Multifunctional portable device for relieving pressure of teenagers

Abstract

The invention relates to the technical field of pressure dredging devices, in particular to a multifunctional portable device for pressure dredging of teenagers. According to the technical scheme, the portable decompressing device comprises a supporting structure, a storage structure, a first decompressing structure, a second decompressing structure and a third decompressing structure. The storage structure comprises a first clamping cover and a second clamping cover. The supporting structure comprises a first supporting ring, a second supporting ring, a first butt joint block, a second butt joint block, a first rotating shaft, a rotating arm and a suction cup. The first decompression structure comprises a third bearing support, a side shaft, a first doll body, a first doll head, a first swing spring and a balancing weight. The third decompression structure comprises a mounting pipe, a telescopic sleeve, a pressing plate, a first reset spring, a storage battery, a power connection block, a second reset spring, a conductive head, a wire, a partition plate, a third swing spring, a second doll body, a second swing spring, a spherical shell, a fifth rotating shaft, a conductive ring and a magnetic block. The second decompression structure comprises a conveying pipe. Through the multifunctional decompression structure which can be conveniently unfolded and stored and is convenient to carry and use, available decompression at any time is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of stress relief devices, and in particular to a multifunctional portable device for relieving stress in teenagers. Background Art

[0002] On a physiological level, aerobic exercise promotes the secretion of endorphins. The handgrip simulates the effects of exercise through muscle contraction. The pressing action activates the skin's mechanical receptors, sending calming signals to the brainstem. The hammer releases pressure. The above is an effective exercise decompression and tactile intervention.

[0003] There are also some similar grippable, squeezeable spheres for pressure relief, which can be shaped like steamed buns and various cartoon images. However, these devices have a limited pressure relief function, and hammer-type devices are mostly large, fixed, and cannot be easily carried around. They require travel to designated pressure relief locations, and are unable to relieve and release the pressure that teenagers generate and accumulate at any time, resulting in limited flexibility. Therefore, those skilled in the art have provided a multifunctional portable device for relieving stress in teenagers to address the problems raised in the above background technology. Summary of the Invention

[0004] The purpose of the present invention is to address the problems existing in the background technology and to provide a multifunctional portable device for relieving stress in teenagers.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solution: a multifunctional portable device for relieving stress in teenagers, comprising a support structure, a storage structure, a first decompression structure, a second decompression structure, and a third decompression structure, wherein the storage structure comprises a first card cover and a second card cover;

[0006] The support structure includes a support ring 1 located at the lower end of the card cover, a support ring 2 located at the lower end of the card cover 2, a docking block 1 and a docking block 2 located at opposite ends of the support ring 1 and the support ring 2, a rotating shaft 1 rotatably mounted inside the docking block 1 and the docking block 2, a rotating arm rotatably mounted at the lower ends of the support ring 1 and the support ring 2 and distributed in an annular array, a suction cup located at the rotating arm and the lower ends of the support ring 1 and the support ring 2, an annular receiving groove opened inside the lower ends of the support ring 1 and the support ring 2, and a rotating shaft 2 located at the upper end of the rotating arm and rotatably mounted on the inner wall of the receiving groove;

[0007] The decompression structure includes a bearing bracket 3 located at the upper end of the card cover 2, a side shaft rotatably installed inside the bearing bracket 3, a doll body 1 located between the side shafts, a doll head 1 located at the upper end of the doll body 1, a swing spring 1 located between the doll head 1 and the doll body 1, and a counterweight block located at the lower end of the doll body;

[0008] The decompression structure three includes a mounting tube located on one side of the second card cover, a telescopic sleeve located at the upper end of the first card cover, a pressure plate located at the upper end of the telescopic sleeve, a return spring one located between the pressure plate and the first card cover, a battery located inside the telescopic sleeve, a power connection block electrically connected to the battery, a return spring two located at the lower end of the pressure plate, a conductive head located at the lower end of the second return spring, a wire located at one end of the conductive head, a partition located inside the mounting tube, a swing spring three located at the upper end of the partition, a doll body two located at the upper end of the swing ring three, a swing spring two located at the upper end of the second doll body, a spherical shell located at the upper end of the second swing spring, a rotating shaft five located on the inner wall of the spherical shell and rotatably mounted to the second doll head, a conductive ring located at one end of the wire and attached to the outer wall of the fifth rotating shaft, magnetic blocks fixed to the inner walls of the upper and lower ends of the spherical shell and magnetically repelling each other, and a winding located inside the second doll head and connected to the fifth rotating shaft.

[0009] The second decompression structure includes a delivery pipe connected to the installation pipe.

[0010] Preferably, a bearing bracket 1 and a support block are provided at the upper end of the card cover 2. A rotating shaft 3 having one end connected to the mounting tube is rotatably mounted within the bearing bracket 1. A rectangular slot 2 is provided at one end of the rotating shaft 3. A rectangular block 2 is slidably mounted within the support block and the rectangular slot 2. A handle 2 is located at one end of the rectangular block 2. A spring 4 is located between the handle 2 and the support block and sleeved onto the outer side of one end of the rectangular block. When folded, the handle 2 is pulled to compress the spring 4, causing the rectangular block 2 to disengage from the rectangular slot 2, allowing the mounting tube to rotate and fold around the rotating shaft 3. When unfolded, the handle 2 is released, causing the spring 4 to push the rectangular block 2 into the rectangular slot 2, and the mounting tube to be rigidly fixed. The spring 4 elastically pre-tightens the rectangular block 2, thereby achieving self-locking positioning of the rotating shaft 3 within the rectangular slot 2.

[0011] Preferably, the inner wall of the lower end of the mounting tube is provided with a funnel connected to the delivery tube, a striking ball located within the funnel, a bell located at the lower end of the partition, and a visual panel embedded in the mounting tube and located at the lower end of the partition. This establishes a closed-loop feedback loop of force, sound, and vision. When the pressure plate is struck, air is ejected from the funnel through the delivery tube, pushing the striking ball to strike the bell, generating audible feedback. Simultaneously, the trajectory of the ball can be observed through the transparent visual panel, and the sound of the bell encourages young people to increase their intensity in expressing themselves.

[0012] Preferably, the upper end of the card cover is provided with a supporting arc plate located on one side of the mounting tube. The mounting tube is embedded in the arc groove at the upper end of the card cover after being folded to limit lateral displacement, and the mounting tube automatically slides into the working position when unfolded.

[0013] Preferably, one end of the mounting tube is provided with two symmetrically distributed bearing brackets. A fourth rotating shaft is rotatably mounted within the second bearing bracket. A center block is provided at the center of the fourth rotating shaft. A third torsion spring is sleeved on the outer side of the fourth rotating shaft, with its ends connected to the center block and the second bearing bracket, respectively. A top cover is provided on the upper end of the center block. A threaded ring is sleeved on the outer wall of the top cover and is threadedly mounted on the outer wall of the mounting tube. When tightened, the threaded ring compresses the top cover, sealing the upper end of the mounting tube and protecting the doll assembly inside.

[0014] Preferably, the upper end of the first support ring is provided with springs distributed in an annular array and connected to the first card cover at the upper end. The upper end of the second support ring is provided with springs distributed in an annular array and connected to the second card cover at the upper end. The upper ends of the first and second support rings are both provided with plug rods located inside the second springs. The lower ends of the first and second card covers are both provided with oil cylinders located inside the second springs. A sealing ring is embedded in the inner wall of the lower end of the oil cylinder and is slidably mounted with the plug rod. The upper end of the plug rod is provided with a piston slidably mounted with the oil cylinder, and a gap exists between the piston and the oil cylinder. During hammering, the card cover is pressed downward, the piston descends within the oil cylinder, and the damping oil overflows through the piston gap, generating viscous resistance, and the second spring cooperates to absorb energy.

[0015] Preferably, the outer side of the rotating shaft 1 is sleeved with a torsion spring 1 whose two ends are respectively connected to the docking block 1 and the docking block 2. The torsion spring 1 has a pre-stored torque, and when the card cover is opened, it automatically pushes the support ring to rotate and expand, and the suction cup absorbs the desktop.

[0016] Preferably, mounting holes are provided inside the first and second support rings, a clamping shaft is slidably inserted into the mounting holes, a ring block is sleeved on the outside of the clamping shaft, a first spring is provided between the ring block and the receiving slot and sleeved on the outside of the clamping shaft, a positioning hole corresponding to the clamping shaft is provided inside the rotating arm, and a second torsion spring is sleeved on the outside of the second rotating shaft, with its ends connected to the rotating arm and the receiving slot respectively. When deployed, the rotating arm is pulled out, the clamping shaft is pushed into the positioning hole by the first spring, and the deployed state is locked. When retracted, the rotating arm is pressed, the clamping shaft retracts into the mounting hole, and the second torsion spring drives the arm body to retract into the receiving slot, mechanically locking it to prevent accidental ejection.

[0017] Preferably, a rectangular groove (1) is defined within the second card cover, a rectangular block (1) is slidably mounted within the first card cover, a spring (3) is disposed between the first rectangular block (1) and the first card cover, and a spring (3) is disposed between the first rectangular block (1) and the second card cover. A handle (1) is slidably mounted within both the first and second card covers. When closed, the rectangular block (1) is inserted into the rectangular groove (1) under the action of the spring (3), preventing the card covers from rotating relative to each other. When opened, the handle (1) is pulled to overcome the spring (3) to unlock. Unlocking requires simultaneous pulling of both handles (1) to prevent accidental opening. The dual spring (3) design ensures that the lock remains locked even if one side fails.

[0018] Preferably, a front window is provided at the front end of the spherical shell, one end of the wire passes through the mounting tube and the spherical shell, and one end of the wire is located inside the swing spring 3. Hammering generates electricity, and current passes through the wire, the conductive ring, and the winding to generate a magnetic field that drives the magnetic block and the doll body 2 to rotate.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] The present invention uses decompression structure one, decompression structure two and decompression structure three. Teenagers can use the decompression device to perform multi-functional decompression such as hammering pressure relief, elastic doll grabbing, dynamic ornament interaction, sound feedback, and catapult games, covering different pressure release scenarios. The hammering structure is combined with oil pressure damping to achieve high-impact pressure relief and improve comfort during decompression. The reversible deformation grip cooperates with the irregular swing of the doll to relieve anxiety. The electromagnetic rotating spherical shell generates visual tracking stimulation to divert attention. The support structure can be stored in a reduced size several times for easy carrying. After unfolding, the support structure is expanded and cooperates with the suction cup bracket to provide stable support to avoid tipping during use and improve the stability of the pressure relief device during use. Through folding storage, autonomous power supply, and multimodal interaction, it provides teenagers with a pressure relief outlet that is available at any time. Its physical feedback mechanism conforms to the principles of cognitive behavioral therapy. While reducing anxiety levels, it avoids the risk of screen viewing addiction and has educational significance. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic diagram of the three-dimensional structure of the present invention viewed from a first angle;

[0022] Figure 2 This is a schematic diagram of the three-dimensional structure of the present invention as viewed from a second angle;

[0023] Figure 3 This is a bottom-up perspective structural diagram of the present invention;

[0024] Figure 4 This is a bottom-up perspective structural diagram of the support structure of the present invention;

[0025] Figure 5 This is a schematic diagram of the card cover of the present invention, viewed from above;

[0026] Figure 6 This is a schematic diagram of the three-dimensional structure of the card cover 2 of the present invention when viewed from above;

[0027] Figure 7 This is a schematic diagram of the top three-dimensional structure of the support ring 1 and the support ring 2 of the present invention;

[0028] Figure 8 This is a bottom-up schematic diagram of the three-dimensional structure of the support ring 1 and the support ring 2 of the present invention;

[0029] Figure 9It is a schematic diagram of the three-dimensional structure of the clamping shaft and the oil cylinder in a side cross-section of the present invention;

[0030] Figure 10 This is a schematic diagram of the main cross-sectional three-dimensional structure of the telescopic sleeve of the present invention;

[0031] Figure 11 This is a schematic diagram of the three-dimensional structure of the decompression structure of the present invention when viewed from a top perspective at a first angle;

[0032] Figure 12 This is a schematic diagram of the three-dimensional structure of the decompression structure of the present invention when viewed from a second angle;

[0033] Figure 13 This is a schematic diagram of the main three-dimensional structure of the mounting tube of the present invention;

[0034] Figure 14 It is a schematic side view of the three-dimensional structure of the decompression structure of the present invention;

[0035] Figure 15 This is a schematic diagram of the second main perspective structure of the doll body of the present invention;

[0036] Figure 16 This is a schematic diagram of the main three-dimensional structure of the doll head of the present invention;

[0037] Figure 17 It is a schematic diagram of the second main cross-sectional three-dimensional structure of the rectangular block of the present invention.

[0038] Reference numerals: 100, supporting structure; 101, supporting ring 1; 102, supporting ring 2; 103, docking block 1; 104, rotating shaft 1; 105, docking block 2; 106, torsion spring 1; 107, mounting hole; 108, positioning hole; 109, suction cup; 110, receiving groove; 111, rotating shaft 2; 112, torsion spring 2; 113, clamping shaft; 114, ring block; 115, spring 1; 116, rotating arm;

[0039] 200, storage structure; 201, card cover 1; 202, card cover 2; 203, rectangular groove 1; 204, spring 2; 205, plug rod; 206, handle 1; 207, spring 3; 208, rectangular block 1; 209, sealing ring; 210, top cover; 211, piston; 212, oil cylinder; 213, support arc plate; 214, bearing bracket 1; 215, rotating shaft 3; 216, rectangular groove 2; 217, support block; 218, rectangular block 2; 219, spring 4; 220, handle 2; 221, center block; 222, threaded ring; 223, torsion spring 3; 224, rotating shaft 4; 225, bearing bracket 2;

[0040] 300, decompression structure 1; 301, bearing bracket 3; 302, side shaft; 303, doll body 1; 304, counterweight; 305, swing spring 1; 306, doll head 1;

[0041] 400, decompression structure 2; 401, visual board; 402, hitting ball; 403, funnel; 404, conveying pipe; 405, bell;

[0042] 500, decompression structure three; 501, pressure plate; 502, reset spring one; 503, battery; 504, conductive head; 505, power connection block; 506, rotating shaft five; 507, telescopic sleeve; 508, conductive ring; 509, magnetic block; 510, doll head two; 511, wire; 512, spherical shell; 513, front window; 514, swing spring two; 515, doll body two; 516, swing spring three; 517, partition; 518, mounting tube; 519, reset spring two. DETAILED DESCRIPTION

[0043] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0044] See also Figures 1 to 17 , the present invention provides five embodiments:

[0045] Example 1: A multifunctional portable device for relieving stress in teenagers, comprising a support structure 100, a storage structure 200, a first decompression structure 300, a second decompression structure 400, and a third decompression structure 500. The storage structure 200 comprises a first card cover 201 and a second card cover 202.

[0046] The upper end of the support ring 101 is provided with springs 204 distributed in an annular array and connected to the upper end of the card cover 1 201. The upper end of the support ring 202 is provided with springs 204 distributed in an annular array and connected to the upper end of the card cover 202. The upper ends of the support ring 101 and the support ring 2 102 are both provided with plug rods 205 located inside the springs 204. The lower ends of the card cover 1 201 and the open cover 2 are both provided with oil cylinders 212 located inside the springs 204. The inner wall of the lower end of the oil cylinder 212 is embedded with a sealing ring 209 slidably mounted with the plug rod 205. The upper end of the plug rod 205 is provided with a piston 211 slidably mounted with the oil cylinder 212, and there is a gap between the piston 211 and the oil cylinder 212.

[0047] A bearing bracket 1 214 and a support block 217 are provided at the upper end of the second cover 202. A rotating shaft 3 215 having one end connected to the mounting tube 518 is rotatably mounted inside the first bearing bracket 214. A rectangular slot 216 is provided at one end of the third rotating shaft 215. A rectangular block 218 is slidably mounted within the support block 217 and the second rectangular slot 216. A handle 220 is located at one end of the rectangular block 218. A spring 4 219 is located between the handle 220 and the support block 217 and is sleeved onto the outer side of the end of the rectangular block 208.

[0048] The upper end of the card cover 201 is provided with a support arc plate 213 located on one side of the mounting tube 518;

[0049] A rectangular groove 1 203 is provided inside the second card cover 202, a rectangular block 1 208 is slidably installed inside the first card cover 201, a spring 3 207 is provided between the rectangular block 1 208 and the first card cover 201, and a spring 3 207 is provided between the rectangular block 1 208 and the second card cover 202, and a handle 1 206 is slidably installed inside both the first card cover 201 and the second card cover 202;

[0050] A symmetrically distributed second bearing bracket 225 is provided at one end of the mounting tube 518. A fourth rotating shaft 224 is rotatably mounted within the second bearing bracket 225. A center block 221 is provided at the center of the fourth rotating shaft 224. A third torsion spring 223 is sleeved on the outer side of the fourth rotating shaft 224, with its ends connected to the center block 221 and the second bearing bracket 225, respectively. A top cover 210 is provided on the upper end of the center block 221. A threaded ring 222 is sleeved on the outer wall of the top cover 210 and is threadedly sleeved on the outer wall of the mounting tube 518.

[0051] In this embodiment, the card cover 1 201 and the card cover 202 are elastically supported on the upper ends of the support ring 101 and the support ring 2 102 by the spring 204. The spring 204 plays a buffering role during hammering. At the same time, the oil cylinder 212 slides on the outer wall of the plug rod 205 through the sealing ring 209. The piston 211 squeezes the damping oil inside the oil cylinder 212. When the damping passes through the gap outside the piston 211, resistance is applied to the piston 211. The spring 204 is also subjected to a damping effect. Under the action of the hammering force, the top cover 2101 and the top cover 2102 effectively buffer and reduce shock, reduce the recoil force of the hand, and improve the hammering comfort during the decompression process.

[0052] Because the card cover 1 201 and the card cover 2 202 are supported for rotation by the rotating shaft 104, when closed, the support ring 101 and the support ring 2 102 can rotate relative to each other through the rotating shaft and be stored in the space inside the lower ends of the card cover 1 201 and the card cover 202. Then, the rectangular block 1 208 elastically supported by the spring 3 207 is inserted into the inside of the rectangular groove 1 203. The rectangular block 1 208 is restricted by the inner wall of the rectangular groove 1 203 to prevent the rotating shaft 104 from rotating. The card cover 1 201 and the card cover 202 are rotated and closed, and the support structure 100 is stored in the space between the card cover 1 201 and the card cover 202. When the card cover 1 201 and the card cover 202 are opened, the rectangular block 1 208 is driven to disengage from the inside of the rectangular groove 1 203 by pulling the handle 1 206, and the rectangular block 1 is automatically turned over and opened in cooperation with the torsion spring 106 on the outside of the rotating shaft 104.

[0053] At the same time, the second rectangular block 218 is elastically supported by the fourth spring 219. After the second rectangular block 218 is separated from the second rectangular groove 216, the mounting tube 518 rotates inside the first bearing bracket 214 through the third rotating shaft 215 and rotates into the supporting arc plate 213 to store the upright mounting tube 518. The second handle 220 is grasped to pull the fourth spring 219. The stored mounting tube 518 is positioned through the limit of the rectangular block structure of the rectangular groove body to prevent the third rotating shaft 215 from rotating freely after storage.

[0054] At the same time, the decompression structure 3 500 is squeezed into the interior of the mounting tube 518 by the swing spring 3 516, and then the rotating shaft 4 224 is rotated to apply a rotational force to the torsion spring 3 223, driving the top cover 210 and the threaded ring 222 to rotate. The top cover 210 inside the threaded ring 222 fits with the upper end of the mounting tube 518, and the threaded ring 222 is threadedly sleeved and installed with the outer wall of the upper end of the mounting tube 518, closing the upper end of the mounting tube 518, thereby achieving the storage of the decompression structure 3 500;

[0055] At the same time, the decompression structure three 500 is also stored because it is located inside the lower end of the installation tube 518. After use, the unfolded support structure 100, the decompression structure two 400 and the decompression structure three 500 are all stored. On the premise of realizing multi-functional use of the decompression device, it can be folded and stored to reduce the space occupied. It can be directly stored in a school bag and carried with you, which is portable for use.

[0056] Example 2:

[0057] The support structure 100 includes a support ring 101 located at the lower end of the card cover 1 201, a support ring 2 102 located at the lower end of the card cover 202, a docking block 103 and a docking block 105 located at opposite ends of the support ring 101 and the support ring 2 102, a rotating shaft 104 rotatably mounted inside the docking block 103 and the docking block 105, rotating arms 116 rotatably mounted at the lower ends of the support ring 101 and the support ring 2 102 and distributed in an annular array, suction cups 109 located at the rotating arms 116 and the lower ends of the support ring 101 and the support ring 2 102, an annular receiving groove 110 defined inside the lower ends of the support ring 101 and the support ring 2 102, and a rotating shaft 2 111 located at the upper end of the rotating arm 116 and rotatably mounted on the inner wall of the receiving groove 110;

[0058] The outer side of the rotating shaft 104 is sleeved with a torsion spring 106, whose two ends are respectively connected to the docking block 103 and the docking block 2 105;

[0059] Both the first support ring 101 and the second support ring 102 have mounting holes 107 formed therein, a card shaft 113 is slidably inserted into the mounting holes 107, a ring block 114 is sleeved on the outside of the card shaft 113, a spring 115 sleeved on the outside of the card shaft 113 is provided between the ring block 114 and the receiving groove 110, a positioning hole 108 corresponding to the card shaft 113 is formed in the rotating arm 116, and a torsion spring 2 112 is sleeved on the outside of the rotating shaft 111, with its two ends respectively connected to the rotating arm 116 and the receiving groove 110;

[0060] In this embodiment, the support structure 100 is used to support the bottom of the decompression device when it is in use. After the card cover 1 201 and the opening cover 2 are opened, the torsion spring 106 on the outside of the rotating shaft 104 drives the docking block 103 and the docking block 2 105 to rotate and open through its own elastic force. Subsequently, a pulling force is applied to the rotating arm 116, and the positioning hole 108 inside the rotating arm 116 applies an extrusion force to the card shaft 113. The spring 115 is forced to shrink, and the rotating arm 116 in the internal receiving groove 110 at the lower end of the support ring 101 and the support ring 2 102 is rotated and opened by the torsion spring 106. After the rotating arm 116 is opened, the support structure 100 at the bottom of the card cover 1 201 and the card cover 2 202 expands and can be adsorbed on the desk through the suction cup 109, providing support for the card cover 1 201 and the card cover 2 202, and providing stable support conditions for the use of the decompression device;

[0061] After use, the rotating arm 116 applies an extruding force to the torsion spring 2 112 through the rotating shaft 2 111. The torsion spring 2 112 is twisted under the force and is in a state of storing force. Then the rotating arm 116 rotates into the storage groove 110 and is hidden inside the storage groove 110 at the lower end of the support ring 101 and the support ring 2 102. The rotating arm 116 applies pressure to the card shaft 113 elastically supported by the spring 115. The card shaft 113 enters the positioning hole 108 to position the rotating arm 116 after storage, and the support ring 101 and the support ring 2 102 are rotated and closed through the rotating shaft 104. The overall support structure 100 is reduced several times, providing conditions for convenient carrying.

[0062] Example 3:

[0063] The decompression structure 300 includes a bearing bracket 301 located above the second cover 202, a side shaft 302 rotatably mounted inside the bearing bracket 301, a doll body 303 located between the side shafts 302, a doll head 306 located above the doll body 303, a swing spring 305 located between the doll head 306 and the doll body 303, and a counterweight 304 located below the doll body 303.

[0064] In this embodiment, after the support structure 100 and the storage structure 200 are unfolded, the doll body at the upper end of the second card cover 202 is supported for rotation by the side shaft 302. When a teenager flicks the doll body 1 303 with their fingers, the doll body 1 303 vibrates via the swing spring 1 305, creating a swinging effect. This visually reduces the pressure of the doll. When a large force is applied, the doll body 1 303 rotates inside the bearing bracket 301 via the side shaft 302, driving the doll body 1 303 to rotate, creating a large swing. The doll body 1 303 automatically resets via the counterweight 304, providing a sustainable beating and viewing experience. The doll head 1 306 is designed to be a cartoon or a desired portrait, allowing the teenager to release psychological pressure through retaliatory beating.

[0065] The doll head 306 is made of thermoplastic elastomer, a polymer material formed by the block copolymerization of hard segments (plastic phase) and soft segments (rubber phase). The hard segment molecular chains are intertwined to form physical cross-linking points, while the soft segments provide flexibility and ductility. This allows the doll head 306 to be concave and contracted by a strong grip, and twisted to match the facial features of the cartoon image on the outer wall of the doll head 306 to help relieve luggage pressure. When external force is applied, the soft segment molecular chains are stretched and deformed. After the external force is removed, the physical cross-linking points of the hard segments act as "anchor points" to pull the molecular chains back into place, restoring their original shape.

[0066] Example 4:

[0067] The decompression structure 3 500 includes a mounting tube 518 located on one side of the second card cover 202, a telescopic sleeve 507 located at the upper end of the first card cover 201, a pressure plate 501 located at the upper end of the telescopic sleeve 507, a return spring 1 502 located between the pressure plate 501 and the first card cover 201, a battery 503 located inside the telescopic sleeve 507, a power block 505 electrically connected to the battery 503, a return spring 2 519 located at the lower end of the pressure plate 501, a conductive head 504 located at the lower end of the return spring 2 519, a wire 511 located at one end of the conductive head 504, and a partition located inside the mounting tube 518. 517, swing spring three 516 located at the upper end of partition 517, doll body two 515 located at the upper end of swing ring three, swing spring two 514 located at the upper end of doll body two 515, spherical shell 512 located at the upper end of swing spring two 514, rotating shaft five 506 located on the inner wall of spherical shell 512 and rotatably mounted to doll head two 510, conductive ring 508 located at one end of wire 511 and attached to the outer wall of rotating shaft five 506, magnetic blocks 509 fixed to the inner walls of the upper and lower ends of spherical shell 512 and magnetically repelling each other, and a winding located inside doll head two 510 and connected to rotating shaft five 506;

[0068] A front window 513 is provided at the front end of the spherical shell 512. One end of the wire 511 passes through the mounting tube 518 and the spherical shell 512. One end of the wire 511 is located inside the swing spring 516.

[0069] In this embodiment, the hammer pressure relief device is installed on the card cover 1 201 and the card cover 202. The pressure plate 501 is hit by hammering, so that the reset spring 1 502 contracts, driving the conductive head 504 to contact the power block 505. The power of the battery 503 is transmitted to the power head through the power block 505. Because of the difference in hammering force, the reset spring 2 519 at the upper end of the power block 505 has different strokes for compensation, avoiding the severe wear of the wire 511 structure due to large impact. The wire 511 transmits the power to the conductive head. Ring 508, electricity acts on shaft 506 and transmits it to the winding. When the winding is energized and passes through magnetic block 509, which repel each other, the second head 510 of the doll rotates around shaft 506. The outer wall of the second head 510 of the doll can be provided with a cartoon pattern or other desired pattern as needed. The short current causes the second head 510 to rotate, creating a visual effect. After the hammer strikes, the pressure plate 501 is reset by the return spring 1 502, and the hammer-type decompression structure achieves continuous use.

[0070] The doll body 2 515 is elastically supported by the swing spring 3 516, and because of the redundant length of the swing spring 3 516, it can swing. By bouncing the doll body 2 515 and the doll head, they swing based on the swing spring 3 516 to provide different pressure relief needs. At the same time, the pattern on the outer wall of the doll head 2 510 can be effectively viewed through the front window 513. The doll head 2 510 can swing slightly through the swing spring 2 514, and cooperate with the swing spring 1 115 to make the doll head 2 510 swing irregularly and randomly, which provides a great viewing experience and helps young people effectively relieve pressure.

[0071] Embodiment 5:

[0072] The second decompression structure 400 includes a delivery pipe 404 connected to the installation pipe 518;

[0073] The inner wall of the lower end of the mounting tube 518 is provided with a funnel 403 connected to the delivery tube 404, a hitting ball 402 located inside the funnel 403, a bell 405 located at the lower end of the partition 517, and a visual panel 401 embedded in the mounting tube 518 and located at the lower end of the partition 517;

[0074] In this embodiment, when the pressure plate 501 is hammered, the gas inside the telescopic sleeve 507 is squeezed into the funnel 403 through the delivery pipe 404, and the air flow is sprayed onto the hitting ball 402. The hitting ball 402 can be sprayed upward according to the strength of the pressure spray. When the pressure is sufficient, the hitting ball 402 will contact the bell 405, causing the bell 405 to swing and make a sound, guiding the teenager to hammer the pressure plate 501 vigorously and guide the release of the teenager's inner pressure. The multifunctional decompression structure provides a variety of decompression methods, and the decompression structure is easy to use and easy to carry, easy to unfold and store, easy to use, and has improved flexibility of use to cope with the real-time pressure generated by teenagers.

[0075] The above specific embodiments are only several preferred embodiments of the present invention. Based on the technical solutions of the present invention and the relevant inspirations of the above embodiments, those skilled in the art can make various alternative improvements and combinations to the above specific embodiments.

[0076] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.

Claims

1. A multifunctional portable device for relieving stress in teenagers, comprising a support structure (100), a storage structure (200), a first decompression structure (300), a second decompression structure (400) and a third decompression structure (500), characterized in that: The storage structure (200) comprises a card cover 1 (201) and a card cover 2 (202); The support structure (100) comprises a support ring 1 (101) located at the lower end of the card cover 1 (201), a support ring 2 (102) located at the lower end of the card cover 2 (202), a docking block 1 (103) and a docking block 2 (105) located at opposite ends of the support ring 1 (101) and the support ring 2 (102), a rotating shaft 1 (104) rotatably mounted inside the docking block 1 (103) and the docking block 2 (105), a rotating shaft 1 (104) rotatably mounted inside the support ring 1 ( 101) and the lower ends of the support ring 2 (102) and the rotating arms (116) distributed in an annular array, the suction cups (109) located at the rotating arms (116), the lower ends of the support ring 1 (101) and the support ring 2 (102), the annular receiving groove (110) opened inside the lower ends of the support ring 1 (101) and the support ring 2 (102), and the rotating shaft 2 (111) located at the upper end of the rotating arms (116) and rotatably mounted on the inner wall of the receiving groove (110); The decompression structure (300) comprises a bearing bracket (301) located at the upper end of the second card cover (202), a side shaft (302) rotatably mounted inside the bearing bracket (301), a doll body (303) located between the side shafts (302), a doll head (306) located at the upper end of the doll body (303), a swing spring (305) located between the doll head (306) and the doll body (303), and a counterweight (304) located at the lower end of the doll body (303). The decompression structure (500) comprises a mounting tube (518) located on one side of the second card cover (202), a telescopic sleeve (507) located at the upper end of the first card cover (201), a pressure plate (501) located at the upper end of the telescopic sleeve (507), a return spring (502) located between the pressure plate (501) and the first card cover (201), a battery (503) located inside the telescopic sleeve (507), a power block (505) electrically connected to the battery (503), a return spring (519) located at the lower end of the pressure plate (501), a conductive head (504) located at the lower end of the return spring (519), a wire (511) located at one end of the conductive head (504), and a mounting tube (518) located inside the mounting tube (518). The invention comprises a partition (517) at the top of the partition (517), a swing spring (516) at the top of the partition (517), a doll body (515) at the top of the swing ring (514), a spherical shell (512) at the top of the swing spring (514), a rotating shaft (506) located on the inner wall of the spherical shell (512) and rotatably mounted to the doll head (510), a conductive ring (508) located at one end of the conductive wire (511) and attached to the outer wall of the rotating shaft (506), a magnetic block (509) fixed to the inner walls of the upper and lower ends of the spherical shell (512) and magnetically repelling each other, and a winding located inside the doll head (510) and connected to the rotating shaft (506); The second decompression structure (400) includes a delivery pipe (404) connected to the installation pipe (518).

2. The multifunctional portable device for relieving stress in adolescents according to claim 1, characterized in that: The upper end of the second card cover (202) is provided with a bearing bracket (214) and a support block (217), and the bearing bracket (214) is rotatably installed inside a rotating shaft (215) with one end connected to the mounting tube (518), a rectangular groove (216) opened at one end of the rotating shaft (215), a rectangular block (218) slidably installed inside the support block (217) and the rectangular groove (216), a handle (220) located at one end of the rectangular block (218), and a spring (219) located between the handle (220) and the support block (217) and sleeved on the outer side of the end of the rectangular block (208).

3. The multifunctional portable device for relieving stress in adolescents according to claim 1, characterized in that: The inner wall of the lower end of the mounting tube (518) is provided with a funnel (403) connected to the delivery tube (404), a hitting ball (402) located inside the funnel (403), a bell (405) located at the lower end of the partition (517), and a visual panel (401) embedded in the mounting tube (518) and located at the lower end of the partition (517).

4. The multifunctional portable device for relieving stress in adolescents according to claim 1, characterized in that: The upper end of the card cover (201) is provided with a supporting arc plate (213) located on one side of the mounting tube (518).

5. The multifunctional portable device for relieving stress in teenagers according to claim 1, characterized in that: A symmetrically distributed bearing bracket 2 (225) is provided at one end of the mounting tube (518), a rotating shaft 4 (224) is rotatably installed inside the bearing bracket 2 (225), a center block (221) is provided at the center of the rotating shaft 4 (224), a torsion spring 3 (223) is sleeved on the outer side of the rotating shaft 4 (224), and the two ends of the torsion spring 3 (223) are respectively connected to the center block (221) and the bearing bracket 2 (225), a top cover (210) is provided on the upper end of the center block (221), and the outer wall of the top cover (210) is sleeved with a threaded ring (222) that is threadedly sleeved and installed with the outer wall of the mounting tube (518).

6. The multifunctional portable device for relieving stress in teenagers according to claim 1, characterized in that: The upper end of the support ring 1 (101) is provided with spring 2 (204) distributed in an annular array and connected to the upper end of the card cover 1 (201); the upper end of the support ring 2 (102) is provided with spring 2 (204) distributed in an annular array and connected to the upper end of the card cover 2 (202); the upper ends of the support ring 1 (101) and the support ring 2 (102) are both provided with a plug rod (205) located inside the spring 2 (204); the lower ends of the card cover 1 (201) and the opening cover 2 are both provided with an oil cylinder (212) located inside the spring 2 (204); the inner wall of the lower end of the oil cylinder (212) is embedded with a sealing ring (209) slidably mounted with the plug rod (205); the upper end of the plug rod (205) is provided with a piston (211) slidably mounted with the oil cylinder (212); and a gap exists between the piston (211) and the oil cylinder (212).

7. The multifunctional portable device for relieving stress in adolescents according to claim 1, characterized in that: The outer side of the rotating shaft 1 (104) is sleeved with a torsion spring 1 (106) whose two ends are respectively connected to the docking block 1 (103) and the docking block 2 (105).

8. The multifunctional portable device for relieving stress in teenagers according to claim 1, characterized in that: The support ring 1 (101) and the support ring 2 (102) are both provided with mounting holes (107), a clamping shaft (113) is slidably inserted into the mounting hole (107), a ring block (114) is sleeved on the outside of the clamping shaft (113), a spring 1 (115) sleeved on the outside of the clamping shaft (113) is provided between the ring block (114) and the receiving groove (110), a positioning hole (108) corresponding to the clamping shaft (113) is provided in the rotating arm (116), and a torsion spring 2 (112) is sleeved on the outside of the rotating shaft (111), with both ends respectively connected to the rotating arm (116) and the receiving groove (110).

9. The multifunctional portable device for relieving stress in teenagers according to claim 1, characterized in that: A rectangular groove (203) is provided inside the second card cover (202), a rectangular block (208) is slidably installed inside the first card cover (201), a spring (207) is provided between the rectangular block (208) and the first card cover (201), a spring (207) is provided between the rectangular block (208) and the second card cover (202), and a handle (206) is slidably installed inside both the first card cover (201) and the second card cover (202).

10. The multifunctional portable device for relieving stress in teenagers according to claim 1, characterized in that: The front end of the spherical shell (512) is provided with a front window (513), one end of the wire (511) passes through the mounting tube (518) and the spherical shell (512), and one end of the wire (511) is located inside the swing spring (516).

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