An ai-assisted portable acupuncture safety monitoring device

Abstract

The utility model discloses an AI auxiliary type portable acupuncture safety monitoring device, including the organism, its upper portion is equipped with the suspension subassembly for realizing the hooking of diagnosis and treatment bed body, the bottom of organism is equipped with the clamping assembly for realizing the fixed mounting of diagnosis and treatment bed bedside, can be combined with vital sign data and acquire and analyze patient medical record information through the organism, significantly improve the comprehensive identification ability to patient posture abnormality, acupuncture site change and physiological index fluctuation, form the stereoscopic safety monitoring system, effectively overcome the monitoring blind area problem of traditional acupuncture treatment dependence artificial patrol, the dynamic association of local deployment's big language model engine through traditional chinese medical science diagnosis and treatment knowledge base and real -time treatment data, break through the limitation that traditional monitoring equipment can only carry out single data comparison, realize the contraindication automatic matching and risk reasoning judgment, under the premise of guaranteeing patient privacy data safety, make non acupuncture professional medical staff also can master the security situation under the complex treatment scene quickly.

Description

Technical Field

[0001] This utility model relates to the field of acupuncture treatment technology, and in particular to an AI-assisted portable acupuncture safety monitoring device. Background Technology

[0002] As an important component of the traditional Chinese medicine diagnosis and treatment system, acupuncture treatment currently faces systemic limitations in its safety monitoring technology, and the development of its safety monitoring technology has long faced multiple challenges.

[0003] Existing technological solutions mainly focus on two categories: single-parameter monitoring devices and large-scale hospital-level monitoring systems. However, the latter has significant limitations in primary healthcare settings. Taking common warm acupuncture safety monitoring devices as an example, they generally use independent temperature sensors for local overheating warnings, but lack the ability to simultaneously monitor the patient's overall vital signs (such as heart rate and blood oxygenation), and cannot identify overall risks caused by fainting or underlying diseases. In addition, traditional devices often use fixed threshold alarm mechanisms, such as setting the upper limit of moxibustion temperature to a uniform standard value, while ignoring individual differences in patients' conditions, resulting in a high rate of clinical false alarms.

[0004] Current monitoring systems with data processing capabilities often rely on cloud computing resources, revealing two major problems in practical applications: First, unstable network coverage in primary healthcare institutions and significant network latency in remote areas make it difficult to promptly report sudden risks such as burns and abnormal bleeding. Second, cloud transmission involves patient privacy data (such as electronic medical records and real-time images), posing a risk of information leakage. Although some devices have attempted to incorporate edge computing modules, their data processing logic remains limited to preset rule bases, unable to dynamically analyze TCM diagnostic elements (such as the correlation between tongue and pulse characteristics and acupoint contraindications), resulting in insufficient adaptability to complex cases.

[0005] At the hardware architecture level, existing portable monitoring devices suffer from the defect of discrete functional modules. For example, vital sign monitoring and image acquisition devices are usually independent peripherals, requiring medical staff to manually integrate data from multiple sources, which increases operational complexity and is prone to delays in risk management due to human error. In addition, the accuracy and response speed of traditional device sensors are insufficient to meet the needs of delicate treatment; facial acupuncture positioning monitoring generally suffers from position recognition errors, while the sampling frequency of thermal imaging for warm acupuncture is insufficient to capture instantaneous abnormal temperature fluctuations.

[0006] The aforementioned technical deficiencies lead to three clinical pain points: First, multi-device collaborative monitoring significantly increases the workload of medical staff; second, risk warnings are significantly delayed, with a perceptible interval between the occurrence of an abnormality and the system alarm; and third, there is a lack of intelligent TCM diagnosis and treatment logic support, making it impossible to automatically link the patient's physical characteristics with the potential risks of the treatment plan.

[0007] Therefore, there is an urgent need to develop an AI-assisted portable acupuncture safety monitoring device that integrates multimodal perception, possesses localized intelligent analysis capabilities, and meets the needs of primary healthcare scenarios. Utility Model Content

[0008] The purpose of this invention is to provide an AI-assisted portable acupuncture safety monitoring device to solve the problems mentioned in the background art.

[0009] To achieve the above objectives, the main technical solutions adopted by this utility model include:

[0010] An AI-assisted portable acupuncture safety monitoring device includes:

[0011] The machine body has a suspension assembly on its upper part for hanging with the treatment bed, and a clamping assembly at the bottom of the machine body for fixed installation next to the treatment bed.

[0012] The machine body includes an outer shell, on which a data acquisition module group, an edge computing unit, and a human-computer interactive early warning feedback module group are provided. The data acquisition module group is connected to the edge computing unit, and the human-computer interactive early warning feedback module group receives the output signal of the edge computing unit.

[0013] The suspension assembly and the clamping assembly are respectively movably connected to the housing, and the housing is provided with a positioning assembly for locking the suspension assembly.

[0014] As a preferred technical solution, the suspension assembly includes a shaft that moves through the upper part of the housing. The surface of the shaft is rotatably connected to the penetration point of the housing. A rectangular block is fixedly connected to both ends of the surface of the shaft. The two rectangular blocks are located on both sides of the housing, and a hook is fixedly connected to the top of the rectangular blocks.

[0015] As a preferred technical solution, the clamping assembly includes a support located below the housing and having a U-shaped structure. The opening of the support faces the back surface of the housing. A clamping plate is slidably connected to the inner wall of the support. A stud is rotatably connected to the center of the bottom of the clamping plate. The bottom end of the stud extends through to the bottom of the support and is fixedly connected to a knob. The surface of the stud is threadedly connected to the through-hole of the support.

[0016] As a preferred technical solution, rubber pads are fixedly connected to the top of the clamping plate and the top of the inner wall of the support, and the shape of the rubber pads is the same as that of the clamping plate.

[0017] As a preferred technical solution, a folding arm is installed between the top of the support and the bottom of the housing.

[0018] As a preferred technical solution, the positioning component includes a sliding sleeve that is slidably sleeved on one end of the shaft surface, a baffle is fixedly connected to one side of the sliding sleeve, the baffle contacts the outer surface of the adjacent rectangular block, and a guide is provided between the sliding sleeve and the outer shell.

[0019] As a preferred technical solution, a magnet is fixedly connected to the side of the sliding sleeve facing the rectangular block, and an iron block that works in conjunction with the magnet is fixedly connected to the side of the rectangular block adjacent to the sliding sleeve.

[0020] As a preferred technical solution, the guide component includes a guide sleeve fixedly connected to one side of the sliding sleeve, and a guide rod parallel to the shaft is slidably connected to the inner cavity of the guide sleeve, with one end of the guide rod fixedly connected to the outer shell.

[0021] As a preferred technical solution, a limiting plate is fixedly connected to one end of the shaft facing the sliding sleeve, and the diameter of the limiting plate is larger than the diameter of the shaft.

[0022] As a preferred technical solution, the surface of the outer shell is also fixedly connected with two protrusions arranged vertically, one side of the hook is in contact with one of the protrusions, and the protrusion is located close to the guide rod.

[0023] This utility model has at least the following beneficial effects:

[0024] I. This application, by combining vital sign data with the acquisition and analysis of patient medical records, significantly improves the comprehensive ability to identify abnormal patient posture, changes in acupuncture sites, and fluctuations in physiological indicators, forming a three-dimensional safety monitoring system. This effectively overcomes the monitoring blind spots of traditional acupuncture treatment that rely on manual inspection. The locally deployed large language model engine, through the dynamic correlation between the TCM diagnosis and treatment knowledge base and real-time treatment data, breaks through the limitations of traditional monitoring equipment that can only perform single data comparisons, realizing automatic matching of contraindications and risk reasoning judgment. Under the premise of ensuring the security of patient privacy data, it enables non-acupuncture professional medical staff to quickly grasp the safety situation in complex treatment scenarios. It transforms traditional passive manual inspection into proactive risk push. The system automatically overlays and displays the thermal distribution map of the acupuncture site and the safety threshold reference line, greatly improving the efficiency of abnormal location and reducing the interference of environmental factors on the monitoring results.

[0025] Second, this application uses a modular integrated design to make the AI-assisted portable acupuncture safety monitoring device adaptable to the diagnosis and treatment environment of primary medical institutions. It achieves hanging installation on the treatment bed through a suspension component, a positioning component, and a positioning component; it achieves fixed installation next to the treatment bed through a clamping component, making efficient use of space; and when not in use, the suspension component or the positioning component can be folded and stored to reduce the space occupied. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the suspension assembly and clamping assembly of the AI-assisted portable acupuncture safety monitoring device of this utility model in use.

[0027] Figure 2 This is a schematic diagram of the structure of the AI-assisted portable acupuncture safety monitoring device of this utility model, showing the suspension component and clamping component in a retracted state.

[0028] Figure 3 This is an exploded view of the suspension assembly and positioning assembly of the AI-assisted portable acupuncture safety monitoring device of this utility model;

[0029] Figure 4 This is a schematic diagram of the circuit module of the AI-assisted portable acupuncture safety monitoring device of this utility model.

[0030] In the diagram: 100, body; 200, suspension assembly; 210, shaft; 211, limiting plate; 220, rectangular block; 230, hook; 300, clamping assembly; 310, support; 320, clamping plate; 330, stud; 340, knob; 350, rubber pad; 360, folding arm; 400, positioning assembly; 410, sliding sleeve; 420, baffle; 430, guide sleeve; 440, guide rod; 500, protrusion. Detailed Implementation

[0031] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0032] Example 1

[0033] Please see Figures 1-3 This utility model provides an AI-assisted portable acupuncture safety monitoring device, including a body 100. The upper part of the body 100 has a suspension assembly 200 for attaching to a treatment bed, and the bottom of the body 100 has a clamping assembly 300 for fixed installation beside the treatment bed. The body 100 includes a shell with a lightweight alloy frame structure. The shell has a data acquisition module group, an edge computing unit, and a human-computer interactive early warning feedback module group. The data acquisition module group is connected to the edge computing unit via a physical interface, and the human-computer interactive early warning feedback module group receives the output signal from the edge computing unit via wired transmission. The suspension assembly 200 and the clamping assembly 300 are movably connected to the shell, and the shell has a positioning assembly 400 for locking the suspension assembly 200.

[0034] The suspension assembly 200 includes a shaft 210 that extends laterally through the upper part of the outer shell. The surface of the shaft 210 is rotatably connected to the outer shell through a pivot. A rectangular block 220 is fixedly connected to both ends of the surface of the shaft 210. The two rectangular blocks 220 are located on both sides of the outer shell. A hook 230 is fixedly connected to the top of the rectangular block 220. By suspending the hook 230 on the treatment bed, the machine body 100 can be quickly connected to the treatment bed. The shaft 210 is rotatably connected to the outer shell, so that the suspension assembly 200 can be rotated and stored when not in use to reduce its space occupation and prevent accidental bumps and scratches.

[0035] The clamping assembly 300 includes a support 310 located below the outer shell and having a U-shaped structure. The opening of the support 310 faces the back surface of the outer shell. A clamping plate 320 is slidably connected to the inner wall of the support 310. A stud 330 is vertically rotatably connected to the center of the bottom of the clamping plate 320 via a bearing. The bottom end of the stud 330 extends through to the bottom of the support 310 and is fixedly connected to a knob 340. The surface of the stud 330 is threadedly connected to the through-hole of the support 310. By placing the support 310 on a table or other support next to the treatment bed and turning the knob 340, the clamping plate 320 can be moved within the support 310 to clamp and fix it to the table or other support, thus completing the fixed installation of the machine body 100 and the table or other support next to the treatment bed.

[0036] Rubber pads 350 are fixedly connected to the top of the clamping plate 320 and the top of the inner wall of the support 310. The shape of the rubber pads 350 is the same as that of the clamping plate 320. The rubber pads 350 can protect the table or other support plates, preventing wear on the surface of the table or other support plates caused by excessive clamping force between the support 310 and the clamping plate 320. They can also increase the friction between the table or other support plates, play an anti-slip role, and thus improve the stability of the machine body 100 fixedly installed next to the treatment bed.

[0037] The support 310 has a folding arm 360 installed between the top and the bottom of the outer shell. The distance and angle between the machine body 100 and the table or other support plate can be adjusted by the folding arm 360 so that medical staff can observe it. When not in use, it can be folded and stored to reduce its space occupation.

[0038] The positioning component 400 includes a sliding sleeve 410 that is slidably sleeved on one end of the surface of the shaft 210. A baffle 420 is fixedly connected to one side of the sliding sleeve 410. The baffle 420 contacts the outer surface of the adjacent rectangular block 220. A guide is provided between the sliding sleeve 410 and the outer shell so that the sliding sleeve 410 and the baffle 420 can only slide on the surface of the shaft 210. When the hook 230 is rotated to the use state, the baffle 420 can lock and position the rectangular block 220 to prevent the hook 230 from rotating at will, thereby ensuring the stability of the machine body 100 suspended on the treatment bed.

[0039] Among them, a magnet is fixedly connected to the side of the sliding sleeve 410 facing the rectangular block 220, and an iron block that works with the magnet is fixedly connected to the side of the rectangular block 220 adjacent to the sliding sleeve 410. The magnetic force of the iron block and the magnet can improve the stability of the connection between the baffle 420 and the rectangular block 220, and further improve the locking effect of the baffle 420.

[0040] The guide includes a guide sleeve 430 fixedly connected to one side of the sliding sleeve 410. The inner cavity of the guide sleeve 430 is slidably connected to a guide rod 440 parallel to the shaft 210. One end of the guide rod 440 is fixedly connected to the outer shell. When the sliding sleeve 410 moves on the surface of the shaft 210, it can drive the guide sleeve 430 to slide on the surface of the guide rod 440, effectively preventing the sliding sleeve 410 from rotating synchronously with the shaft 210.

[0041] Among them, a limiting plate 211 is fixedly connected to one end of the shaft 210 facing the sliding sleeve 410. The diameter of the limiting plate 211 is larger than the diameter of the shaft 210. The limiting plate 211 can limit the sliding sleeve 410 and prevent the sliding sleeve 410 from moving excessively and slipping off the surface of the shaft 210, thus affecting the next use.

[0042] The outer casing also has two protrusions 500 fixedly connected to it, arranged vertically. One side of the hook 230 contacts one of the protrusions 500. The protrusions 500 are located close to the guide rod 440. The protrusions 500 can limit the rotation angle of the hook 230. When the hook 230 contacts the upper protrusion 500, the hook 230 is in use. When the hook 230 contacts the lower protrusion 500, the hook 230 is in storage, so that the baffle 420 and the rectangular block 220 can be quickly aligned.

[0043] Example 2

[0044] Please see Figure 4 This utility model provides an AI-assisted portable acupuncture safety monitoring device, which differs from Embodiment 1 in that:

[0045] The data acquisition module group includes an electronic medical record acquisition submodule and a vital signs monitoring submodule.

[0046] The electronic medical record acquisition submodule integrates a wireless communication unit network transceiver and an encryption transmission unit encryption chip. The network transceiver connects to the hospital's local area network through an interface and establishes a data channel with the electronic medical record system through the hospital's internal network. The encryption chip uses an encryption algorithm to perform hardware-level encryption on the transmitted data, enabling real-time acquisition of structured medical record data containing the patient's four diagnostic methods, diagnostic plans, and treatment plans.

[0047] The vital signs monitoring submodule consists of a dual-view visual acquisition device (high-definition and wide-angle camera), a thermal imaging unit (thermal imaging sensor), a vital signs monitoring array (ECG monitoring module), and an environmental sensor unit (temperature, humidity, and smoke sensors).

[0048] The wide-angle and high-definition visual acquisition devices are arranged at an orthogonal angle on a rotatable gimbal at the front of the housing. The thermal imaging unit, with a built-in temperature compensation algorithm chip, is integrated below the dual-view visual acquisition devices. The vital signs monitoring array integrates ECG monitoring, blood oxygen detection, and respiratory rate detection functions; the module includes electrodes and transmission wires for vital signs monitoring. The environmental sensor array, including temperature, humidity, and smoke concentration detection probes, is integrated at the side ventilation opening of the housing. The outputs of each sensor are integrated into the main control circuit board via a multi-channel data acquisition interface, and the data is input to the central processing unit after being uniformly encoded by an analog-to-digital converter chip.

[0049] The edge computing unit's data processing module comprises a multimodal data processing core and a localized large language model engine. The multimodal data processing core integrates heterogeneous data streams from the data acquisition module group through a timestamp synchronization mechanism, generating a comprehensive data package containing visual features, physiological parameters, and environmental indicators. The processor achieves hardware interconnection with the FPGA accelerator card via a board-to-board connector. The accelerator card has a built-in inference model pre-trained with an acupuncture accident case library and a traditional Chinese medicine diagnosis and treatment standard dataset. It parses contraindication information from medical record text through a feature extraction layer, compares real-time vital sign data with preset safety thresholds through a pattern recognition layer, and finally generates a risk assessment matrix through a decision layer. The multi-core processor's output connects to the display driver module and alarm circuit. The bus bandwidth between the dedicated accelerator card and the processor is improved, employing a higher-speed physical connection interface; the antenna structure of the wireless communication component is optimized to enhance signal stability in the complex environment of a hospital; and the encrypted storage chip is integrated into a reserved area on the main control board, reducing the space occupied by independent packaging.

[0050] The human-computer interactive early warning feedback module includes a tiered display terminal and an emergency communication unit. The tiered display terminal uses a three-color warning interface design: red represents risks requiring immediate intervention, yellow represents potential risks, and blue represents observation prompts. The tiered display terminal integrates an LED backlight module and a text prompt display screen. When a risk level is triggered, the corresponding color backlight illuminates simultaneously, and a floating warning box containing a risk description pops up. When the risk level output by the edge computing unit exceeds a preset threshold, the emergency communication unit sends an alarm message containing a risk location marker to a designated medical staff terminal via the hospital's internal wireless network, and simultaneously activates the audible and visual alarm device.

[0051] The modules form a closed-loop monitoring system: patient characteristic data output by the electronic medical record acquisition submodule and real-time treatment data collected by the vital signs monitoring submodule are processed by the multimodal fusion of the edge computing unit to form dynamically updated safety assessment parameters. The localized large language model engine uses a knowledge reasoning mechanism to perform spatial matching analysis between acupuncture point location data and patient body characteristics, combined with the temporal change trend of vital signs, to achieve full-dimensional risk perception of the treatment process.

[0052] The back of the casing features a standard medical device mounting interface, and the interior cavity houses a power supply unit and a data storage unit. The power supply unit includes a removable battery pack and an emergency power dual-circuit system, ensuring uninterrupted monitoring during treatment. The increased capacity of the removable battery pack extends battery life within the same size; the emergency power module uses a fast-charging design, shortening the backup power activation time. The data storage unit employs an offline encrypted storage mechanism, automatically generating a monitoring report containing risk event logs after treatment.

[0053] This device effectively addresses the problems of low efficiency and delayed risk detection in traditional acupuncture treatments through a technical architecture that integrates multi-source data collaborative acquisition, real-time edge analysis, and tiered early warning output. The combination of a locally deployed large-scale language model and dedicated computing hardware enables intelligent safety monitoring of the acupuncture treatment process while ensuring the security of patient privacy data, effectively improving the early identification rate of adverse acupuncture reactions.

[0054] The working principle of this utility model is as follows:

[0055] Suspension Installation: Move the sliding sleeve 410 so that it moves towards the limiting plate 211 on the surface of the shaft 210. The sliding sleeve 410 drives the baffle 420 and the guide sleeve 430 to move synchronously. The guide sleeve 430 moves on the surface of the guide rod 440 until it reaches its maximum extent, so that the baffle 420 is disengaged from the surface of the rectangular block 220, thus unlocking the hook 230. At this time, the hook 230 can be rotated counterclockwise. The hook 230 drives the limiting plate 211, the rectangular block 220 and the hook 230 to rotate synchronously until the hook 230 contacts the protrusion 500 located above, so that the hook 230 is in use. Then release the sliding sleeve 410 so that the magnet on the sliding sleeve 410 is attracted to the iron block of the rectangular block 220, thereby blocking the rectangular block 220 to lock and position the hook 230. The hook 230 can then be suspended on the treatment bed to achieve suspension installation.

[0056] Fixed installation: Attach the support 310 to the table or other support, positioning the table or other support between the two rubber pads 350. Turn the knob 340, causing the stud 330 to rotate. Under the action of the thread, the stud 330 moves the clamping plate 320 upward within the cavity of the support 310. The clamping plate 320 moves the rubber pads 350 on it synchronously until it reaches its maximum extent. This will fix the support 310 to the table or other support, achieving a fixed installation. Then adjust the position of the folding arm 360 to adjust the usage position of the machine body 100 for convenient observation by medical personnel.

[0057] By combining a multi-sensor data fusion architecture with edge computing units, the monitoring blind spots inherent in traditional acupuncture treatment, which relies on manual inspection, are effectively overcome. Spatial collaborative monitoring by dual-view visual acquisition devices and thermal imaging units, combined with temporal analysis of vital sign data, significantly improves the comprehensive ability to identify patient postural abnormalities, changes in acupuncture sites, and fluctuations in physiological indicators, forming a three-dimensional safety monitoring system.

[0058] The locally deployed large language model engine, through the dynamic correlation between a TCM diagnostic and treatment knowledge base and real-time treatment data, overcomes the limitations of traditional monitoring equipment that can only perform single data comparisons, enabling automatic matching of contraindications and risk inference judgment. This design, while ensuring the security of patient privacy data, allows non-acupuncture professionals to quickly grasp the safety situation in complex treatment scenarios.

[0059] The tiered early warning module transforms traditional passive manual inspection into proactive risk alerts through a linkage mechanism between multiple warning interfaces and precise location markers. When the thermal imaging unit detects an abnormal temperature, the system automatically overlays and displays a thermal distribution map of the needle puncture site and a safety threshold reference line, significantly improving the efficiency of anomaly location while reducing the interference of environmental factors on the monitoring results.

[0060] The modular integrated design allows the device to adapt to the treatment environment of primary healthcare institutions, achieving efficient space utilization through bedside hanging installation. Multi-channel data interfaces and protective design ensure long-term stable operation of the equipment in complex medical scenarios, significantly reducing maintenance costs and operational complexity.

[0061] All parts not described in this utility model are the same as or can be implemented using existing technology. Although embodiments of this utility model have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of this utility model, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An AI-assisted portable acupuncture safety monitoring device, characterized in that, include: The body (100) has a suspension assembly (200) on its upper part for hanging with the treatment bed, and a clamping assembly (300) at the bottom of the body (100) for fixed installation next to the treatment bed. The body (100) includes an outer shell, on which a data acquisition module group, an edge computing unit, and a human-computer interactive early warning feedback module group are provided. The data acquisition module group is connected to the edge computing unit, and the human-computer interactive early warning feedback module group receives the output signal of the edge computing unit. The suspension component (200) and the clamping component (300) are respectively movably connected to the outer shell, and the outer shell is provided with a positioning component (400) for locking the suspension component (200).

2. The AI-assisted portable acupuncture safety monitoring device according to claim 1, characterized in that: The suspension assembly (200) includes a shaft (210) that extends through the upper part of the housing. The surface of the shaft (210) is rotatably connected to the through-hole of the housing. A rectangular block (220) is fixedly connected to both ends of the surface of the shaft (210). The two rectangular blocks (220) are located on both sides of the housing. A hook (230) is fixedly connected to the top of the rectangular block (220).

3. The AI-assisted portable acupuncture safety monitoring device according to claim 1, characterized in that: The clamping assembly (300) includes a support (310) located below the housing and having a U-shaped structure. The opening of the support (310) faces the back surface of the housing. A clamping plate (320) is slidably connected to the inner wall of the support (310). A stud (330) is rotatably connected to the center of the bottom of the clamping plate (320). The bottom end of the stud (330) extends through to the bottom of the support (310) and is fixedly connected to a knob (340). The surface of the stud (330) is threadedly connected to the through-hole of the support (310).

4. The AI-assisted portable acupuncture safety monitoring device according to claim 3, characterized in that: The top of the clamping plate (320) and the top of the inner wall of the support (310) are both fixedly connected with rubber pads (350), and the shape of the rubber pads (350) is the same as that of the clamping plate (320).

5. The AI-assisted portable acupuncture safety monitoring device according to claim 3, characterized in that: A folding arm (360) is installed between the top of the support (310) and the bottom of the housing.

6. The AI-assisted portable acupuncture safety monitoring device according to claim 2, characterized in that: The positioning component (400) includes a sliding sleeve (410) that is slidably sleeved on one end of the surface of the shaft (210). A baffle (420) is fixedly connected to one side of the sliding sleeve (410). The baffle (420) contacts the outer surface of the adjacent rectangular block (220). A guide is provided between the sliding sleeve (410) and the outer shell.

7. The AI-assisted portable acupuncture safety monitoring device according to claim 6, characterized in that: A magnet is fixedly connected to the side of the sliding sleeve (410) facing the rectangular block (220), and an iron block that works in conjunction with the magnet is fixedly connected to the side of the rectangular block (220) adjacent to the sliding sleeve (410).

8. The AI-assisted portable acupuncture safety monitoring device according to claim 6, characterized in that: The guide includes a guide sleeve (430) fixedly connected to one side of the sliding sleeve (410), and a guide rod (440) parallel to the shaft (210) is slidably connected to the inner cavity of the guide sleeve (430), and one end of the guide rod (440) is fixedly connected to the outer shell.

9. The AI-assisted portable acupuncture safety monitoring device according to claim 8, characterized in that: A limiting plate (211) is fixedly connected to one end of the shaft (210) facing the sliding sleeve (410), and the diameter of the limiting plate (211) is larger than the diameter of the shaft (210).

10. The AI-assisted portable acupuncture safety monitoring device according to claim 8, characterized in that: The surface of the outer shell is also fixedly connected to two protrusions (500) arranged vertically. One side of the hook (230) contacts one of the protrusions (500), and the protrusion (500) is located near the guide rod (440).

Images