first inclined surface; a thrust spring is also provided between the inner collar and the sliding collar.
[0009] The end face of the sliding collar facing the outside is formed with a third inclined surface, and the end face of the outer collar facing the inside is formed with a fourth inclined surface that cooperates with the third inclined surface; when the azimuth where the outer end of the third inclined surface is located aligns with the azimuth where the outer end of the fourth inclined surface is located, the azimuth where the inner end of the second inclined surface is located is offset from the azimuth where the inner end of the first inclined surface is located. This means that when the azimuth where the inner end of the second inclined surface rotates to align with the azimuth where the inner end of the first inclined surface is located, the azimuth where the outer end of the third inclined surface is located is offset from the azimuth where the outer end of the fourth inclined surface is located.
[0010] The rotating body includes a weight decoration member, and the weight decoration member is fixedly connected to the rotating cylinder and rotates synchronously with the rotating cylinder.
[0011] There are two sets of pressing and sliding components, and the two sets of pressing and sliding components are arranged on opposite sides of the ratchet wheel; the number of inner collars and outer collars is two respectively, and the two inner collars are arranged on opposite sides of the ratchet wheel, and the two outer collars are arranged on opposite sides of the ratchet wheel.
[0012] The two sets of pressing and sliding components are symmetrically arranged along the axial direction of the core shaft, the two inner collars are symmetrically arranged along the axial direction of the core shaft, and the two outer collars are symmetrically arranged along the axial direction of the core shaft.
[0013] In this application document, the inner and outer directions refer to the directions on the central axis of the core shaft; and the direction closer to the axial center point of the core shaft is the inner, and the direction away from the axial center point of the core shaft is the outer.
[0014] Since the end face of the collar is an inclined surface, that is, it is obliquely intersecting and not perpendicular to the central axis of the core shaft, the coordinate positions of the points on the inclined surface along the axial direction of the core shaft are inconsistent, which means that some parts of the inclined surface are close to the inside and some parts are close to the outside. Further, the part of the inclined surface closest to the inside is called the inner end of the inclined surface, and the part of the inclined surface closest to the outside is called the outer end of the inclined surface.
[0015] The so-called "azimuth" refers to the azimuth relative to the central axis of the core shaft. The so-called "azimuth of the end of the inclined surface" refers to the direction position (also called the rotation position) of the end of the inclined surface relative to the central axis of the core shaft. During the rotation of the collar (inner collar / outer collar / sliding collar) around the central axis of the core shaft, the direction positions of the outer end and the inner end of the end face (inclined surface) of the collar relative to the central axis of the core shaft will change, that is, the azimuths of the outer end and the inner end of the inclined surface will change.
[0016] The utility model has the following advantages and effects:
[0017] 1. During the play process of the present utility model, the fingers pinch the pressing and sliding assembly and push it to move inwards. The pinching force of the fingers drives the ratchet to rotate through the action of the inclined plane, and the ratchet further drives the rotating cylinder (including the weight decoration part) to rotate rapidly through the pawl. The player can relieve stress and feel comfortable during the above process. After the fingers are relaxed, the thrust spring pushes the pressing and sliding assembly to move outwards and reset, creating conditions for the next press.
[0018] 2. During the relative rotation process of the ratchet and the pawl, it can also make a "click, click, click" sound, which has a further psychological stress relief effect. BRIEF DESCRIPTION OF THE DRAWINGS
[0019] Figure 1 is a three-dimensional structural schematic diagram of a specific embodiment of the present utility model in a state where it has not been subjected to the pinching force of the fingers.
[0020] Figure 2 is Figure 1 an internal structural schematic diagram of the structure shown after hiding a part of the rotating body components.
[0021] Figure 3 is Figure 2 an internal structural schematic diagram of the structure shown after further hiding the thrust spring and the sleeve.
[0022] Figure 4 is Figure 1 a sectional schematic diagram of the structure shown.
[0023] Figure 5 is Figure 4 a sectional view along line E-E in
[0024] Figure 6 is Figure 4 a front view structural diagram of the mandrel assembly in the state shown.
[0025] Figure 7 is a three-dimensional structural diagram of the mandrel assembly.
[0026] Figure 8 is Figure 4 a structural schematic diagram of one of the pressing and sliding assemblies in
[0027] Figure 9 is Figure 8 an internal three-dimensional structural schematic diagram of the sliding collar in
[0028] Figure 10 is Figure 1 a schematic diagram of the positional relationship among the inner collar, the sliding collar, and the outer collar in the state shown.
[0029] Figure 11 is the sliding collar from Figure 10Schematic diagram of the change state when just contacting the inner collar during the inward sliding process of the shown state.
[0030] Figure 12 It is a schematic diagram of the state when the pressing and sliding component slides in place inward and the second inclined surface of the sliding collar is closest to the first inclined surface of the inner collar to the maximum extent.
[0031] Figure 13 Is Figure 12 Schematic diagram of the internal structure of the toy in the shown state.
[0032] Figure 14 Is Figure 12 Schematic diagram of the positional relationship among the inner collar, the sliding collar and the outer collar in the shown state.
[0033] Figure 15 Is when the sliding collar moves Figure 14 Schematic diagram of the change state when just contacting the outer collar during the outward sliding process of the shown state. Detailed implementation method
[0034] Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 As shown in Figure 3 , Figure 4 , Figure 6 , Figure 7 , ,
[0035] , Figure 3 , Figure 2 , Figure 8 , Figure 4 , a finger-pressing toy includes a pressing and sliding component 1, a core shaft component 2, and a rotating body 3. Figure 3 、 Figure 4 、 Figure 6 、 Figure 7 As shown in ,
[0035] , Figure 3 , the core shaft component 2 includes a core shaft 20, a ratchet 21, an inner collar 22, and an outer collar 23. The ratchet 21, the inner collar 22, and the outer collar 23 are fixed on the core shaft 20 and rotate synchronously with the core shaft. Among them, the ratchet 21 is located at the axial middle position of the core shaft 20, the inner collar 22 is located inside the outer collar 23 and outside the ratchet 21; the numbers of the inner collar 22 and the outer collar 23 are both two, and the two inner collars 22 are arranged on the opposite sides of the ratchet 21 and symmetrically arranged along the axial direction of the core shaft; the two outer collars 23 are arranged on the opposite sides of the ratchet 21 and symmetrically arranged along the axial direction of the core shaft.
[0035] Figure 3 、 Figure 2 、 Figure 8 、 Figure 4As shown, there are two groups of push-sliding assemblies 1, which are arranged on opposite sides of the ratchet 21 and symmetrically arranged along the axial direction of the core shaft; each group of push-sliding assemblies 1 includes a sliding ring 11, a sleeve 10, and a pressing cover 12 fixedly connected together, the sliding ring 11 is sleeved around the core shaft 20 and can rotate and move axially relative to the core shaft 20, the sliding ring 11 is fixedly sleeved inside the sleeve 10, and the pressing cover 12 is fixedly connected to the outside of the sleeve 10, and the sliding ring 11, the sleeve 10, and the pressing cover 12 move synchronously; the sliding ring 11 is located between the inner ring 22 and the outer ring 23, and the outer ring 23 is located inside the barrel cavity of the sleeve 10 and can rotate and move axially relative to the sleeve 10.
[0036] Figure 1 , Figure 2 , Figure 3 , Figure 5 As shown, the rotating body 3 is provided with a rotating drum 30 and a counterweight decorative member 31, and the counterweight decorative member 31 is fixedly connected to the rotating drum 30 and rotates synchronously with the rotating drum 30. The central axis positions of the rotating drum 30, the sleeve 10, and the core shaft 20 are the same (as shown in FIG. Figure 4 As shown in the center axis m, the drum 30 rotates around the core shaft 20, and the ratchet 21 is located in the center of the inner cavity of the drum 30. The drum 30 is also fixedly connected to an annular limit plate 32, and the annular limit plate 32 is axially limited by the inner ring 22 and the ratchet 21, so that the axial positions of the drum 30 and the ratchet 21 are fixed but can rotate relatively, and the drum 30 cannot move axially along the core shaft 20; the end of the drum 30 is sleeved around the sleeve 10, and the drum 30 and the sleeve 10 can rotate relatively, and the sleeve 10 can also move axially relative to the drum 30; a pawl 4 that cooperates with the ratchet 21 is installed inside the rotating body 3, and the pawl 4 and the rotating body 3 rotate synchronously around the central axis of the core shaft 20; wherein the pawl 4 can rotate slightly around the pawl shaft 40, and the pawl shaft 40 is installed inside the rotating body 3, and the compression spring 41 applies pressure to the pawl 4. A thrust spring 5 is also provided between the inner ring 22 and the sliding ring 11, as shown in FIG. Figure 2 , Figure 4 shown.
[0037] Figure 6 , Figure 7 , Figure 9 As shown, the end surface of the inner ring 22 facing outward is formed with a first inclined surface 61, and the end surface of the sliding ring 11 facing inward is formed with a second inclined surface 62 that matches the first inclined surface; the end surface of the sliding ring 11 facing outward is formed with a third inclined surface 63, and the end surface of the outer ring 23 facing inward is formed with a fourth inclined surface 64 that matches the third inclined surface; when the outer end (e.g. Figure 9 , Figure 11 The direction of the end where the middle point C is located) is aligned with the outer end of the fourth inclined surface 64 (for example Figure 6 , Figure 7 ,Figure 10 , Figure 11 When in the orientation where the inner end of the second inclined surface 62 (such as the end where point D is located in Figure 9 , Figure 10 the end where point B is located in Figure 6 , Figure 11 , Figure 10 the end where point A is located in Figure 9 , Figure 14 , Figure 15 the end where point B is located in Figure 6 , Figure 14 , Figure 15 the end where point A is located in Figure 9 , Figure 14 , Figure 15 the end where point C is located in Figure 14 , Figure 15 the end where point D is located in
[0038] The working principle of the above embodiment is as follows:
[0039] During the rotation of the sleeve around the central axis of the mandrel 20, when the first inclined surface 61 of the inner sleeve 22 is closest to the second inclined surface 62 of the sliding sleeve 11 to the maximum extent, the orientation of the inner end of the first inclined surface 61 (such as Figure 14 the end where point A is located in Figure 14 the end where point B is located in Figure 12 , Figure 13 , Figure 14 shown in; conversely, when the orientation of the inner end of the first inclined surface 61 (such as Figure 11 the end where point A is located in Figure 11 the end where point B is located in Figure 11 shown in, then even if the inner sleeve 22 and the sliding sleeve 11 are in contact, there is still room for further approaching each other axially. So under the action of the inward pressure (axial pressure), the inner sleeve 22 and the sliding sleeve 11 will slide along the first inclined surface 61 and the second inclined surface 62, and there will be axial relative movement and rotation during the sliding process until the orientation of the inner end of the first inclined surface aligns with the orientation of the inner end of the second inclined surface (i.e., the first inclined surface 61 is closest to the second inclined surface 62 to the maximum extent). By the same token, when the third inclined surface 63 of the sliding sleeve 11 is closest to the fourth inclined surface 64 of the outer sleeve 23 to the maximum extent, the outer end of the third inclined surface 63 (such as Figure 10the orientation of the end where point C is located (in [description]) is aligned with the outer end of the fourth inclined surface 64 (for example Figure 10 the orientation of the end where point D is located (in [description]), as Figure 10 shown; conversely, when the orientation of the outer end of the third inclined surface 63 is not aligned with the orientation of the outer end of the fourth inclined surface 64, even if the outer collar 23 and the sliding collar 11 are in contact, the third inclined surface 63 and the fourth inclined surface 64 cannot be in the closest proximity to the maximum extent, as Figure 15 shown. Therefore, under the action of an outward pressure (axial pressure), both the outer collar 23 and the sliding collar 11 will slide along the fourth inclined surface 64 and the third inclined surface 63, and during the sliding process, there will be an axial relative movement and rotation between the two until the orientation of the inner end of the third inclined surface 63 is aligned with the orientation of the inner end of the fourth inclined surface 64 (that is, the third inclined surface 63 and the fourth inclined surface 64 are in the closest proximity to the maximum extent, as Figure 10 、 Figure 4 shown).
[0040] Before starting to use, in the natural state without finger pressure, due to the axial thrust of the thrust spring 5, the pressing and sliding assembly 1 (including the sliding collar 11) is at the outermost end of its sliding track, the third inclined surface 63 of the sliding collar 11 is in contact with the fourth inclined surface 64 of the outer collar 23, and the orientation of the outer end of the third inclined surface 63 (for example Figure 10 the end where point C is located in [description]) is aligned with the orientation of the outer end of the fourth inclined surface 64 (for example Figure 10 the end where point D is located in [description]), while the orientation of the inner end of the second inclined surface 62 (for example Figure 10 the end where point B is located in [description]) is offset from the orientation of the inner end of the first inclined surface 61 (for example Figure 10 the end where point A is located in [description]), as Figure 10 、 Figure 3 、 Figure 4 shown; when the two pressing covers 12 are pinched by fingers and pressed inward, the pressing and sliding assembly 1 moves inward, the third inclined surface 63 disengages from the fourth inclined surface 64, and the first inclined surface 61 and the second inclined surface 62 gradually come into contact; but when the first inclined surface 61 and the second inclined surface 62 first come into contact, the inner end of the second inclined surface 62 (for example Figure 11 the end where point B is located in [description]) does not contact the inner end of the first inclined surface 61 (for example Figure 11 the end where point A is located in [description]), and the sliding collar 11 is not in the closest proximity to the inner collar 22, as Figure 11 shown. Therefore, under the axial pinching force of the fingers, the sliding collar 11 and the inner collar 22 will rotate relative to each other and gradually come closer. Since the pressing cover 12 (pressing and sliding assembly) is pinched by the fingers and cannot rotate, it is the mandrel assembly 2 that is forced to rotate. Furthermore, the ratchet 21 of the mandrel assembly 2 pushes the pawl 4 and the rotating body 3 (including the rotating cylinder 30 and the counterweight decorative part 31) to rotate rapidly. In Figure 5It is embodied as the ratchet 21 rotating counterclockwise to push the pawl 4 and the rotating body 3 to rotate counterclockwise; the relative rotation of the sliding collar 11 and the inner collar 22 and their gradual approach result in their closest proximity, as shown in Figure 12 , Figure 13 , Figure 14 ; when the second inclined surface 62 of the sliding collar 11 and the first inclined surface 61 of the inner collar 22 are closest to each other (i.e., the sliding collar 11 and the inner collar 22 are closest to each other), the core shaft assembly 2 including the ratchet 21 stops rotating. However, due to the rotational inertia of the counterweight decorative part 31, the counterweight decorative part 31 and the drum 30 can still continue to rotate for several turns (in Figure 5 , it is embodied as the rotating body 3 and the pawl 4 continuing to rotate counterclockwise relative to the ratchet 21). During this process, the pawl 4 can slide over the surface of the ratchet 21, making a "click-click-click" sound; when the sliding collar 11 and the inner collar 22 are closest to each other, the finger can be released and no longer apply an axial squeezing force. Then, under the action of the thrust spring 5, the pressing sliding assembly 1 moves outward, and the second inclined surface 62 of the sliding collar 11 disengages from the first inclined surface 61 of the inner collar 22. The third inclined surface 63 of the sliding collar 11 gradually contacts the fourth inclined surface 64 of the outer collar 23. However, when the third inclined surface 63 of the sliding collar 11 just contacts the fourth inclined surface 64 of the outer collar 23, the outer end of the third inclined surface 63 (such as the end where point C is located in Figure 15 ) does not contact the outer end of the fourth inclined surface 64 (such as the end where point D is located in Figure 15 ), and the third inclined surface 63 of the sliding collar is not closest to the fourth inclined surface 64 of the outer collar 23, as shown in Figure 15 . Therefore, under the outward pressure of the thrust spring 5, the sliding collar 11 and the outer collar 23 will rotate relative to each other and gradually approach, forcing the core shaft assembly 2 to rotate until the third inclined surface 63 of the sliding collar 11 and the fourth inclined surface 64 of the outer collar 23 are closest to each other, as shown in Figure 4 , Figure 10 ; when the third inclined surface 63 of the sliding collar 11 and the fourth inclined surface 64 of the outer collar 23 are closest to each other, the entire toy returns to the natural state without being pressed by the finger, and then the next process of squeezing and releasing can begin, and so on in a cycle.
Claims
1. A finger pressure toy, comprising a core shaft assembly, characterized in that: A pressing sliding component and a rotating body are also provided; The spindle assembly includes a spindle, a ratchet, an inner collar, and an outer collar, wherein the ratchet, the inner collar, and the outer collar are fixed on the spindle and rotate synchronously with the spindle, wherein the ratchet is located at the axial middle position of the spindle, and the inner collar is located inside the outer collar and outside the ratchet; The push-slide assembly includes a sliding collar, a sleeve, and a push cover that are fixedly connected together. The sliding collar is sleeved around the core shaft and can rotate and move axially relative to the core shaft. The sliding collar is fixedly sleeved inside the sleeve, and the push cover is fixedly connected to the outside of the sleeve. The sliding collar, the sleeve, and the push cover move synchronously. The sliding collar is located between the inner collar and the outer collar, and the outer collar is located inside the sleeve cavity and can rotate and move axially relative to the sleeve. The rotating body is provided with a rotating drum; the central axes of the rotating drum, the sleeve and the core shaft are in the same position; the ratchet is located in the center of the inner cavity of the rotating drum, the axial positions of the rotating drum and the ratchet are fixed but can rotate relatively, the end of the rotating drum is sleeved around the sleeve, the rotating drum and the sleeve can rotate relatively, and the sleeve can also move axially relative to the rotating drum; a pawl cooperating with the ratchet is installed inside the rotating body, and the pawl and the rotating body rotate synchronously around the central axis of the core shaft; The end surface of the inner ring facing outward is formed with a first inclined surface, and the end surface of the sliding ring facing inward is formed with a second inclined surface matching the first inclined surface; a thrust spring is also arranged between the inner ring and the sliding ring.
2. The finger pressure toy according to claim 1, characterized in that: A third inclined surface is formed on the outer end surface of the sliding ring, and a fourth inclined surface matching the third inclined surface is formed on the inner end surface of the outer ring; when the outer end of the third inclined surface is aligned with the outer end of the fourth inclined surface, the inner end of the second inclined surface is offset from the inner end of the first inclined surface.
3. The finger pressure toy according to claim 2, characterized in that: The rotating body comprises a counterweight decoration piece, which is fixedly connected with the rotating drum and rotates synchronously with the rotating drum.
4. The finger pressure toy according to claim 1, 2 or 3, characterized in that: There are two groups of push-slide assemblies, which are arranged on opposite sides of the ratchet; there are two inner rings and two outer rings, respectively, which are arranged on opposite sides of the ratchet, and two outer rings are arranged on opposite sides of the ratchet.
5. The finger pressure toy according to claim 4, characterized in that: The two groups of pressing and sliding components are symmetrically arranged along the axial direction of the core shaft, the two inner rings are symmetrically arranged along the axial direction of the core shaft, and the two outer rings are symmetrically arranged along the axial direction of the core shaft.