Silica gel acupuncture model with positioning and light emitting functions

Abstract

The utility model discloses a silica gel acupuncture model with a positioning luminous function, which belongs to the technical field of medical training instruments and comprises an acupuncture model assembly, and the acupuncture model assembly comprises a silica gel model body which simulates limbs and a trunk of a human body in equal proportion and is used for simulating distribution of meridian points of the human body; the light-emitting module is arranged in the silica gel model body and corresponds to the positions of the meridian points; the control module is used for controlling the light-emitting state of the light-emitting module; wherein when the acupuncture point accurately stabs the middle acupuncture point, the light-emitting module representing the whole meridian can emit light, the multi-level brightness can be adjusted and the representative color can be displayed corresponding to the acupuncture point, and when the acupuncture point is not accurately stabbed near the acupuncture point, the light-emitting module stabbing the middle meridian can also emit light; and when no acupuncture point is stabbed, the light is not lighted. The real-time visual feedback mechanism enables a user to visually see the acupuncture and moxibustion effect, the authenticity and interactivity of training are enhanced, and therefore the learning efficiency is improved.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the technical field of medical training instrument, especially a silica gel acupuncture model with positioning and light emitting. BACKGROUND

[0002] With the popularity of traditional Chinese medicine acupuncture in the global scope, the demand for high-quality and high-precision acupuncture training tools is growing. Traditional acupuncture teaching relies on live models or static pictures, which has many limitations: for example, live models are difficult to use for a long time and are expensive; static pictures cannot provide tactile feedback for actual operation. Therefore, it is particularly urgent to develop a training tool that can realistically reproduce the acupuncture process and provide visual feedback in real time.

[0003] In acupuncture teaching and practice, accurately finding the meridian and acupoint is the key. The existing acupuncture model cannot provide simple and intuitive acupoint positioning for testing the results of teaching practice, making it difficult for learners and practitioners to quickly and accurately master the acupoint position. UTILITY MODEL CONTENT

[0004] The utility model aims at providing a silica gel acupuncture model with positioning and light emitting to solve the problems in the background art.

[0005] To achieve the above-mentioned purpose, the utility model provides the following technical scheme: a silica gel acupuncture model with positioning and light emitting, comprising an acupuncture model assembly, the acupuncture model assembly comprising:

[0006] A silica gel model body simulates the human body limbs and torso in equal proportions to simulate the distribution of human meridian and acupoint, and the silica gel model body has acupoint points and offset positions corresponding to human meridian and acupoint;

[0007] A light emitting module is arranged inside the silica gel model body and corresponds to the position of the meridian and acupoint;

[0008] A control module is provided to control the light emitting state of the light emitting module;

[0009] A micro pressure sensor is arranged inside or on the surface of the silica gel model body and can detect the local pressure change when the acupuncture needle is inserted;

[0010] An optical sensor is arranged around each acupoint point of the silica gel model body, which detects the change of light when the acupuncture needle approaches or penetrates the acupoint point and sends a signal to the control module to trigger the corresponding light;

[0011] When the acupuncture needle accurately penetrates the acupoint point, the light emitting module representing the entire meridian will emit light of two levels of brightness and display the representative color, when the acupuncture needle is inserted in the offset position around the acupoint point, the light emitting module representing the meridian will emit light of one level of brightness, and when no acupoint point is penetrated, there is no brightness.

[0012] Preferably, the surface of the silicone model body is provided with meridian and acupoint invisible trigger points for triggering the internal light-emitting module.

[0013] Preferably, the light-emitting module includes a plurality of meridian light-emitting lamp strips and LED lamps, and the LED lamps are electrically connected with the control module of the meridian and acupoint invisible trigger points on the surface of the silicone model body.

[0014] Preferably, the control module includes a touch sensor for sensing operation instructions, controlling the light-emitting state of the light-emitting module to adjust the multi-level brightness.

[0015] Preferably, the silicone model body is made of medical-grade silicone material.

[0016] Compared with the prior art, the technical effects and advantages of the present application are:

[0017] The silicone acupuncture model with positioning and light-emitting has the following effects: by using a silicone model body that simulates human limbs and torso in proportion, and internally embedding accurate corresponding light-emitting modules, when acupuncture accurately hits an acupoint, the light-emitting module representing the entire meridian will emit light, and the corresponding acupoint will be brighter or display different colors. This instant visual feedback mechanism allows users to intuitively see the effects of acupuncture, enhancing the authenticity and interactivity of training. Users can obtain a more realistic acupuncture practice environment, helping them master correct acupuncture techniques and positions more quickly, thereby improving learning efficiency.

[0018] When acupuncture does not accurately hit an acupoint but is nearby, the light-emitting module of the meridian where the acupuncture is located will also light up; and if it completely misses any acupoint, no light effect will be produced. This design relies on the precise analysis of the control module on the trigger signal. This intelligent feedback mechanism not only provides instant operation guidance for users, but also gives gentle prompts when mistakes are made, avoiding the uncertainty in traditional teaching methods, and helping to improve users' confidence and skill level.

[0019] Since the model surface can be designed without obvious surface meridian and acupoint markers, and only relies on internal meridian and acupoint invisible trigger points for positioning, this increases the difficulty and authenticity of training, while also providing more learning challenges. For educational institutions and professional training, such a design makes the device an excellent teaching aid, which can cultivate students' practical operation ability and independent thinking ability, and is suitable for learners of different levels.

[0020] Through visual feedback (such as LED lights turning on or changing color) and tactile feedback (such as the sensation of a acupuncture needle penetrating), users can simultaneously experience multi-sensory learning. This multi-sensory learning approach has been proven to significantly improve information retention and understanding, especially in the learning of complex medical skills. Teachers can quickly determine whether students' operations are correct by observing the light-emitting situation on the model, and immediately give guidance. Reduces the problem of delayed feedback in traditional teaching, improves teaching efficiency, and makes personalized guidance possible.

[0021] When users explore non-invasively through touch sensors, the control module can recognize different touch patterns and activate corresponding light-emitting modules to demonstrate relevant meridian paths. Not only enhances the user experience, but also provides a safe and friendly learning environment for beginners, allowing them to familiarize themselves with the human body structure without using acupuncture needles. BRIEF DESCRIPTION OF DRAWINGS

[0022] In order to more clearly illustrate the specific embodiments of the present application or the technical solutions in the prior art, the following will briefly introduce the drawings needed to be used in the specific embodiments or prior art description. Obviously, the drawings described below are some embodiments of the present application, and for those skilled in the art, other drawings can also be obtained without creative labor on the basis of these drawings.

[0023] Fig. 1 The structure of the present application is shown in the figure;

[0024] Fig. 2 The structure of the present application is shown in the figure;

[0025] Fig. 3 The electrical connection diagram of the silicone acupuncture model with positioning and light-emitting of the present application.

[0026] Explanation of reference signs:

[0027] In the figure: 1, acupuncture model assembly; 2, silicone model body; 3, silicone model inner body; 4, surface meridian and acupoint; 5, meridian light-emitting lamp strip; 6, light-emitting module; 7, control module; 8, LED light; 9, meridian and acupoint invisible trigger point; 10, touch sensor; 11, acupoint; 12, offset position. DETAILED DESCRIPTION

[0028] In the following description, numerous specific details are set forth to provide a more thorough understanding of the present application. However, it will be apparent to one of skill in the art that the present application can be practiced without one or more of these specific details. In other instances, well-known features have not been described in order to avoid obscuring the present application.

[0029] Unless the context clearly requires otherwise, throughout the description, the terms "comprise", "comprising", "include", "including", and the like are to be construed in an inclusive sense, as opposed to an exclusive or exhaustive sense; that is to say, in the sense of "including, but not limited to".

[0030] The embodiment provides a silicone acupuncture model with positioning and light-emitting, as shown in the formula Figs. 1 to 3 The embodiment provides a silicone acupuncture model with positioning and light-emitting, as shown in the formula

[0031] The silicone model body 2 simulates the human body limbs and trunk in proportion, and is used for simulating the distribution of human body meridians and acupoints; the silicone model body 2 simulates the human body limbs and trunk in proportion, and provides a realistic touch and appearance, so that the user can practice acupuncture. Its surface is designed with surface meridians and acupoints 4 to indicate the position of human body meridians and acupoints, but these marks may be invisible in some cases, that is, the invisible trigger points 9 of meridians and acupoints, to increase the difficulty and authenticity of learning;

[0032] The light-emitting module 6 is arranged inside the silicone model body 2 and corresponds to the position of the meridian and acupoint;

[0033] The control module 7 is used for controlling the light-emitting state of the light-emitting module 6, the light-emitting of the whole meridian, and the local light-emitting of the meridian and acupoint;

[0034] The silicone model inner body 3 is located inside the silicone model body 2, provides support and internal structure, and ensures that the model has good shape retention and durability.

[0035] The micro pressure sensor is arranged inside or on the surface of the silicone model body 2. These sensors can detect the local pressure change generated when the acupuncture needle is inserted. When the acupuncture needle is inserted into the silicone model, a certain pressure change will be generated at the contact point. This change can be detected by the micro pressure sensor embedded in the silicone model, and the information is transmitted to the control module 7. The micro pressure sensor is distributed at the position of each preset acupoint 11 and the offset position 12 around the preset acupoint 11, so as to ensure high-precision detection of the position of the acupuncture needle. The micro pressure sensor can detect the local pressure change generated when the acupuncture needle is inserted. A micro optical sensor is used to detect the existence and position of the acupuncture needle. These sensors can judge whether an object (such as an acupuncture needle) enters the detection area based on the change of reflected light or transmitted light;

[0036] The control module 7 receives the sensor information and uses a preset algorithm program to calculate the positional deviation of the acupuncture needle relative to the target acupoint. Based on the received signals (such as information from the meridian acupoint invisible trigger point 9 or the pressure sensor), the control module 7 adjusts the brightness of the LED light 8 and the meridian light strip 5 through the PWM signal. For example, when the acupoint 11 is accurately stimulated, the corresponding LED light will be brighter or change color to provide visual feedback.

[0037] Special integrated circuit (IC) chips are used to manage the brightness of multiple LED lights. These IC chips have built-in preset algorithms that can accurately control the brightness and color of each LED light. The control module 7 communicates with these IC chips and dynamically adjusts the brightness of each LED light 8 and the meridian light strip 5 based on the trigger signal to achieve the desired visual effect.

[0038] When the acupuncture needle accurately stimulates the acupoint, the light-emitting module 6 representing the entire meridian will emit light, and the corresponding acupoint will adjust the multi-level brightness and display the representative color. When the acupuncture needle is inserted near the acupoint, the light-emitting module 6 of the meridian where the acupuncture needle is inserted will also light up. When no acupoint is stimulated, the light-emitting module 6 will not light up. When the acupuncture needle accurately stimulates the preset acupoint 11, the sensor will detect a specific pressure value or form a closed circuit, triggering the control module 7 to send a high-brightness PWM signal to the corresponding LED light 8, causing the acupoint and its corresponding meridian light strip 5 to light up with high brightness. If the acupuncture needle deviates from the preset acupoint 11 but is within the offset position 12 around the preset acupoint, the sensor will detect a different pressure distribution, which will trigger a weaker signal. The control module 7 adjusts the duty cycle of the PWM signal based on this weaker signal, causing the corresponding LED light 8 and the meridian light strip 5 to light up with lower brightness.

[0039] Multiple trigger points with different sensitivities are arranged around each acupoint 11, and these trigger points correspond to different levels of brightness changes. The central trigger point is located at the center of the acupoint 11 and is the most sensitive, triggering the highest brightness when the acupuncture needle is accurately stimulated. The peripheral trigger points are distributed around the acupoint 11 and have lower sensitivity, triggering lower brightness when the acupuncture needle deviates from the center but is nearby. The peripheral trigger points can be multiple levels, with lower brightness further away from the center.

[0040] When the acupuncture needle accurately hits the acupoint 11, the light-emitting module 6 representing the entire meridian will light up, and the LED lamp 8 corresponding to the acupoint will display with higher brightness or different color to clearly distinguish between accurate hitting and insertion deviation. The brightness and color of the LED lamp 8 can be adjusted through PWM (Pulse Width Modulation) control. This control is achieved by the control module 7 according to the position of the acupuncture needle detected by the sensor. When the acupuncture needle accurately hits the preset acupoint 11, the trigger signal is recognized as high-precision matching. At this time, the control module 7 sends a specific PWM signal or current value to the corresponding LED lamp 8, causing it to significantly increase in brightness or change color (e.g., from white to green). This not only makes the acupoint more prominent, but also emphasizes the success of the operation; if the acupuncture needle deviates from the preset acupoint 11 but is within the range of the side, the trigger signal is recognized as low-precision matching. At this time, the control module 7 sends a different PWM signal or current value, causing the LED lamp 8 to remain at a lower brightness or not change color, but still light up to indicate proximity to the correct position.

[0041] Primary brightness (L1): When the acupuncture needle does not accurately hit the acupoint 11 but is within the deviation position 12, the LED lamp 8 lights up with lower brightness (e.g., 50% of normal brightness), indicating proximity to the correct position.

[0042] Secondary brightness (L2): When the acupuncture needle accurately hits the acupoint 11, the LED lamp 8 lights up with higher brightness (e.g., 100% of normal brightness) and can change the representative color (e.g., to green), clearly indicating the success of the operation.

[0043] No brightness (L0): When no acupoint 11 is hit, the LED lamp 8 is not lit, indicating that the operation is invalid.

[0044] When the user performs acupuncture, the sensor detects the position and pressure distribution of the acupuncture needle insertion. The sensor transmits the detected information to the control module 7. The control module 7 analyzes whether the position of the acupuncture needle is accurate based on the received data through the built-in preset program algorithm. Based on the analysis result, the control module 7 adjusts the duty cycle of the PWM signal or other brightness adjustment methods, and possibly changes the color. When accurately hit, a high-brightness PWM signal or color change is sent to significantly enhance or change the light, and when insertion deviation occurs, a low-brightness PWM signal is sent to make the light dim but still visible. Ultimately, the user can intuitively understand whether their acupuncture operation is accurate by observing the changes in light brightness and color.

[0045] In this embodiment, the surface meridian acupoint 4 is not visible, but it is a key element of the acupuncture model, guiding the user to correctly position and insert the acupuncture needle. When the user accurately hits the acupoint, a specific feedback mechanism is triggered.

[0046] In this embodiment, the light-emitting module 6 includes a plurality of meridian light-emitting lamp strips 5 and LED lamps 8, which are electrically connected with the control module 7 of the correct trigger point on the surface of the silicone model body 2. The meridian light-emitting lamp strips 5 are installed inside the silicone model body 2 and correspond to the meridian paths of the human body. The function is that during the acupuncture operation, when the acupuncture needle accurately penetrates into the corresponding acupoint, the light-emitting lamp strip representing the whole meridian will light up, helping the user to visualize the meridian path and confirm the accuracy of the acupuncture position.

[0047] In this embodiment, the surface of the silicone model body 2 is not provided with meridian lines and acupoint positions, but is provided with invisible trigger points 9 of meridian acupoints for triggering the internal light-emitting module 6.

[0048] In this embodiment, the control module 7 includes a touch sensor 10 for sensing operation instructions and controlling the light-emitting state of the light-emitting module 6. When the acupuncture needle penetrates into the silicone model, a certain pressure change will occur at the contact point. This change can be detected by a micro pressure sensor embedded in the silicone model and the information is transmitted to the control module. The control module 7 is the "brain" of the whole system, responsible for receiving input information from the touch sensor 10 and the invisible trigger points 9 of meridian acupoints, processing these information, and controlling the light-emitting state of the LED lamps 8 and the meridian light-emitting lamp strips 5 in the light-emitting module 6. It ensures the accuracy and immediacy of the system response. The LED lamps 8 are distributed at various acupoint positions, and when the acupuncture needle accurately penetrates, the corresponding LED lamps 8 will be brighter or change color, thereby giving the user intuitive feedback to confirm the success or failure of acupuncture.

[0049] In this embodiment, the silicone model body 2 is made of medical-grade silicone material, which has good softness and durability.

[0050] Working principle:

[0051] The silicone acupuncture model with light positioning, after the acupuncture model assembly 1 is turned on, the user can select different modes such as: teaching mode, practice mode or examination mode, which will affect the subsequent operation and feedback mechanism. According to the needs, select an acupoint for acupuncture training. If the model surface is provided with visible surface meridians and acupoints 4, the user can refer to these marks; if the design is invisible, the user needs to rely on his own knowledge and technology to locate the acupoint. The user will insert the acupuncture needle into the selected acupoint position. At this time, the invisible meridian and acupoint trigger point 9 will detect the position of the acupuncture needle and transmit the information to the control module 7. After the control module 7 receives the information from the invisible meridian and acupoint trigger point 9, it immediately analyzes whether the position of the needle is accurate and corresponds to the preset acupoint. If the acupuncture needle accurately punctures the acupoint, the control module 7 will identify the meridian path to which the acupoint belongs, and activate the corresponding meridian light belt 5, so that the entire meridian is lit up. At the same time, the LED lamp 8 located at the acupoint position will also be brighter or change color to provide visual confirmation.

[0052] If the acupuncture needle does not accurately puncture the acupoint but is near it, the system will also identify the meridian and light up the corresponding meridian light belt 5, but will not give special light emphasis to the specific acupoint. If the acupuncture needle neither punctures the acupoint nor approaches any meridian, the system will not produce any light effect response, prompting the user to adjust the acupuncture position.

[0053] When the LED lamp 8 in the light-emitting module 6 and the meridian light belt 5 are activated, they provide immediate visual feedback to the user, helping the user understand the effect and accuracy of acupuncture. For beginners or in teaching mode, this immediate feedback helps them quickly understand the difference between correct and incorrect acupuncture techniques, thereby accelerating the learning process. In addition, the user can also interact with the model through the touch sensor 10, explore the functions of different acupoints, without the need to actually use the acupuncture needle, increasing the diversity and safety of learning.

[0054] After completing an acupuncture practice, the user can end the current session through the control panel or application. The control module 7 will then turn off all the LED lamps 8 and meridian light belts 5, reset the system to the initial state, and prepare for the next round of training or testing.

[0055] It has to be noted that, in the present document, the terms "comprising", "including", and "having" should be interpreted as specifying the presence of the stated features but not precluding the presence of one or more other features. It should also be noted that, in the present document, the term "or" should be interpreted as the logical or, i.e. requiring at least one of the presented options to be true.

[0056] While the embodiments of the present application have been illustrated and described, it will be understood by those skilled in the art that various changes, modifications, substitutions, and alterations can be made therein without departing from the spirit and scope of the application as defined by the appended claims and their equivalents.

Claims

1. A silicon gel acupuncture model with positioning light-emitting, comprising an acupuncture model assembly (1), characterized in that, The acupuncture model assembly (1) comprises: A silica gel model body (2) simulating human limbs and torso in proportion, for simulating human meridian and acupoint distribution, the silica gel model body (2) having acupoint points (11) and offset positions (12) corresponding to human meridian and acupoint; A light-emitting module (6) arranged inside the silica gel model body (2) corresponding to the meridian and acupoint positions; A control module (7) for controlling the light-emitting state of the light-emitting module (6); A micro pressure sensor arranged inside or on the surface of the silica gel model body (2) capable of detecting the local pressure change generated when the acupuncture needle is inserted; An optical sensor arranged around each acupoint point (11) of the silica gel model body (2), when the acupuncture needle approaches or is inserted into the acupoint point (11), the optical sensor detects the change of light and sends a signal to the control module (7) to trigger the corresponding light; When the acupuncture needle accurately hits the acupoint point (11), the light-emitting module (6) representing the entire meridian will emit light of two levels of brightness and display the representative color, when the acupuncture needle is inserted into the offset position (12) around the acupoint point (11), the light-emitting module (6) representing the meridian will emit light of one level of brightness, and when no acupoint point (11) is hit, there is no brightness.

2. The silicone acupuncture model with light emitting positioning according to claim 1, characterized in that: The surface of the silica gel model body (2) is provided with invisible trigger points (9) of meridian and acupoint for triggering the internal light-emitting module (6).

3. The silicone acupuncture model with light emitting positioning according to claim 2, characterized in that: The light-emitting module (6) comprises a plurality of meridian light-emitting lamp strips (5) and LED lamps (8), the LED lamps (8) are electrically connected with the control module (7) of the invisible trigger points (9) of meridian and acupoint on the surface of the silica gel model body (2).

4. The silicone acupuncture model with light emitting positioning according to claim 3, characterized in that: The control module (7) comprises a touch sensor (10) for sensing operation instructions, controlling the light-emitting state of the light-emitting module (6) to adjust the multi-level brightness.

5. The silicone acupuncture model with light emitting positioning according to claim 4, characterized in that: The silica gel model body (2) is made of medical grade silica gel material.

Images