EDC fingertip percussion decompression toy

Abstract

The utility model relates to a decompression toy technical field discloses an EDC fingertip smashes the decompression toy of resonance. Including by two the main casing that is combined from the casing board of setting up before and after symmetry, the inside installation of main casing limit component, install decompression subassembly A on main casing, install decompression subassembly B on main casing, limit component one side installs auxiliary locking mechanism, install the component of stirring on main casing, through setting up decompression subassembly A and decompression subassembly B, two different decompression structures, cooperate auxiliary locking mechanism and the component of stirring, realized multiple playing mode, the component of stirring control knock block impact resonant piece, produce sound and action feedback, stir the handle and make the elastic block pop out again reset, multiple playing mode avoided the tedious feeling that traditional decompression toy single playing brought, can continuously attract user, the toy can provide multidimensional feedback, and the abundant sensory feedback can more effectively stimulate the nerve of user, provide better decompression effect.

Description

Technical Field

[0001] This utility model relates to the field of decompression toy technology, specifically an EDC fingertip cracking decompression toy. Background Technology

[0002] In today's fast-paced life, multiple factors such as work pressure, academic burdens, and daily chores lead to increasing psychological stress, making the demand for stress-relief products increasingly urgent. Stress-relief toys, as tools that can help people release stress and alleviate anxiety, have received widespread attention, and their market size continues to expand.

[0003] There are many types of stress-relieving toys on the market, such as fidget spinners, squeeze toys, and stress balls. While these toys can meet people's stress-relieving needs to some extent, most suffer from limited functionality. For example, fidget spinners primarily relieve stress by generating visual and tactile stimulation through rotation, but their gameplay is relatively fixed and can easily become monotonous after prolonged use. Squeeze toys and stress balls mainly rely on squeezing and deformation to achieve stress relief, with simple interaction methods and a lack of diverse experiences. Existing stress-relieving toys also lack sufficient feedback. Many toys only provide tactile feedback during use, lacking multi-dimensional feedback such as sound and movement, failing to fully engage the user's senses and significantly reducing their stress-relieving effect. For instance, some tapping stress-relieving toys do not produce clear, pleasant sounds when tapped, failing to provide strong sensory stimulation and thus affecting their stress-relieving effect.

[0004] To address the aforementioned issues, this application proposes an EDC (Electronic Data Disposal) finger-smashing stress-relieving toy. Utility Model Content

[0005] The purpose of this invention is to provide an EDC (Electronic Data Disposal) fingertip cracking stress-relieving toy to solve the problem mentioned in the background art that the prior art can only provide single tactile feedback and lacks multi-dimensional feedback such as sound and movement.

[0006] To achieve the above objectives, this utility model provides the following technical solution: an EDC fingertip cracking decompression toy, comprising a main shell composed of two shell plates arranged symmetrically front to back, a limiting component installed inside the main shell, a decompression component A installed on the main shell, a decompression component B installed on the main shell, an auxiliary locking mechanism installed on one side of the limiting component, and a toggle component installed on the main shell.

[0007] Furthermore, the limiting assembly includes a top plate, a slide A, and a slide B. The top plate, slide A, and slide B are fixedly connected between the two main housings. Slide A and slide B are disposed below the top plate, and slide A is disposed to the left of slide B.

[0008] Furthermore, the decompression component A includes a rotating block, a first decompression spring, a locking head, and a spring block. The rotating block is rotatably connected between the two main housings via a rotating shaft. The first decompression spring is fixedly connected between the rotating block and one of the main housings. The locking head is fixedly connected to the left end of the rotating block, and the spring block is fixedly connected to the top end of the rotating block.

[0009] Furthermore, the decompression assembly B includes a main arm, a second decompression spring, a pressure handle, a striking block, a stop shell, and a limiting block. The main arm is rotatably connected between the two shell plates via a rotating shaft. The second decompression spring is fixedly connected between one side of the main arm and one of the shell plates. The pressure handle is fixedly connected to the left side of the top end of the main arm. The striking block is fixedly connected to the right end of the main arm. The stop shell is fixedly connected between the two shell plates. The limiting block is fixedly connected to the right side of the bottom end of the main arm.

[0010] Furthermore, the left end of the spring block is provided with a mounting groove, and a clicker is fixedly connected to the inside of the mounting groove. The movement trajectory of the striking block is arc-shaped, and the clicker is set on the movement trajectory of the striking block.

[0011] Furthermore, the auxiliary locking mechanism includes slider A, lever A, locking block A, slider B, lever B, locking block B, and a sliding spring. Slider A is slidably connected to the top of slider A, lever A is fixedly connected to the right end of slider A, and the top of slider A is slidably connected to the top plate. Locking block A is fixedly connected to the top of slider A. Slider B is slidably connected to the top of slider B, lever B is fixedly connected to the left end of slider B, and locking block B is fixedly connected to the top of slider B. The sliding spring is fixedly connected between locking block B and locking block A. Lever B is located in front of lever A. The movement trajectory of the limiting block is arc-shaped, and the movement trajectory of locking block A is straight. The movement trajectory of the limiting block intersects with the movement trajectory of locking block A. A locking groove B is formed on the inner side of locking block B. The movement trajectory of the locking groove B is straight, and the movement trajectory of the locking head is arc-shaped. The movement trajectory of the locking groove B intersects with the movement trajectory of the locking head.

[0012] Furthermore, the actuating assembly includes a turntable, a lever, and a lever. The turntable is rotatably connected to the front end of the shell plate located at the front end via a rotating shaft. The lever is fixedly connected to the bottom end of the turntable. The lever is fixedly connected to the inner side of the lever. A groove is formed on the front end of the shell plate located at the front end. The lever is disposed inside the groove, and the outer side of the lever is slidably connected to the groove.

[0013] Furthermore, the movement trajectory of the lever is arc-shaped, and the lever block A and the lever block B are disposed on the movement trajectory of the lever.

[0014] Compared with the prior art, the beneficial effects of this utility model are:

[0015] This invention utilizes two different decompression structures, A and B, along with an auxiliary locking mechanism and a toggle component, to achieve multiple ways of playing. The first method involves using the thumb to toggle the handle, which, combined with the toggle component, controls the striking block to hit the clicker, producing sound and motion feedback. The second method involves toggle the handle to pop the block out and then reset it. These multiple ways of playing avoid the monotony of traditional decompression toys, continuously attracting users and enhancing the fun of the decompression process, thus better helping users release stress. During use, the toy provides multi-dimensional feedback: the striking block produces a clear sound when hitting the clicker, providing auditory feedback; the popping of the block and the resetting of the striking block provide tactile feedback. This rich sensory feedback effectively stimulates the user's nerves, helping them concentrate, relieve anxiety, and achieve a better decompression effect. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of an EDC (Electronic Data Disposal) fingertip cracking decompression toy according to this utility model;

[0017] Figure 2 This is a rear sectional view of the mounting structure of the shell plate of an EDC fingertip cracking decompression toy according to the present invention.

[0018] Figure 3 This is a rear sectional view of the installation structure of the limiting component and auxiliary locking mechanism of an EDC fingertip cracking decompression toy according to the present invention.

[0019] Figure 4 This is a rear sectional view of the installation structure of the decompression component A of an EDC fingertip cracking decompression toy according to the present invention;

[0020] Figure 5 This is a rear sectional view of the installation structure of the decompression component B of an EDC fingertip cracking decompression toy according to the present invention.

[0021] Figure 6 This is a schematic diagram of the installation structure of the actuating component of an EDC (Electronic Data Disposal) fingertip cracking decompression toy according to the present invention;

[0022] Figure 7 This is a three-dimensional structural diagram of an EDC (Everyday Carry) fingertip cracking decompression toy according to this utility model;

[0023] In the picture:

[0024] 11. Main housing; 111. Shell plate; 12. Limiting assembly; 121. Top plate; 122. Slide A; 123. Slide B; 13. Decompression assembly A; 131. Rotating block; 132. First decompression spring; 133. Locking head; 134. Spring block; 14. Decompression assembly B; 141. Main arm; 142. Second decompression spring; 143. Pressing handle; 144. Striking block; 145. Stop shell; 146. Limiting block; 15. Auxiliary locking mechanism; 151. Slider A; 152. Toggle block A; 153. Locking block A; 154. Slider B; 155. Toggle block B; 156. Locking block B; 157. Sliding spring; 16. Actuating assembly; 161. Turntable; 162. Toggle handle; 163. Toggle lever; 17. Clicker. Detailed Implementation

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0026] All standard parts used in this application can be purchased from the market, and irregular parts can be customized according to the description and drawings. The specific connection methods of each part adopt conventional methods such as bolts, rivets, welding, and bonding that are mature in the prior art.

[0027] Meanwhile, in order to clearly express the connection relationship and working principle between the components and highlight the key points, the accompanying drawings in the instruction manual are organized and drawn in the form of simplified diagrams. One simplified diagram can correspond to multiple materials and actual external structural shapes.

[0028] Please see Figures 1-6This utility model provides a technical solution: an EDC (Everyday Carry) finger-smashing decompression toy, comprising a main shell 11 composed of two shell plates 111 arranged symmetrically front to back, a limiting component 12 installed inside the main shell 11, a decompression component A13 and a decompression component B14 installed on the main shell 11, an auxiliary locking mechanism 15 installed on one side of the limiting component 12, and a toggle component 16 installed on the main shell 11. When the thumb togglees the pressure handle 143, the locking block A153, driven by the pushing force of the sliding spring 157 and the second decompression spring 142, provides torque to the main arm 141, causing the limiting block 146 to fit tightly against the locking block A153. The locking block A153 then restricts the limiting block 146. In position, by turning the lever 162 to the left with the middle finger, the elastic force of the second decompression spring 142 causes the main arm 141 to quickly return to its original position. At the same time, the striking block 144 retracts the retaining shell 145 and strikes the clicker 17, making a sound, thus completing the play. To repeat the operation, by turning the lever 163 to the left with the middle finger, the slider B154 causes the locking block B156 to move to the left and separate from the locking head 133. The elastic force of the first decompression spring 132 causes the rotating block 131 to rotate, which in turn causes the spring block 134 to pop out and separate from the main shell 11. The spring block 134 moves away from the main shell 11 and the striking block 144. The spring block 134 is popped open, and then the spring block 134 is reset by the middle finger or the other hand, thus completing the play.

[0029] The limiting assembly 12 includes a top plate 121, a slide A122, and a slide B123. The top plate 121, slide A122, and slide B123 are fixedly connected between the two main housings 11. Slide A122 and slide B123 are located below the top plate 121, and slide A122 is located to the left of slide B123. The top plate 121 blocks the upper part of slider A151 and slider B154, slide A122 limits the bottom of slider A151, and slide B123 limits the bottom of slider B154, so as to facilitate the sliding of slider A151 and slider B154.

[0030] Decompression assembly A13 includes a rotating block 131, a first decompression spring 132, a locking head 133, and a spring block 134. The rotating block 131 is rotatably connected between the two main housings 11 via a rotating shaft. The first decompression spring 132 is fixedly connected between the rotating block 131 and one of the main housings 11. The locking head 133 is fixedly connected to the left end of the rotating block 131, and the spring block 134 is fixedly connected to the top end of the rotating block 131. Decompression assembly B14 includes a main arm 141, a second decompression spring 142, a pressure handle 143, a striking block 144, a stop shell 145, and a limiting block 14. 6. A main arm 141 is rotatably connected between two shell plates 111 via a pivot. A second decompression spring 142 is fixedly connected between one side of the main arm 141 and one of the shell plates 111. A pressure handle 143 is fixedly connected to the left side of the top of the main arm 141. A striking block 144 is fixedly connected to the right end of the main arm 141. A retaining shell 145 is fixedly connected between the two shell plates 111. A limit block 146 is fixedly connected to the right side of the bottom of the main arm 141. A mounting groove is provided on the left end of the spring block 134. A clicker 17 is fixedly connected to the inside of the mounting groove. The movement of the striking block 144... The trajectory is arc-shaped. The clicker 17 is positioned on the movement trajectory of the striking block 144. The middle finger can be used to flick the lever 162 outwards, causing the lever 163 to rotate to the left. The lever 163 causes the paddle block B155 to move to the left, which in turn causes the slider B154 to move to the left. The slider B154 then causes the locking block B156 to move to the left and separate from the locking head 133. The elastic force of the first decompression spring 132 causes the rotating block 131 to rotate, thereby causing the spring block 134 to pop out and separate from the main housing 11. The spring block 134 moves away from the main housing 11 and the striking block 144. Block 134 is popped open, and then the middle finger or the other hand is used to reset block 134 to complete the play. Repeat the operation. This is the second way to play. Block 134 rotates back, which drives block 131 to rotate back. Block 131 rotates back, which drives the locking head 133 to rotate back. The sliding spring 157 pushes the slider A151 and the locking block B156 to keep them away from each other. The arc surface of the locking head 133 contacts the locking block B156 and pushes the locking block B156 open. Then the sliding spring 157 resets the locking block B156, so that the locking head 133 is placed inside the slot B of the locking block B156.

[0031] The auxiliary locking mechanism 15 includes a slider A151, a toggle block A152, a locking block A153, a slider B154, a toggle block B155, a locking block B156, and a sliding spring 157. Slider A151 is slidably connected to the top of slide block A122. Toggle block A152 is fixedly connected to the right end of slider A151. The top of slider A151 is slidably connected to the top plate 121. Locking block A153 is fixedly connected to the top of slider A151. Slider B154 is slidably connected to the top of slide block B123. Toggle block B155 is fixedly connected to the left end of slider B154. Locking block B156 is fixedly connected to the top of slider B154. A sliding spring 157 is fixedly connected between locking block B156 and locking block A153. Toggle block B155 is located in front of toggle block A152. The movement trajectory of the limiting block 146 is arc-shaped, and the movement trajectory of the locking block A153 is straight. The movement trajectory of the limiting block 146 intersects with the movement trajectory of the locking block A153. A locking groove B is provided on the inner side of the locking block B156. The movement trajectory of the locking groove B of the locking block B156 is straight. The movement trajectory of the locking head 133 is arc-shaped, and the movement trajectory of the locking groove B intersects with the movement trajectory of the locking head 133. The actuating assembly 16 includes a turntable 161, a lever 162, and a lever 163. The front end of the shell plate 111 located at the front end is rotatably connected to the turntable 161 via a rotating shaft. The bottom end of the turntable 161 is fixedly connected to the lever 162. The inner side of the lever 162 is fixedly connected to the lever 163. A locking groove is provided on the front end of the shell plate 111 located at the front end. 3. The lever 163 is slidably connected to the inner side of the slot. The movement trajectory of the lever 163 is arc-shaped. The lever A152 and lever B155 are set on the movement trajectory of the lever 163. The index finger passes through the annular hole of the shell plate 111, the web of the thumb rests against the left side of the shell plate 111, and the middle finger is close to the lever 162. This is the normal grip posture of the toy. The thumb can be used to turn the pressure handle 143, which drives the main arm 141 to rotate to the left, so that the striking block 144 separates from the stop shell 145. Then the sliding spring 157 pushes the slider A151 and the locking block B156 to keep the slider A151 and slider B154 away from each other. After the main arm 141 rotates, it drives the limiting block 146 to rotate, and the locking block A153... The sliding spring 157 keeps the main arm 141 in contact with the main arm 141, and the second decompression spring 142 drives the main arm 141 to apply torque, causing the limiting block 146 to fit tightly with the locking block A153. The locking block A153 limits the limiting block 146, thereby maintaining the position of the main arm 141 after rotation and keeping the striking block 144 separated from the cover 145. First, the lever 162 can be turned to the left by the middle finger. The rotation of the lever 162 drives the turntable 161 to rotate, the turntable 161 drives the lever 162 to rotate, the lever 162 drives the lever 163 to rotate, the lever 163 rotates to the right, causing the lever A152 to slide to the right, the lever A152 drives the slider A151 to slide to the right, and the slider A151 slides to the right, causing the locking block A153 to slide to the right.This causes the locking block A153 to separate from the limiting block 146 on the main arm 141. Then, the elastic force of the second decompression spring 142 causes the main arm 141 to quickly return to its original position, which in turn causes the main arm 141 to drive the striking block 144 to return to its original position. Simultaneously, the striking block 144 retracts into the retaining shell 145 and strikes the clicker 17, producing a sound, thus completing the play. The operation can be repeated.

[0032] Working principle:

[0033] When playing with the toy, the index finger passes through the annular hole of the shell plate 111, the web of the thumb rests against the left side of the shell plate 111, and the middle finger is close to the lever 162. This is the normal grip posture for the toy. The thumb can be used to turn the pressure lever 143, causing the main arm 141 to rotate to the left, causing the striking block 144 to separate from the stop shell 145. Then, the sliding spring 157 pushes the slider A151 and the locking block B156 to keep slider A151 and slider B154 away from each other. After the main arm 141 rotates, it causes the limiting block 146 to rotate. The locking block A153 is kept in contact with the main arm 141 by the pushing force of the sliding spring 157, and the second decompression spring 142 drives the main arm 141 to apply torque, so that the limiting block 146 and the locking block A153 are tightly in contact. The locking block A153 limits the limiting block 146, thereby maintaining the position of the main arm 141 after rotation. To keep the striking block 144 separated from the cover 145, you can first turn the lever 162 to the left with your middle finger. The turn of the lever 162 will cause the turntable 161 to rotate, which in turn will cause the lever 162 to rotate. The lever 162 will then cause the lever 163 to rotate, which will cause the lever A152 to slide to the right. The lever A152 will then cause the slider A151 to slide to the right, which will cause the locking block A153 to slide to the right. This will cause the locking block A153 to separate from the limiting block 146 on the main arm 141. Then, the elastic force of the second decompression spring 142 will cause the main arm 141 to quickly return to its original position, which will cause the striking block 144 to return to its original position. As the striking block 144 retracts into the cover 145, it will strike the clicker 17 and make a sound, thus completing the play. Repeat the operation. This is the first way to play.

[0034] Alternatively, the lever 163 can be rotated to the left by flicking the lever 162 outward with the middle finger. The lever 163 causes the lever B155 to move to the left, which in turn causes the slider B154 to move to the left. The slider B154 causes the locking block B156 to move to the left and separate from the locking head 133. The elastic force of the first decompression spring 132 causes the rotating block 131 to rotate, which in turn causes the spring block 134 to pop out and separate from the main housing 11. The spring block 134 moves away from the main housing 11 and the striking block 144. The spring block 134 is popped away, and then the spring block 134 can be reset by operating the middle finger or the other hand to complete the play. Repeat the operation. This is the second way to play.

[0035] The spring block 134 rotates back, causing the rotating block 131 to rotate back. The rotating block 131 rotates back, causing the locking head 133 to rotate back. The sliding spring 157 pushes the slider A151 and the locking block B156 to keep them away from each other. The arc surface of the locking head 133 contacts the locking block B156 and pushes the locking block B156 away. After that, the sliding spring 157 resets the locking block B156, so that the locking head 133 is placed inside the slot B of the locking block B156.

Claims

1. An EDC (Everyday Carry) finger-smashing stress-relieving toy, characterized in that: It includes a main housing (11) composed of two shell plates (111) arranged symmetrically front to back. A limiting component (12) is installed inside the main housing (11). A decompression component A (13) is installed on the main housing (11). A decompression component B (14) is installed on the main housing (11). An auxiliary locking mechanism (15) is installed on one side of the limiting component (12). A toggle component (16) is installed on the main housing (11).

2. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 1, characterized in that: The limiting component (12) includes a top plate (121), a slide A (122) and a slide B (123). The top plate (121), slide A (122) and slide B (123) are fixedly connected between the two main housings (11). The slide A (122) and the slide B (123) are located below the top plate (121), and the slide A (122) is located to the left of the slide B (123).

3. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 2, characterized in that: The decompression assembly A (13) includes a rotating block (131), a first decompression spring (132), a locking head (133), and a spring block (134). The rotating block (131) is rotatably connected between the two main housings (11) via a rotating shaft. The first decompression spring (132) is fixedly connected between the rotating block (131) and one of the main housings (11). The locking head (133) is fixedly connected to the left end of the rotating block (131), and the spring block (134) is fixedly connected to the top end of the rotating block (131).

4. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 3, characterized in that: The decompression assembly B (14) includes a main arm (141), a second decompression spring (142), a pressure handle (143), a striking block (144), a retaining shell (145), and a limiting block (146). The main arm (141) is rotatably connected between the two shell plates (111) via a rotating shaft. The second decompression spring (142) is fixedly connected between one side of the main arm (141) and one of the shell plates (111). The pressure handle (143) is fixedly connected to the left side of the top end of the main arm (141). The striking block (144) is fixedly connected to the right end of the main arm (141). The retaining shell (145) is fixedly connected between the two shell plates (111). The limiting block (146) is fixedly connected to the right side of the bottom end of the main arm (141).

5. The EDC (Electronic Data Disposal) finger-smashing stress-relieving toy according to claim 4, characterized in that: The left end of the spring block (134) has an installation groove, and a clicker (17) is fixedly connected to the inside of the installation groove. The movement trajectory of the striking block (144) is arc-shaped, and the clicker (17) is set on the movement trajectory of the striking block (144).

6. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 5, characterized in that: The auxiliary locking mechanism (15) includes slider A (151), lever A (152), locking block A (153), slider B (154), lever B (155), locking block B (156), and sliding spring (157). The top of the slide block A (122) is slidably connected to the slider A (151). The right end of the slider A (151) is fixedly connected to the lever A (152). The top of the slider A (151) is slidably connected to the top plate (121). The top of the slider A (151) is fixedly connected to the locking block A (153). The top of the slide block B (123) is slidably connected to the slider B (154). The left end of the slider B (154) is fixedly connected to the lever B (155). (154) The top end is fixedly connected to the card block B (156), and the sliding spring (157) is fixedly connected between the card block B (156) and the card block A (153). The push block B (155) is located on the front side of the push block A (152). The movement trajectory of the limiting block (146) is arc-shaped, and the movement trajectory of the card block A (153) is straight. The movement trajectory of the limiting block (146) intersects with the movement trajectory of the card block A (153). The card block B (156) has a card groove B on its inner side. The movement trajectory of the card groove B of the card block B (156) is straight. The movement trajectory of the card head (133) is arc-shaped. The movement trajectory of the card groove B intersects with the movement trajectory of the card head (133).

7. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 6, characterized in that: The actuation assembly (16) includes a turntable (161), a lever (162), and a lever (163). The turntable (161) is rotatably connected to the front end of the shell plate (111) located at the front end via a rotating shaft. The lever (162) is fixedly connected to the bottom end of the turntable (161). The lever (163) is fixedly connected to the inner side of the lever (162). A groove is provided on the front end of the shell plate (111) located at the front end. The lever (163) is located inside the groove. The outer side of the lever (163) is slidably connected to the groove.

8. The EDC (Everyday Carry) finger-smashing stress-relieving toy according to claim 7, characterized in that: The movement trajectory of the lever (163) is arc-shaped, the lever A (152) is set on the movement trajectory of the lever (163), and the lever B (155) is set on the movement trajectory of the lever (163).

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