AI-adjusted transcranial magnetic stimulation treatment hood

Abstract

The invention discloses an AI-adjusted transcranial magnetic stimulation treatment head cover, and particularly relates to the technical field of medical instruments, and the AI-adjusted transcranial magnetic stimulation treatment head cover comprises a head cover body for transcranial magnetic stimulation treatment, an AI adjusting assembly and an adapting assembly; the AI adjusting assembly comprises a movable groove, a movable block, a containing groove, a micro electric push rod, a rack, a gear, a connecting arm and a contact sensor. A movable groove is formed in the fixed seat; the movable block is slidably arranged in the movable groove; a plurality of containing grooves are formed in the movable groove in an annular array mode. The micro electric push rod is fixedly arranged on the fixed seat; the plurality of racks are uniformly and fixedly arranged on the circumferential surface of the movable block; the gear rotationally penetrates through the accommodating groove through a rotating shaft A; contact sensors are arranged on the cover body and the transcranial magnetic stimulation block; the transcranial magnetic stimulation device is reasonable in structural design, the transcranial magnetic stimulation blocks can automatically adapt to and be attached to the heads of different patients through intelligent adjustment, it can be guaranteed that the heads of the patients are located in the middle of the six transcranial magnetic stimulation blocks all the time, and the treatment efficiency and the treatment effect are greatly improved.

Description

Technical Field

[0001] This invention relates to the field of medical device technology, and more specifically, to an AI-modulated transcranial magnetic stimulation therapy headgear. Background Technology

[0002] Transcranial magnetic stimulation (TMS) generally refers to TMS therapy, a physical therapy that uses an alternating magnetic field to non-invasively stimulate brain nerves. It generates tiny currents through electromagnetic induction to regulate neuronal excitability, thereby restoring the balance between excitation and inhibition functions in the brain. Its technical modes include single-pulse, double-pulse, and repetitive stimulation. Among them, the high-frequency mode can enhance neural activity, while the low-frequency mode has an inhibitory effect. Clinically, it is mainly used in the fields of depression (US FDA certified), anxiety, schizophrenia, Parkinson's disease, and post-stroke rehabilitation. Contraindications include intracranial metal implants, pacemakers, and a history of epilepsy.

[0003] For example, the Chinese utility model patent CN220801711U discloses a comfortable transcranial magnetic stimulation headgear, which includes a headgear with adjustment knobs at both ends. A screw is fixedly mounted on one side of each adjustment knob. A connecting frame is connected to the top of the headgear, and an opening is fixedly provided on one side of the connecting frame. A handle is slidably engaged with the inner side of the opening. A connecting shell is fixedly connected to the bottom of the handle, and a breathable mesh is fixedly mounted on the bottom of the connecting shell. A second cavity is fixedly provided between the connecting shell and the breathable mesh. Multiple massage bodies are fixedly connected to the lower end face of the breathable mesh. Each massage body includes a connecting block, and multiple massage beads are rotatably connected to the lower end face of the connecting block. In this utility model, the multiple massage beads can effectively massage the user's head, promote blood circulation in the head, improve patient recovery efficiency, and enhance the comfort of the headgear during use.

[0004] Transcranial magnetic stimulation (TMS) headgear, as an emerging therapeutic device, offers a novel treatment approach for ischemic cerebrovascular diseases, neurosis (symptoms such as anxiety, neurasthenia, insomnia, and brain fatigue), and brain injury. However, existing TMS headgear suffers from limitations due to its fixed structure and limited functionality. It is difficult to adjust the TMS components automatically to fit different patients' heads using AI, which reduces treatment efficiency and affects the effectiveness of the TMS headgear. Summary of the Invention

[0005] To overcome the aforementioned deficiencies of the prior art, the present invention provides an AI-adjustable transcranial magnetic stimulation (TMS) headgear. The technical problem to be solved by the present invention is that, during use, the existing TMS headgear has a fixed structure and a single function, making it difficult to automatically adapt and fit the TMS device to different patients' heads through AI adjustment. This not only reduces treatment efficiency but also affects the effectiveness of the TMS headgear.

[0006] To achieve the above objectives, the present invention provides the following technical solution: an AI-adjustable transcranial magnetic stimulation (TMS) headgear, comprising a headgear body for TMS treatment, an AI adjustment component, and an adaptation component; the headgear body includes a cover, a fixing base, and TMS blocks; the cover contacts the patient's head; the fixing base is fixed to the cover; a plurality of TMS blocks are arranged in a circular array on the circumferential surface of the fixing base via the AI ​​adjustment component; the AI ​​adjustment component includes a movable slot, a movable block, a receiving slot, a miniature electric push rod, a rack, a gear, a connecting arm, and a contact sensor; the fixing base has a movable slot inside. The movable block is slidably disposed in the movable groove; the movable groove has several receiving slots arranged in a circular array; the miniature electric push rod is fixed to the fixed base through the mounting seat, and the piston end of the miniature electric push rod extends through the fixed base into the movable groove and is fixedly connected to the movable block; several racks are fixedly arranged in a circular array on the circumferential surface of the movable block; the gear is rotatably disposed in the receiving slot through the rotating shaft A, and the gear meshes with the rack; one end of the connecting arm is fixedly connected to the gear, and the other end is connected to the transcranial magnetic stimulation block through the adaptation component; contact sensors are provided on both the cover and the transcranial magnetic stimulation block.

[0007] As a further embodiment of the present invention: the adaptation component includes an adaptation groove, an adaptation block and a counterweight block; the transcranial magnetic stimulation block is provided with an adaptation groove; the adaptation block is rotatably inserted into the adaptation groove, and the adaptation block is connected to the other end of the connecting arm through an installation and removal mechanism; the counterweight block is fixed on the transcranial magnetic stimulation block.

[0008] As a further aspect of the present invention: the adapting block has an arc structure, the arc surface of the adapting block is arranged in the vertical direction, and the center of the adapting block is located in the adapting groove.

[0009] As a further aspect of the present invention: the counterweight is an isosceles triangular structure, and the tip of the counterweight is set downward.

[0010] As a further aspect of the present invention: the installation and removal mechanism includes a sliding component; the sliding component includes a fixed block, a sliding groove, and a sliding block; the fixed block is fixedly connected to the other end of the connecting arm; the fixed block has a sliding groove; the sliding block slides through the sliding groove and is fixedly connected to the adaptation block.

[0011] As a further aspect of the present invention: the sliding block is an isosceles trapezoidal structure, and the dimension of the sliding block on the side closer to the adapting block is smaller than the dimension of the sliding block on the side farther from the adapting block.

[0012] As a further embodiment of the present invention: the installation and removal mechanism further includes a locking component; the locking component includes a moving groove, a moving block, a rotating groove, a spring, a limiting groove, a rotating plate, and a limiting block; the bottom surface of the fixing block is provided with a moving groove; the moving block is slidably disposed within the moving groove; at least one rotating groove is provided within the moving groove; both ends of the spring are fixedly connected to the inner wall of the moving groove and the moving block, respectively; at least one limiting groove is provided on the moving block; the rotating plate is rotatably disposed within the rotating groove via a rotating shaft B; the limiting block is slidably disposed within the limiting groove and fixedly connected to the rotating plate.

[0013] As a further aspect of the present invention: the limiting groove is formed by two obtuse-angled triangular grooves symmetrically arranged, the tip of the limiting groove is set upward, and the inner and outer walls of the tip, the inner and outer walls of the concave end, and the inner and outer walls of the side end of the limiting groove are staggered.

[0014] As a further aspect of the present invention: the rotation path of the rotating plate is located within the rotating groove.

[0015] As a further embodiment of the present invention: the locking assembly further includes a locking groove and a locking rod; the sliding block is provided with a locking groove; the locking rod is fixed on the moving block, and the end of the locking rod extends through the moving groove into the sliding groove and is inserted into the locking groove.

[0016] The beneficial effects of this invention are as follows: This invention, through the inclusion of an AI adjustment component, positions the patient's head between six transcranial magnetic stimulation (TMS) blocks and moves the cover downwards until the patient's head contacts the contact sensors on the cover. At this point, the control module on the fixed base controls a miniature electric actuator, causing the piston rod of the miniature electric actuator to extend. This extends the movable block, causing it to slide upwards within the movable groove, moving the rack upwards. The rack then meshes with a gear, causing the gear to rotate via shaft A within the receiving groove. This, in turn, causes the connecting arm to rotate the TMS blocks via the adaptation component until the contact sensors on the TMS blocks contact the patient's head. At this point, the control module on the fixed base controls the miniature electric actuator... The push rod is moved so that the piston rod of the miniature electric push rod stops extending. At this point, the head cover body is fixed on the patient's head. Then, transcranial magnetic stimulation (TMS) can be performed on the patient through the transcranial magnetic stimulation blocks. After the treatment is completed, the piston rod of the miniature electric push rod is shortened by the control module on the fixed base until the transcranial magnetic stimulation blocks are no longer in contact with the patient's head. The head cover body can then be removed. Compared with the prior art, the present invention has a reasonable structural design. It can not only automatically adapt and fit the transcranial magnetic stimulation blocks on different patients' heads through intelligent adjustment, but also ensure that the patient's head is always in the middle position of the six transcranial magnetic stimulation blocks, which greatly improves the treatment efficiency and treatment effect.

[0017] This invention, by setting up an adaptation component, allows the transcranial magnetic stimulation block to rotate when the connecting arm drives it. Under the action of the counterweight, the adaptation block will rotate within the adaptation groove, keeping the transcranial magnetic stimulation block in a vertical position. This ensures that the transcranial magnetic stimulation block fits the patient's head to the greatest extent, further improving the therapeutic effect of transcranial magnetic stimulation therapy. Because the adaptation block has a superior arc structure, it can prevent the adaptation block from moving out of the adaptation groove.

[0018] This invention uses a sliding component to allow the transcranial magnetic stimulation block to slide horizontally within a sliding groove until it moves out of the groove. This facilitates the removal of the vertical restriction imposed by the sliding component on the transcranial magnetic stimulation block. Furthermore, the isosceles trapezoidal structure of the sliding block facilitates the removal of the horizontal restriction imposed by the sliding component on the transcranial magnetic stimulation block.

[0019] This invention utilizes a locking component. By pressing the moving block, it slides upward within the moving groove, causing the inner wall of the limiting groove to press against the limiting block. This causes the limiting block to slide from the concave end to the side end of the limiting groove, resulting in the rotating plate rotating within the rotating groove via the rotating shaft B. This causes the spring to contract, allowing the locking rod to slide within the locking groove until the limiting block reaches the side end of the limiting groove. At this point, releasing the moving block allows it to slide downward within the moving groove under the spring's elastic force. This causes the limiting block to slide from the side end to the tip of the limiting groove, and the locking rod to slide in the opposite direction within the locking groove until the limiting block reaches the tip. At this point, the locking rod moves out of the locking groove, facilitating the release of the sliding block's position within the sliding groove and improving the stability of the sliding block's position within the sliding groove. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a bottom view of the overall structure of the present invention; Figure 3 This is a cross-sectional view of the overall structure of the present invention; Figure 4 This is a split sectional view of the AI ​​adjustment component of the present invention; Figure 5 This is a partial sectional view of the structure of the present invention. Figure 6 This is a schematic diagram of the movable block structure of the present invention; Figure 7 For the present invention Figure 3 Enlarged view of point A in the middle; Figure 8 For the present invention Figure 3 Enlarged diagram of point B in the middle.

[0021] In the picture: 1. Headgear body; 2. AI adjustment component; 3. Adaptation component; 4. Installation / removal mechanism; 5. Sliding component; 6. Locking component; 101. Cover; 102. Fixation base; 103. Transcranial magnetic stimulation block; 201. Movable slot; 202. Movable block; 203. Receiving slot; 204. Miniature electric actuator; 205. Rack; 206. Gear; 207. Connecting arm; 208. Contact sensor; 301. Adaptation groove; 302. Adaptation block; 303. Counterweight block; 501. Fixed block; 502. Sliding groove; 503. Sliding block; 601. Moving groove; 602. Moving block; 603. Rotating groove; 604. Spring; 605. Limiting groove; 606. Rotating plate; 607. Limiting block; 608. Locking groove; 609. Locking rod. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] like Figures 1 to 8 As shown, the present invention provides an AI-adjustable transcranial magnetic stimulation (TMS) treatment headgear, comprising a headgear body 1 for TMS treatment, an AI adjustment component 2, and an adaptation component 3; the headgear body 1 includes a cover 101, a fixing base 102, and TMS blocks 103; the cover 101 contacts the patient's head; the fixing base 102 is fixedly welded to the cover 101; six TMS blocks 103 are arranged in a ring array on the circumferential surface of the fixing base 102 via the AI ​​adjustment component 2; The AI ​​adjustment component 2 includes a movable slot 201, a movable block 202, a receiving slot 203, a miniature electric push rod 204, a rack 205, a gear 206, a connecting arm 207, and a contact sensor 208. The movable slot 201 is formed within the fixed base 102. The movable block 202 is slidably disposed within the movable slot 201. Six receiving slots 203 are arranged in a circular array within the movable slot 201. The miniature electric push rod 204 is fixedly welded to the fixed base 102 via a mounting base, and the piston end of the miniature electric push rod 204 extends through the fixed base 102 into the movable slot 201 and is fixedly connected to the movable block 202. The six gears 205 and 206 are connected in a circular array. The rack 205 is fixedly welded in a ring array on the circumferential surface of the movable block 202; the gear 206 is rotatably inserted into the receiving groove 203 through the rotating shaft A, and the gear 206 meshes with the rack 205; one end of the connecting arm 207 is fixedly connected to the gear 206, and the other end is connected to the transcranial magnetic stimulation block 103 through the adaptation component 3; both the cover 101 and the transcranial magnetic stimulation block 103 are provided with contact sensors 208; when the side of the movable block 202 contacts the inner wall of the movable groove 201, the gear 206 still meshes with the rack 205, and the connecting arm 207 does not contact the fixed seat 102 and the transcranial magnetic stimulation block 103.

[0024] This invention, by setting up an AI adjustment component 2, positions the patient's head among six transcranial magnetic stimulation blocks 103 and moves the cover 101 downwards until the patient's head contacts the contact sensor 208 on the cover 101. At this time, the control module on the fixing base 102 controls the micro electric push rod 204, causing the piston rod of the micro electric push rod 204 to extend, causing the movable block 202 to slide upwards in the movable groove 201, causing the rack 205 to move upwards, causing the rack 205 to mesh and rotate with the gear 206, causing the gear 206 to rotate in the receiving groove 203 via the rotating shaft A, causing the connecting arm 207 to drive the transcranial magnetic stimulation blocks 103 to rotate via the adaptation component 3 until the contact sensor 208 on the transcranial magnetic stimulation block 103 contacts the patient's head. At this time, the fixing... The control module on the seat 102 controls the miniature electric push rod 204, causing the piston rod of the miniature electric push rod 204 to stop extending. At this time, the head cover body 1 is fixed on the patient's head. Then, transcranial magnetic stimulation therapy can be performed on the patient through the transcranial magnetic stimulation block 103. After the treatment is completed, the control module on the fixed seat 102 shortens the piston rod of the miniature electric push rod 204 until the transcranial magnetic stimulation block 103 is no longer in contact with the patient's head. The head cover body 1 can then be removed. Compared with the prior art, the present invention has a reasonable structural design. It can not only automatically adapt and fit the transcranial magnetic stimulation block 103 on different patients' heads through intelligent adjustment, but also ensure that the patient's head is always in the middle position of the six transcranial magnetic stimulation blocks 103, which greatly improves the treatment efficiency and treatment effect.

[0025] As a preferred embodiment, the adaptation component 3 includes an adaptation groove 301, an adaptation block 302, and a counterweight block 303; the transcranial magnetic stimulation block 103 has an adaptation groove 301; the adaptation block 302 is rotatably inserted into the adaptation groove 301, and the adaptation block 302 is connected to the other end of the connecting arm 207 through the installation and removal mechanism 4; the counterweight block 303 is fixedly welded to the transcranial magnetic stimulation block 103; the adaptation block 302 has a superior arc structure, the arc surface of the adaptation block 302 is set in the vertical direction, and the center of the adaptation block 302 is located in the adaptation groove 301; the counterweight block 303 has an isosceles triangular structure, and the tip of the counterweight block 303 is set downward to ensure that the center of gravity of the transcranial magnetic stimulation block 103 is always in the middle position.

[0026] By setting the adaptation component 3, when the connecting arm 207 drives the transcranial magnetic stimulation block 103 to rotate, the adaptation block 302 will rotate within the adaptation groove 301 under the action of the counterweight block 303, so that the transcranial magnetic stimulation block 103 always remains in a vertical state, and the transcranial magnetic stimulation block 103 can fit the patient's head to the greatest extent, further improving the therapeutic effect of transcranial magnetic stimulation therapy. Since the adaptation block 302 has a superior arc structure, it can prevent the adaptation block 302 from moving out of the adaptation groove 301.

[0027] As a preferred embodiment, the installation and removal mechanism 4 includes a sliding component 5; the sliding component 5 includes a fixed block 501, a sliding groove 502 and a sliding block 503; the fixed block 501 is fixedly connected to the other end of the connecting arm 207; the fixed block 501 is provided with a sliding groove 502; the sliding block 503 slides through the sliding groove 502 and is fixedly connected to the adapting block 302; the sliding block 503 has an isosceles trapezoidal structure, and the size of the side of the sliding block 503 closer to the adapting block 302 is smaller than the size of the side of the sliding block 503 away from the adapting block 302.

[0028] The present invention provides a sliding component 5, which allows the transcranial magnetic stimulation block 103 to slide within the sliding groove 502 by horizontally moving the transcranial magnetic stimulation block 103 until the sliding block 503 moves out of the sliding groove 502. This facilitates the release of the vertical restriction of the transcranial magnetic stimulation block 103 by the sliding component 5. Since the sliding block 503 has an isosceles trapezoidal structure, it also facilitates the release of the horizontal restriction of the transcranial magnetic stimulation block 103 by the sliding block 503.

[0029] As a preferred embodiment, the installation and removal mechanism 4 further includes a locking component 6; the locking component 6 includes a moving groove 601, a moving block 602, a rotating groove 603, a spring 604, a limiting groove 605, a rotating plate 606, a limiting block 607, a locking groove 608, and a locking rod 609; the fixed block 501 has a moving groove 601 on its bottom surface; the moving block 602 slides through the moving groove 601; the moving groove 603 is formed in the moving groove 601; the two ends of the spring 604 are fixedly connected to the inner wall of the moving groove 601 and the moving block 602, respectively; the moving block 602 has a limiting groove 605; the rotating plate 606 is rotatably disposed in the rotating groove 603 via a rotating shaft B; the limiting block 607 slides through the limiting groove 605 and is fixedly connected to the rotating plate 606; the limiting groove 605 is formed by two obtuse-angled triangular grooves symmetrically arranged, with the tip of the limiting groove 605 pointing upwards, and The inner and outer walls of the tip, the inner and outer walls of the concave end, and the inner and outer walls of the side end of the limiting groove 605 are staggered; the rotation path of the rotating plate 606 is within the rotating groove 603 to ensure that the rotating plate 606 can rotate smoothly within the rotating groove 603; a locking groove 608 is provided on the sliding block 503; the locking rod 609 is fixedly welded to the moving block 602, and the end of the locking rod 609 extends through the moving groove 601 into the sliding groove 502 and is inserted into the locking groove 608; when the limiting block 607 slides to the concave end of the limiting groove 605, the bottom surface of the moving block 602 and the bottom surface of the fixed block 501 are on the same plane, and the force generated by the contraction of the spring 604 can make the contact between the limiting block 607 and the concave end of the limiting groove 605 more stable; when the limiting block 607 slides to the tip of the limiting groove 605, the side of the locking rod 609 does not contact the inner wall of the locking groove 608.

[0030] This invention, by setting a locking component 6, causes the moving block 602 to slide upward within the moving groove 601 when pressed, thus pressing the inner wall of the limiting groove 605 against the limiting block 607. This causes the limiting block 607 to slide from the concave end of the limiting groove 605 towards the side end, causing the rotating plate 606 to rotate within the rotating groove 603 via the rotating shaft B. This causes the spring 604 to contract under force, allowing the locking rod 609 to slide within the locking groove 608 until the limiting block 607 slides to the side end of the limiting groove 605. At this point, the moving block 602 is released. Under the elastic force of the spring 604, the moving block 602 will slide downward in the moving groove 601, causing the limiting block 607 to slide from the side end of the limiting groove 605 to the tip of the limiting groove 605, and causing the locking rod 609 to slide in the opposite direction in the locking groove 608 until the limiting block 607 slides to the tip of the limiting groove 605. At this time, the locking rod 609 moves out of the locking groove 608, so as to facilitate the release of the restriction on the position of the sliding block 503 in the sliding groove 502, and also improve the stability of the position of the sliding block 503 in the sliding groove 502.

[0031] The transcranial magnetic stimulation block 103, the miniature electric actuator 204, and the contact sensor 208 are all conventional instruments. Their working principles, dimensions, and models are irrelevant to the problem solved by this application, so they will not be described in detail. The control method of this application is through a controller. The control circuit of the controller can be implemented by a person skilled in the art through simple programming. The power supply is also common knowledge in the art. Furthermore, this application is mainly used to protect mechanical devices, so the control method and circuit connection will not be explained in detail.

[0032] Working principle of this invention: During use, the patient's head is positioned between the six transcranial magnetic stimulation blocks 103, and the cover 101 is moved downwards until the patient's head contacts the contact sensor 208 on the cover 101. At this time, the control module on the fixed base 102 controls the miniature electric push rod 204, causing the piston rod of the miniature electric push rod 204 to extend, causing the movable block 202 to slide upwards in the movable groove 201, causing the rack 205 to move upwards, causing the rack 205 to mesh and rotate with the gear 206, causing the gear 206 to rotate in the receiving groove 203 through the rotating shaft A, causing the connecting arm 207 to drive the transcranial magnetic stimulation blocks 103 to rotate. Under the action of the counterweight 303, the appropriate... The transcranial magnetic stimulation block 103 rotates within the adaptation groove 301, keeping it vertical until the contact sensor 208 on the transcranial magnetic stimulation block 103 contacts the patient's head. At this point, the control module on the fixing base 102 controls the miniature electric push rod 204, causing the piston rod of the miniature electric push rod 204 to stop extending. At this time, the head cover body 1 is fixed on the patient's head. Then, transcranial magnetic stimulation therapy can be performed on the patient through the transcranial magnetic stimulation block 103. After the treatment is completed, the piston rod of the miniature electric push rod 204 is shortened by the control module on the fixing base 102 until the transcranial magnetic stimulation block 103 no longer contacts the patient's head, and then the head cover body 1 can be removed. When the transcranial magnetic stimulation block 103 needs to be replaced, pressing the movable block 602 causes it to slide upward within the movable groove 601, which in turn causes the inner wall of the limiting groove 605 to press against the limiting block 607. This causes the limiting block 607 to slide from the concave end of the limiting groove 605 to the side end of the limiting groove 605, causing the rotating plate 606 to rotate within the rotating groove 603 via the rotating shaft B. This causes the spring 604 to contract under force, allowing the locking rod 609 to slide within the locking groove 608 until the limiting block 607 slides to the limit. At the side end of the groove 605, release the moving block 602. Under the elastic force of the spring 604, the moving block 602 will slide downward in the moving groove 601, causing the limiting block 607 to slide from the side end of the limiting groove 605 to the tip of the limiting groove 605. This causes the locking rod 609 to slide in the opposite direction in the locking groove 608 until the limiting block 607 slides to the tip of the limiting groove 605. At this point, the locking rod 609 moves out of the locking groove 608. Then, move the transcranial magnetic stimulation block 103 horizontally, causing the sliding... The block 503 slides within the sliding groove 502 until it is removed, thus completing the disassembly of the transcranial magnetic stimulation block 103. During installation, the block 503 is inserted into the sliding groove 502, with its end face contacting the inner wall of the groove. Then, the moving block 602 is pressed, causing it to slide upwards within the moving groove 601. This causes the inner wall of the limiting groove 605 to press against the limiting block 607, allowing the limiting block 607 to exit from the tip of the limiting groove 605. Slide the limiting block 607 to the other side of the limiting groove 605, causing the spring 604 to contract under force until the limiting block 607 slides to the other side of the limiting groove 605. At this time, release the moving block 602. Under the elastic force of the spring 604, the limiting block 607 will slide from the other side of the limiting groove 605 to the concave end of the limiting groove 605 until the limiting block 607 slides to the concave end of the limiting groove 605. At this time, the locking rod 609 is inserted into the locking groove 608, and the installation of the transcranial magnetic stimulation block 103 is completed.

[0033] Finally, the following points should be noted: First, in the description of this application, it should be noted that, unless otherwise specified and limited, the terms "installation", "connection", and "linkage" should be interpreted broadly, and can be mechanical or electrical connections, or internal connections between two components, or direct connections. "Up", "down", "left", "right", etc. are only used to indicate relative positional relationships. When the absolute position of the described object changes, the relative positional relationship may change. Secondly: The accompanying drawings of the embodiments disclosed in this invention only involve the structures involved in the embodiments disclosed in this invention. Other structures can refer to the general design. In the absence of conflict, the same embodiment and different embodiments of this invention can be combined with each other. The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An AI-adjustable transcranial magnetic stimulation (TMS) headgear, characterized in that, The device includes a headgear body (1) for transcranial magnetic stimulation (TMS) therapy, an AI adjustment component (2) and an adaptation component (3); the headgear body (1) includes a cover (101), a fixation base (102) and transcranial magnetic stimulation blocks (103); the cover (101) contacts the patient's head; the fixation base (102) is fixed on the cover (101); a plurality of transcranial magnetic stimulation blocks (103) are arranged in a ring array on the circumferential surface of the fixation base (102) through the AI ​​adjustment component (2); The AI ​​adjustment component (2) includes a movable slot (201), a movable block (202), a receiving slot (203), a micro electric push rod (204), a rack (205), a gear (206), a connecting arm (207), and a contact sensor (208); the fixed base (102) has a movable slot (201); the movable block (202) is slidably disposed in the movable slot (201); the movable slot (201) has several receiving slots (203) arranged in a circular array; the micro electric push rod (204) is fixed to the fixed base (102) by a mounting seat, and the micro electric push rod (204) piston... The end extends through the fixed seat (102) into the movable slot (201) and is fixedly connected to the movable block (202); a plurality of racks (205) are fixedly arranged in a ring array on the circumferential surface of the movable block (202); the gear (206) is rotatably inserted into the receiving slot (203) through the rotating shaft A, and the gear (206) meshes with the rack (205) and rotates; one end of the connecting arm (207) is fixedly connected to the gear (206), and the other end is connected to the transcranial magnetic stimulation block (103) through the adaptation component (3); both the cover (101) and the transcranial magnetic stimulation block (103) are provided with contact sensors (208).

2. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 1, characterized in that, The adaptation component (3) includes an adaptation groove (301), an adaptation block (302), and a counterweight block (303); the transcranial magnetic stimulation block (103) has an adaptation groove (301); the adaptation block (302) is rotatably inserted into the adaptation groove (301), and the adaptation block (302) is connected to the other end of the connecting arm (207) through the installation and removal mechanism (4); the counterweight block (303) is fixed on the transcranial magnetic stimulation block (103).

3. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 2, characterized in that, The adapting block (302) has an arc structure, the arc surface of the adapting block (302) is arranged in the vertical direction, and the center of the adapting block (302) is located in the adapting groove (301).

4. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 2, characterized in that, The counterweight (303) has an isosceles triangular structure, and the tip of the counterweight (303) is set downward.

5. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 3, characterized in that, The installation and removal mechanism (4) includes a sliding component (5); the sliding component (5) includes a fixed block (501), a sliding groove (502) and a sliding block (503); the fixed block (501) is fixedly connected to the other end of the connecting arm (207); the fixed block (501) is provided with a sliding groove (502); the sliding block (503) slides through the sliding groove (502) and is fixedly connected to the adaptation block (302).

6. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 5, characterized in that, The sliding block (503) has an isosceles trapezoidal structure, and the size of the sliding block (503) on the side closer to the adapting block (302) is smaller than the size of the sliding block (503) on the side farther from the adapting block (302).

7. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 6, characterized in that, The installation and removal mechanism (4) further includes a locking component (6); the locking component (6) includes a moving groove (601), a moving block (602), a rotating groove (603), a spring (604), a limiting groove (605), a rotating plate (606), and a limiting block (607); the bottom surface of the fixed block (501) is provided with a moving groove (601); the moving block (602) slides through the moving groove (601); at least one rotating groove (603) is provided in the moving groove (601); the two ends of the spring (604) are fixedly connected to the inner wall of the moving groove (601) and the moving block (602) respectively; at least one limiting groove (605) is provided on the moving block (602); the rotating plate (606) is rotatably disposed in the rotating groove (603) through a rotating shaft B; the limiting block (607) slides through the limiting groove (605) and is fixedly connected to the rotating plate (606).

8. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 7, characterized in that, The limiting groove (605) is formed by two obtuse-angled triangular grooves symmetrically arranged. The tip of the limiting groove (605) is set upward, and the inner and outer walls of the tip, the inner and outer walls of the concave end, and the inner and outer walls of the side end of the limiting groove (605) are staggered.

9. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 7, characterized in that, The rotation path of the rotating plate (606) is located within the rotating groove (603).

10. The AI-adjustable transcranial magnetic stimulation therapy headgear according to claim 7, characterized in that, The locking assembly (6) further includes a locking groove (608) and a locking rod (609); the sliding block (503) has a locking groove (608); the locking rod (609) is fixed on the moving block (602), and the end of the locking rod (609) extends through the moving groove (601) into the sliding groove (502) and is inserted into the locking groove (608).

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