Neck protector

Abstract

The invention discloses a neck protector, and relates to the technical field of health care devices, the neck protector comprises a front protection plate, under the cooperation of a micro U-shaped groove guide rail, a magnetic suction clamping sliding block, a micro vertical groove guide rail and an ultrasonic generator, the ultrasonic generator can move in the horizontal direction and the vertical direction to cover different areas of the neck, blood circulation is facilitated, and the health care effect is improved. According to the thyroid rehabilitation device, muscle tension and pain are relieved, inflammation is reduced, tissue repair is accelerated, the thyroid is effectively subjected to rehabilitation treatment, corresponding improved inflation and deflation are conducted according to the breathing frequency of a user under the cooperation of a micro adjusting air pump, an air guiding and conveying pipe, a conveying adjusting air bag and a breathing frequency air bag, the healthy and effective breathing process is simulated, and the rehabilitation effect is improved. Thyroid treatment is promoted, neck pressure is relieved, comfort is improved, visual tactile feedback is provided for a user through a built-in respiration sensor by means of dynamic change of the respiration frequency air bag, the respiration exercise effect is enhanced, and the user is helped to grasp the respiration rhythm better.

Description

Technical Field

[0001] The invention relates to the technical field of health care devices, in particular to a neck protector. Background Art

[0002] The cervical vertebrae refer to the cervical vertebrae, which are located below the head and above the thoracic vertebrae. They are located in the cervical section of the spine, with a total of 7 pieces, surrounding the cervical cord and its spinal meninges. They are connected by intervertebral discs and ligaments, forming a physiological curvature that convexes forward. The characteristics of the cervical vertebrae are that the vertebral bodies are small and oval, with transverse foramina on the transverse processes, through which the vertebral arteries and vertebral veins pass; the spinous processes are short and bifurcated; the joints of the upper and lower articular processes are approximately horizontal, allowing the neck to move flexibly. The upper and lower notches of adjacent vertebrae form the intervertebral foramen, through which spinal nerves and blood vessels pass. As an important support for the head, the cervical vertebrae are extremely important. If the neck is injured, such as the thyroid gland, not only are the symptoms uncomfortable, but the treatment and rehabilitation period is also long, which will have a huge impact on life and work.

[0003] However, in the prior art, the neck protector can only provide a separate support and fixation function during use, and cannot effectively guarantee the normal life and work of thyroid patients. When thyroid patients wear neck protectors, it will cause pressure on their own breathing and throat, causing the thyroid gland to be in a stressed state for a long time, affecting the recuperation effect of thyroid patients. Therefore, it is necessary to propose a neck protector. Summary of the invention

[0004] The purpose of the present invention is to provide a neck protector to solve the problem proposed in the above-mentioned background technology that during the use of the neck protector, it can only provide a separate supporting and fixing function, and cannot effectively guarantee the normal life and work of thyroid patients. When thyroid patients wear the neck protector, it will cause pressure on their own breathing and throat, causing the thyroid gland to be in a forced state for a long time, affecting the recuperation effect of thyroid patients.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a neck protector, comprising a front guard plate, the middle of which is hinged with a rotating soft edge, the top and bottom circumferences of the front guard plate are respectively installed with a synchronous U-shaped slide rail and a micro U-shaped groove guide rail, the interiors of the synchronous U-shaped slide rail and the micro U-shaped groove guide rail are both slidably connected with a magnetic card-connected sliding block, the surface of the magnetic card-connected sliding block is connected with a micro vertical groove guide rail, the interior of the micro vertical groove guide rail is slidably connected with an ultrasonic generator, the micro U-shaped groove guide rail, the micro vertical groove guide rail and the ultrasonic generator form a signal connection with a timing controller built into the surface of the front guard plate, a delivery and adjustment airbag is installed on the inner surface of the front guard plate, the side end of the delivery and adjustment airbag is equally connected with multiple groups of breathing frequency airbags, the bottom side end of the delivery and adjustment airbag is connected with a gas guide pipe, the side end of the gas guide pipe passes through the front guard plate and is connected with a micro adjustment air pump, and the micro adjustment air pump forms a synchronous signal connection with the breathing exercise in the external intelligent terminal.

[0006] Preferably, one side end of the front guard plate is butt-jointed with an adjustable butt-jointed elastic member, and the side end of the adjustable butt-jointed elastic member is connected to a rear breathable and heat-insulating guard plate.

[0007] Preferably, two groups of dynamic stabilizing support components are installed on the side end surface of the rear breathable and thermal insulation protective plate.

[0008] Preferably, the side ends of the two groups of dynamic stabilizing support components are respectively connected to a first connecting frame edge and a second connecting frame edge.

[0009] Preferably, the side ends of the first connecting frame side and the second connecting frame side are respectively connected with a middle connecting piece and two end connecting pieces.

[0010] Preferably, the dynamic stabilizing support assembly comprises a side connection piece, and inner rotating sleeves are symmetrically mounted on left and right ends of the side of the side connection piece, and a rotating angle structure is mounted inside the inner rotating sleeve.

[0011] Preferably, both ends of the rotation angle structure are sleeved with high-strength short-distance electric lifting rods, and the bottom of the high-strength short-distance electric lifting rod is fastened with a fine-adjustment angle rotation structure.

[0012] Preferably, a supporting plate is connected to the bottom end of the fine-tuning angle rotation structure, and both the rotation angle structure and the fine-tuning angle rotation structure are connected to the built-in stress sensor signal.

[0013] Preferably, a first half-turn gear and a second half-turn gear are respectively installed inside the middle connecting member, and the first half-turn gear and the second half-turn gear are both fastened to the connecting members at both ends, and the first half-turn gear and the second half-turn gear are meshedly connected.

[0014] Preferably, a limit plug is inserted into the lateral surface of the middle connector, and the limit plug is inserted into the central end of the first half-rotation gear to limit the meshing rotation of the first half-rotation gear and the second half-rotation gear.

[0015] Compared with the prior art, the present invention has the following beneficial effects: In the present invention, the built-in timing controller is started under the cooperation of the micro U-shaped groove guide rail, the magnetic card sliding block, the micro vertical groove guide rail and the ultrasonic generator, and the working mode of the ultrasonic generator is controlled according to the preset program or user needs. Under the action of the micro vertical groove guide rail and the magnetic card sliding block, the ultrasonic generator can move in the horizontal and vertical directions to cover different areas of the neck, so as to promote blood circulation, relieve muscle tension and pain, reduce inflammation, accelerate tissue repair, and effectively perform rehabilitation treatment on the thyroid gland. The ultrasonic generator and the micro vertical groove guide rail are connected in the magnetic card sliding block. With the cooperation of the sliding block, it can be movably disassembled and installed, and the micro-regulating air pump inflates and deflates the delivery regulating airbag through the gas delivery tube according to the instructions of the external intelligent terminal. The delivery regulating airbag is connected through the equally connected breathing rate airbags, and is inflated and deflated accordingly according to the user's breathing rate, simulating a healthy and effective breathing process, promoting thyroid treatment, reducing neck pressure and improving comfort. The dynamic changes of the breathing rate airbag provide users with intuitive tactile feedback through the built-in breathing sensor, thereby enhancing the effect of breathing exercises and helping users better master the breathing rhythm.

[0016] 2. In the present invention, with the cooperation of the dynamic stable support component, the built-in stress sensor begins to monitor the pressure distribution of the user's neck, and the monitoring data is sent to the external intelligent terminal through wireless transmission. The application on the external intelligent terminal receives and analyzes the data of the stress sensor, so that the application generates corresponding control instructions according to the pressure distribution of the user's neck to adjust the angle and position of the dynamic stable support component, that is, the rotation of the angle structure drives the angle adjustment of the high-strength short-distance electric lifting rod, and the high-strength short-distance electric lifting rod performs four separate extension and retraction actions according to the control instruction, and then the fine-tuning angle rotation structure is fine-tuned according to the control instruction, and the angle of the support plate is further adjusted, so that when the user is taking daily rest, the angle of the neck sleeping posture can be dynamically corrected to avoid the user's movement during sleep, which will affect the neck and thyroid gland. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the main structure of a neck protector of the present invention; Figure 2 This is a schematic diagram of the connection structure of the main body in a neck protector of the present invention; Figure 3It is a schematic structural diagram of another angle of the main body of a neck protector of the present invention; Figure 4 It is a schematic diagram of the installation position structure of a first connecting frame edge and a second connecting frame edge in a neck protector of the present invention; Figure 5 It is a structural schematic diagram of a dynamic stabilizing support assembly in a neck protector of the present invention; Figure 6 It is a schematic diagram of the installation position structure of a micro U-shaped groove guide rail, a magnetic card-connected sliding block, a micro vertical groove guide rail and an ultrasonic generator in a neck protector of the present invention; Figure 7 A neck protector of the present invention Figure 2 Schematic diagram of the structure enlarged at point A in the middle.

[0018] In the figure: 1. front guard plate; 2. adjustment docking elastic member; 3. rotating soft edge; 4. micro-adjusting air pump; 5. micro-U-shaped groove guide rail; 6. magnetic card sliding block; 7. micro-vertical groove guide rail; 8. ultrasonic generator; 9. rear breathable and thermal insulation guard plate; 10. two end connectors; 11. first connecting frame edge; 12. second connecting frame edge; 13. dynamic stable support assembly; 130. side connector; 131. inner rotating sleeve; 132. rotation angle structure; 133. high-strength short-distance electric lifting rod; 134. fine-tuning angle rotation structure; 135. support plate; 14. gas guide tube; 15. delivery and adjustment airbag; 16. breathing rate airbag; 17. middle connector; 18. synchronous U-shaped slide rail; 19. first half-turn gear; 20. second half-turn gear. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described 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 creative work are within the scope of protection of the present invention.

[0020] In the present invention, reference is made to Figure 1-Figure 7As shown: a neck protector comprises a front guard plate 1, a rotating soft edge 3 is hinged in the middle of the front guard plate 1, a synchronous U-shaped slide rail 18 and a micro U-shaped groove guide rail 5 are respectively installed on the top and bottom peripheries of the front guard plate 1, the synchronous U-shaped slide rail 18 and the micro U-shaped groove guide rail 5 are slidably connected with a magnetic card sliding block 6 inside, a micro vertical groove guide rail 7 is connected on the surface of the magnetic card sliding block 6, an ultrasonic generator 8 is slidably connected inside the micro vertical groove guide rail 7, the micro U-shaped groove guide rail 5, the micro The vertical groove guide rail 7 and the ultrasonic generator 8 form a signal connection with the built-in timing controller on the surface of the front guard plate 1, and a delivery and adjustment airbag 15 is installed on the inner surface of the front guard plate 1. The side end of the delivery and adjustment airbag 15 is equally connected to multiple groups of breathing frequency airbags 16, and the bottom side end of the delivery and adjustment airbag 15 is connected to a gas guide pipe 14. The side end of the gas guide pipe 14 passes through the front guard plate 1 and is connected to a micro-adjusting air pump 4. The micro-adjusting air pump 4 and the breathing exercise in the external intelligent terminal form a synchronous signal connection.

[0021] One side end of the front guard plate 1 is butted with an adjustable butt elastic member 2, and the side end of the adjustable butt elastic member 2 is connected to a rear breathable heat-insulating guard plate 9.

[0022] In a specific scheme, the front guard plate 1 and the rear breathable and thermal insulation guard plate 9 are divided into an upper part, a lower part and a side part. The rotating soft edge 3 hinged in the middle of the front guard plate 1 is used to adapt to the neck curves of different users. When in use, the connectivity of the front guard plate 1 and the rear breathable and thermal insulation guard plate 9 is adjusted by adjusting the docking elastic member 2 to ensure comfortable wearing. That is, the user wears the neck protector on the neck, the front guard plate 1 is located in the front, and the rear breathable and thermal insulation guard plate 9 is located in the back. The built-in timing controller is started to control the working mode of the ultrasonic generator 8 according to the preset program or user needs. The ultrasonic generator 8 can move in the horizontal and vertical directions under the action of the micro vertical groove guide rail 7 and the magnetic card sliding block 6 to cover different areas of the neck, so as to promote blood circulation and relieve muscle tension and The invention can relieve pain, reduce inflammation, accelerate tissue repair, and effectively carry out rehabilitation treatment for the thyroid gland. The ultrasonic generator 8 and the micro vertical groove guide rail 7 can be movably disassembled and installed with the cooperation of the magnetic card sliding block 6. The micro regulating air pump 4 inflates and deflates the delivery regulating airbag 15 through the gas guide tube 14 according to the instructions of the external intelligent terminal. The delivery regulating airbag 15 is inflated and deflated accordingly according to the user's breathing frequency through the equally connected breathing rate airbags 16, simulating a healthy and effective breathing process, promoting thyroid gland treatment, reducing neck pressure, and improving comfort. The dynamic changes of the breathing rate airbag 16 provide users with intuitive tactile feedback through the built-in breathing sensor, enhance the effect of breathing exercises, and help users better master the breathing rhythm.

[0023] In the present invention, according to Figure 1-Figure 5As shown, two groups of dynamic stabilizing support components 13 are installed on the side surface of the rear breathable heat-insulating protective plate 9.

[0024] The side ends of the two groups of dynamic stabilizing support components 13 are respectively connected to the first connecting frame edge 11 and the second connecting frame edge 12 .

[0025] The side ends of the first connecting frame side 11 and the second connecting frame side 12 are respectively connected with a middle connecting piece 17 and two end connecting pieces 10 .

[0026] The dynamic stabilizing support assembly 13 includes a side connection piece 130 . Inner rotating sleeves 131 are symmetrically mounted on the left and right ends of the side of the side connection piece 130 . A rotating angle structure 132 is mounted inside the inner rotating sleeve 131 .

[0027] Both ends of the rotation angle structure 132 are sleeved with high-strength short-distance electric lifting rods 133 , and the bottom of the high-strength short-distance electric lifting rod 133 is fastened with a fine-angle adjustment rotation structure 134 .

[0028] The bottom end of the fine-adjusting angle rotation structure 134 is connected to a supporting plate 135 , and both the rotation angle structure 132 and the fine-adjusting angle rotation structure 134 are connected to the built-in stress sensor signal.

[0029] In a specific solution, the built-in stress sensor begins to monitor the pressure distribution of the user's neck, and the monitoring data is sent to an external smart terminal via wireless transmission. The application on the external smart terminal receives and analyzes the data from the stress sensor, so that the application generates corresponding control instructions based on the user's neck pressure distribution to adjust the angle and position of the dynamic stable support component 13, that is, the rotation angle structure 132 rotates to drive the angle adjustment of the high-strength short-distance electric lifting rod 133, and enables the high-strength short-distance electric lifting rod 133 to perform four separate telescopic actions according to the control instruction, and then enables the fine-tuning angle rotation structure 134 to perform fine-tuning according to the control instruction, and further adjusts the angle of the support plate 135, so that when the user is taking daily rest, the angle of the neck sleeping posture can be dynamically corrected to avoid the user's movement during sleep, which may affect the neck and thyroid gland.

[0030] In the present invention, according to Figure 7 As shown, the first half-turn gear 19 and the second half-turn gear 20 are respectively installed inside the middle connecting member 17, and the first half-turn gear 19 and the second half-turn gear 20 are both tightly connected to the connecting members 10 at both ends, and the first half-turn gear 19 and the second half-turn gear 20 are meshedly connected.

[0031] A limit plug is inserted into the lateral surface of the middle connector 17 , and the limit plug is inserted into the center end of the first half-rotation gear 19 to limit the meshing rotation of the first half-rotation gear 19 and the second half-rotation gear 20 .

[0032] In a specific scheme, the limit plug is pulled out to release the limit fixation of the first half-turn gear 19 and the second half-turn gear 20, and then the first half-turn gear 19 and the second half-turn gear 20 are driven to engage and rotate by manually rotating the connecting pieces 10 at both ends. Since the first half-turn gear 19 and the second half-turn gear 20 are tightly connected to the connecting pieces 10 at both ends, rotating the connecting pieces 10 at both ends will drive the angle between the front guard plate 1 and the rear breathable and thermal insulation guard plate 9 to change, so that the user can adjust it to a suitable angle according to their needs. After adjusting to a suitable angle, the limit plug is reinserted so that it is plugged into the center end of the first half-turn gear 19. The insertion of the limit plug will limit the meshing rotation of the first half-turn gear 19 and the second half-turn gear 20 to ensure that the angle does not change.

[0033] The wiring diagram of the ultrasonic generator 8, micro-adjustable air pump 4, rotation angle structure 132, fine-adjusting angle rotation structure 134, timing controller, breathing sensor and built-in stress sensor in the present invention is common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use, so the control method and wiring arrangement of the ultrasonic generator 8, micro-adjustable air pump 4, rotation angle structure 132, fine-adjusting angle rotation structure 134, timing controller, breathing sensor and built-in stress sensor will not be explained in detail.

[0034] The method of use and working principle of the device: first, the front guard plate 1 and the rear breathable and thermal insulation guard plate 9 are evenly divided into the upper part, the lower part and the side part. The rotating soft edge 3 hinged in the middle of the front guard plate 1 is used to adapt to the neck curves of different users. When in use, the connectivity of the front guard plate 1 and the rear breathable and thermal insulation guard plate 9 is adjusted by adjusting the docking elastic member 2 to ensure comfortable wearing. That is, the user wears the neck protector on the neck, with the front guard plate 1 located in the front and the rear breathable and thermal insulation guard plate 9 located in the back. At the same time, the limit plug can be pulled out according to needs to release the limit fixation of the first half-turn gear 19 and the second half-turn gear 20, and then the first half-turn gear 19 and the second half-turn gear 20 are driven to rotate in meshing by manually rotating the connecting parts 10 at both ends. The wheel 19 and the second half-rotation gear 20 are tightly connected to the connecting pieces 10 at both ends, so rotating the connecting pieces 10 at both ends will drive the angle between the front guard plate 1 and the rear breathable and heat-insulating guard plate 9 to change, so that the user can adjust it to a suitable angle according to their needs. After adjusting to a suitable angle, reinsert the limit plug so that it is plugged into the center end of the first half-rotation gear 19. The insertion of the limit plug will limit the meshing rotation of the first half-rotation gear 19 and the second half-rotation gear 20 to ensure that the angle will not change. After that, the built-in timing controller is started to control the working mode of the ultrasonic generator 8 according to the preset program or user needs. Under the action of the micro vertical groove guide rail 7 and the magnetic card sliding block 6, the ultrasonic generator 8 can move along the water It moves horizontally and vertically to cover different areas of the neck, so as to promote blood circulation, relieve muscle tension and pain, reduce inflammation, accelerate tissue repair, and effectively perform rehabilitation treatment on the thyroid gland. The ultrasonic generator 8 and the micro vertical groove guide rail 7 can be movably disassembled and installed with the cooperation of the magnetic card sliding block 6. The micro regulating air pump 4 inflates and deflates the delivery regulating airbag 15 through the gas guide tube 14 according to the instructions of the external intelligent terminal. The delivery regulating airbag 15 is inflated and deflated accordingly according to the user's breathing frequency through the equally connected breathing frequency airbags 16, simulating a healthy and effective breathing process, promoting thyroid gland treatment, reducing neck pressure, and improving comfort. The dynamic changes of the breathing frequency airbag 16 are controlled by the air supply pipe 14. The built-in breathing sensor provides the user with intuitive tactile feedback, enhances the effect of breathing exercises, and helps the user better master the breathing rhythm. Secondly, during daily night rest, the built-in stress sensor is used to monitor the pressure distribution of the user's neck. The monitoring data is sent to the external intelligent terminal through wireless transmission. The application on the external intelligent terminal receives and analyzes the data of the stress sensor, so that the application generates corresponding control instructions according to the user's neck pressure distribution, so as to adjust the angle and position of the dynamic stable support component 13, that is, the rotation angle structure 132 drives the angle adjustment of the high-strength short-distance electric lifting rod 133, and enables the high-strength short-distance electric lifting rod 133 to perform four separate telescopic actions according to the control instructions.Then, the fine-tuning angle rotating structure 134 is fine-tuned according to the control command, and the angle of the supporting plate 135 is further adjusted, so that when the user is resting in daily life, the angle of the neck sleeping posture can be dynamically corrected to avoid the user's movement during sleep, which may affect the neck and thyroid gland.

[0035] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A neck protector, characterized in that: The invention comprises a front guard plate (1), wherein the middle of the front guard plate (1) is hinged with a rotating soft edge (3), and the top and bottom circumferences of the front guard plate (1) are respectively installed with a synchronous U-shaped slide rail (18) and a micro U-shaped groove guide rail (5), and the interiors of the synchronous U-shaped slide rail (18) and the micro U-shaped groove guide rail (5) are both slidably connected with a magnetic card-connected sliding block (6), and the surface of the magnetic card-connected sliding block (6) is connected with a micro vertical groove guide rail (7), and the interior of the micro vertical groove guide rail (7) is slidably connected with an ultrasonic generator (8), and the micro U-shaped groove guide rail (5) and the micro vertical groove guide rail (7) are respectively installed with a synchronous U-shaped slide rail (18) and a micro vertical groove guide rail (5). The guide rail (7) and the ultrasonic generator (8) form a signal connection with a timing controller built into the surface of the front guard plate (1); a delivery regulating air bag (15) is installed on the inner surface of the front guard plate (1); the side end of the delivery regulating air bag (15) is equally connected to a plurality of groups of breathing frequency air bags (16); the bottom side end of the delivery regulating air bag (15) is connected to a gas delivery pipe (14); the side end of the gas delivery pipe (14) penetrates the front guard plate (1) and is connected to a micro-regulating air pump (4); the micro-regulating air pump (4) forms a synchronous signal connection with the breathing exercise in the external intelligent terminal.

2. The neck protector according to claim 1, characterized in that: One side end of the front guard plate (1) is butted against an adjustable butt elastic member (2), and the side end of the adjustable butt elastic member (2) is connected to a rear breathable heat-insulating guard plate (9).

3. The neck protector according to claim 2, characterized in that: Two groups of dynamic stabilizing support components (13) are installed on the side end surface of the rear breathable heat-insulating protective plate (9).

4. The neck protector according to claim 3, characterized in that: The side ends of the two groups of dynamic stabilizing support components (13) are respectively connected to a first connecting frame edge (11) and a second connecting frame edge (12).

5. The neck protector according to claim 4, characterized in that: The side ends of the first connecting frame edge (11) and the second connecting frame edge (12) are respectively connected to a middle connecting piece (17) and two end connecting pieces (10).

6. The neck protector according to claim 3, characterized in that: The dynamic stabilizing support assembly (13) comprises a side connection piece (130), and inner rotating sleeves (131) are symmetrically mounted on the left and right ends of the side of the side connection piece (130), and a rotating angle structure (132) is mounted inside the inner rotating sleeve (131).

7. The neck protector according to claim 6, characterized in that: High-strength short-distance electric lifting rods (133) are sleeved on both ends of the rotation angle structure (132), and a fine-angle adjustment rotation structure (134) is fastened to the bottom of the high-strength short-distance electric lifting rod (133).

8. The neck protector according to claim 7, characterized in that: The bottom end of the fine-adjusting angle rotation structure (134) is connected to a supporting disc plate (135), and both the rotation angle structure (132) and the fine-adjusting angle rotation structure (134) are connected to a built-in stress sensor signal.

9. The neck protector according to claim 5, characterized in that: A first half-rotation gear (19) and a second half-rotation gear (20) are respectively installed inside the middle connecting member (17); the first half-rotation gear (19) and the second half-rotation gear (20) are both tightly connected to the connecting members (10) at both ends, and the first half-rotation gear (19) and the second half-rotation gear (20) are meshedly connected.

10. The neck protector according to claim 5, characterized in that: A limit plug is inserted into the lateral surface of the middle connecting piece (17), and the limit plug is inserted into the central end of the first half-rotation gear (19) to limit and fix the meshing rotation of the first half-rotation gear (19) and the second half-rotation gear (20).

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