EMS intelligent garment

Abstract

The invention discloses an EMS intelligent garment which comprises a garment body, an electrode module, a sensor module, a control module, a power module, a communication module, a silver fiber line, a magnetic buckle and a control box. The clothes have the advantages that the EMS equipment is combined with the clothes, and the magnetic attraction coupling electrode system is arranged, so that integration of quick disassembly and assembly of electrode plates and current conduction is achieved; the sensor module, the control module, the power supply module and the communication module are detachable and are convenient to use; secondly, deep muscle groups are stimulated through high-frequency electric pulses, and the exercise efficiency, namely the fat burning effect, is greatly improved; three-dimensional modeling of motion postures is achieved through the control technology, and efficient and time-saving exercise is achieved; and 4, the theory of traditional Chinese medicine and modern electrophysiology are fused, and human body medical-level health management is realized.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent wearable devices, and in particular to an EMS intelligent clothing. Background Art

[0002] EMS, or Electrical Muscle Stimulation, uses electrical pulses to simulate nerve signals, triggering muscle contractions and achieving a passive training effect. Pulse parameters are adjustable: frequency range 20-100Hz, pulse width 50-400μs, supporting both isometric and dynamic contraction modes. This physiological mechanism bypasses the central nervous system to directly activate muscle fibers, overcoming the intensity limitations of voluntary training, stimulating deep muscles such as type II fast-twitch fibers, and increasing activation rates in muscle groups difficult to reach with traditional training. EMS equipment refers to a form of adjunctive therapy or training that uses electrical current to activate skeletal muscle and promote contraction. In clinical medicine, EMS devices are primarily used to restore muscle function after various injuries, such as stimulating the pelvic floor muscles of postpartum women to improve pelvic floor function such as postpartum urinary incontinence, and restoring the function of key muscle groups after a stroke. Due to its role in muscle stimulation and functional enhancement, EMS devices are becoming increasingly popular in civilian settings as society develops.

[0003] Existing civilian EMS equipment has the following significant defects: 1. They are all single EMS wearable products, such as those worn on the waist, legs, chest, abdomen, back, buttocks, etc., which makes human movement feel cumbersome and affects training; 2. They are simply electric current stimulation and the products are single; 3. They have low intelligence and large product size; 4. They have no other intelligent functions except sports training. Summary of the Invention

[0004] The main technical problem solved by the present invention is to provide an EMS smart clothing, which realizes the combination of EMS equipment and clothing, is detachable, can assist the human body in realizing three-dimensional modeling of movement posture, make exercise efficient and time-saving, and realize medical-grade health management of the human body.

[0005] In order to solve the above problems, the present invention provides an EMS smart clothing, comprising:

[0006] The clothing body is made of elastic fabric and has an embedded deformable memory alloy skeleton;

[0007] An electrode module, comprising a plurality of flexible electrode sheets;

[0008] The sensor module includes an electromyographic sensor, an inertial measurement unit, a physiological sensor, a pressure sensor, a temperature sensor, and a humidity sensor. The electromyographic sensor, the inertial measurement unit, the physiological sensor, and the pressure sensor are used to collect the user's physiological data and movement posture in real time.

[0009] A control module, comprising a control center, a signal generator, and a temperature control circuit; the control module is electrically connected to the electrode module and the sensor module, and has a built-in signal generator and an adaptive algorithm for dynamically adjusting electrical stimulation parameters based on sensor data; the control center comprises a processor, a signal processing unit, a mode switching unit, and a parameter adjustment unit;

[0010] Power module, which includes: battery pack, power management, and each module supplies power and supports wireless charging function;

[0011] Communication module, supporting Bluetooth, Wi-Fi and 5G protocols, to achieve data interaction with mobile terminals or cloud servers;

[0012] Silver fiber wire, wherein the silver fiber wire is conductive;

[0013] The magnetic buckle comprises a plurality of magnetic buckles, and the magnetic buckle is provided with a female magnetic buckle head and a male magnetic buckle head; the female magnetic buckle head and the male magnetic buckle head are magnetically attracted together to conduct current;

[0014] A control box, which is the housing of the modules and components and serves as a controller;

[0015] The sensor module is detachably mounted on the chest of the garment body; the control module, power module, and communication module are integrated into one through a circuit board and installed in a control box; the control box is detachably mounted on the shoulder of the garment body; the magnetic buckle female head, communication module, power module, and control module are electrically connected; the sensor module and magnetic buckle female head are electrically connected to the control module through a silver fiber line.

[0016] Furthermore, the base of the flexible electrode sheet is made of a silicone sheet, the surface is covered with a biocompatible gel layer, and the electrode shape is rectangular; the electrical layer of the flexible electrode sheet is made of graphene conductive material.

[0017] Furthermore, the female magnetic buckle and the silver fiber line are built into the clothing body, and there are multiple female magnetic buckles; the male magnetic buckle is installed on the flexible electrode sheet, and the flexible electrode sheet is magnetically attracted to the female magnetic buckle through the male magnetic buckle.

[0018] Furthermore, the flexible electrode sheets are distributed in an array, covering the core muscles of the trunk, large muscle groups of the limbs and specific acupuncture points, and each flexible electrode sheet is independently controllable, supporting multi-channel regional stimulation mode.

[0019] Furthermore, the processor is used to process sensor data in real time, dynamically adjust electrical stimulation parameters, and coordinate the operation of various modules to realize intelligent muscle stimulation and motion assistance functions; the signal processing unit is used to filter and extract features from sensor data; the mode selection unit is used to provide switching functions among training mode, rehabilitation mode and daily health care mode; the parameter adjustment unit is used to dynamically adjust the pulse frequency, pulse width and current intensity according to the muscle activation threshold.

[0020] Furthermore, the temperature sensor is used to collect the temperature of the environment; the humidity sensor is used to collect the humidity of the environment; and the control module activates the high-frequency electric pulse stimulation function of the flexible electrode sheet according to the temperature and humidity data of the environment.

[0021] Furthermore, the deformable memory alloy skeleton is provided with a skeleton temperature sensor, and the deformable memory alloy skeleton can change the supporting stiffness of local clothing after receiving a control instruction, thereby assisting the user in correcting exercise posture.

[0022] Furthermore, the substrate of the flexible electrode sheet can be replaced by a silver fiber sheet.

[0023] Furthermore, the style of the clothing body is a sportswear style.

[0024] Furthermore, the style of the garment body can be changed to a underwear style.

[0025] The beneficial effects of the present invention are as follows: 1. It realizes the combination of EMS equipment and clothing, and is equipped with a magnetic coupling electrode system to realize the integration of rapid disassembly and assembly of electrode sheets and current conduction; the sensor module, control module, power module, and communication module are also detachable for easy use; the memory alloy skeleton realizes real-time adjustment of clothing stiffness; 2. The sensors are concentrated on the chest to accurately collect cardiopulmonary function data; the control unit is integrated on the shoulder, which conforms to the principle of human center of gravity distribution; 3. The flexible electrode sheets take into account both conductivity and skin safety; 4. The multimodal adaptive algorithm dynamically tracks the muscle activation threshold and automatically matches the pulse parameter 20-100Hz / 50-400μ regional stimulation mode to support differentiated management of the trunk, limbs, and acupoints; the data fusion control logic integrates electromyography, inertial, and pressure sensor data to realize three-dimensional modeling of movement posture; 5. The function reaches medical-grade health management, acupoint targeted stimulation, and integrates traditional Chinese medicine theory and modern electrophysiology; the rehabilitation mode is gradually adjusted to conform to the law of muscle injury repair; 6. The shape conversion of sportswear or underwear covers three major scenarios: fitness, medical care, and daily life; 7. It realizes the trinity of precise, efficient, and intelligent training and health management. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings in the description are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0027] Figure 1 This is a product appearance diagram of Example 1 of the present invention.

[0028] Figure 2 yes Figure 1 Schematic diagram of the sensor module.

[0029] Figure 3 yes Figure 1 Schematic diagram of the control box.

[0030] Figure 4 yes Figure 1 Schematic diagram of a flexible electrode sheet with a magnetic buckle male connector.

[0031] Figure 5 yes Figure 1 Schematic diagram of the magnetic buckle female connector installed on the garment body.

[0032] Figure 6 yes Figure 1 Schematic diagram of the flexible electrode sheet installed on the clothing body.

[0033] Figure 7 yes Figure 1 Schematic diagram of silver fiber wire.

[0034] Figure 8 This is a product appearance diagram of the second embodiment of the present invention.

[0035] Figure 9 This is a product appearance diagram of embodiment 3 of the present invention.

[0036] Figure 10 This is a product appearance diagram of embodiment 4 of the present invention.

[0037] The accompanying drawings are marked as follows: 100, clothing body; 200, flexible electrode sheet; 300, sensor module; 400, silver fiber line; 501, magnetic buckle female head; 502, magnetic buckle male head; 600, control box.

[0038] The following further illustrates the purpose, features and advantages of the present invention with reference to the embodiments and accompanying drawings. DETAILED DESCRIPTION

[0039] To make the purpose, technical solutions, and advantages of the invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts shall fall within the scope of protection of the present invention.

[0040] Example 1:

[0041] like Figures 1 to 7 As shown, an EMS smart clothing of this embodiment, wherein the clothing body 100 is a sports long-sleeved top, includes:

[0042] The garment body 100 is made of elastic fabric and has an embedded deformable memory alloy skeleton. Specifically, the elastic fabric is a blend of polyester fiber and spandex with a blend ratio of 82:18. The deformable memory alloy skeleton is a three-dimensionally woven nickel-titanium alloy wire with a diameter of 0.3 mm. The garment body 100 of this embodiment is a long-sleeved sports top.

[0043] The electrode module includes a plurality of flexible electrode sheets 200; the flexible electrode sheets 200 include a substrate and an electrical layer;

[0044] The sensor module 300 includes an electromyographic sensor, an inertial measurement unit, a physiological sensor, a pressure sensor, a temperature sensor, and a humidity sensor. The electromyographic sensor, the inertial measurement unit, the physiological sensor, and the pressure sensor are used to collect the user's physiological data and motion posture in real time. Specifically, the electromyographic sensor adopts a three-electrode differential sensor. The electromyographic sensor captures the electrical signal generated by muscle contraction, i.e., the microvolt level, through electrodes, and identifies movement patterns such as flexion, extension, and rotation. It is integrated with the inertial measurement unit, i.e., the IMU, to supplement acceleration and angular velocity data and enhance the robustness of complex motion tracking. It can evaluate muscle dysfunction, monitor strength recovery in rehabilitation training, and optimize the diagnosis and treatment plan for neuromuscular diseases. The inertial measurement unit adopts a nine-degree-of-freedom inertial measurement unit, i.e., the ICM-42688 nine-axis IMU, which measures three-axis acceleration, angular velocity, and posture changes for motion capture and gait analysis. ; The inertial measurement unit is a core sensor device that measures the acceleration and angular velocity of an object in three-dimensional space to infer its posture, position and motion state. It is equipped with components such as accelerometer, gyroscope and magnetometer; the data of the accelerometer and gyroscope are combined with integral operation and filtering algorithm such as Kalman filtering and complementary filtering to solve the posture, velocity and displacement of the object. Its function is to measure three-axis acceleration, angular velocity and posture changes for motion capture and gait analysis; physiological sensors include photoelectric volumetric pulse wave sensor and skin conductance sensor; photoelectric volumetric pulse wave sensor is used for heart rate detection; skin conductance sensor is used for emotion and stress monitoring; physiological sensor is used to monitor physiological indicators such as heart rate and skin electrical response; pressure sensor uses MEMS pressure sensor, whose function is to assist posture calibration; temperature The sensor uses an NTC thermistor; the humidity sensor uses an HS1101LF capacitive sensor with an accuracy of ±3% RH; the working principle of the combination: the physiological sensor achieves real-time monitoring of physiological parameters such as human heart rate, blood pressure, and blood oxygen through the deep integration of sensors, algorithms, and biomedicine. It also integrates heart rate monitoring, blood pressure monitoring, body temperature monitoring, etc.; supports the transition from disease treatment to active health management; the biosensor uses molecular recognition elements such as enzymes, antibodies, and transducers to work together to convert biological signals into electrical signals, thereby improving the sensitivity of early disease screening; it is used for medical health monitoring, namely chronic disease management and intensive care; training effects and data reports, as well as health management, can be displayed through the APP; users can automatically adjust training plans based on monitoring data to ensure the safety and effectiveness of training;

[0045] The control module includes a control center, a signal generator, and a temperature control circuit; the control module is electrically connected to the electrode module and the sensor module 300, and has a built-in signal generator and an adaptive algorithm for dynamically adjusting the electrical stimulation parameters according to the sensor data; the control center includes a processor, a signal processing unit, a mode switching unit, and a parameter adjustment unit; specifically, the processor uses an embedded microprocessor such as an ARM Cortex-M7, which can run the adaptive algorithm, namely the LSTM neural network; the signal generator uses a micro pulse generator with an output frequency range of 1-150Hz, a pulse width of 50-400μs, and a current intensity of 0-100mA, which complies with the IEC 60601-2-10 medical safety standard; the following is the implementation of the adaptive algorithm, namely the LSTM neural network:

[0046] Step 1: The original signal is collected by the electromyography sensor, i.e. the sampling rate is 2kHz, and then denoised by Butterworth bandpass filter, i.e. 20-500Hz;

[0047] Step 2: Calculate muscle activation index:

[0048] text

[0049] Copy Code

[0050] MAI=∫(EMG_RMS)×IMU_Angle / Max_Force;

[0051] Step 3: When the MAI is detected to deviate from the target value by 5%, the PID controller is triggered to adjust the stimulation parameters:

[0052] text

[0053] Copy Code

[0054] ΔI=Kp·e(t)+Ki·∫e(t)dt+Kd·de(t) / dt

[0055] Wherein the proportional coefficient Kp = 0.8, the integral time constant Ti = 1.2s, and the differential time constant Td = 0.05s;

[0056] The temperature control circuit specifically adopts the STM32H743ZI main control chip to control the deformable memory alloy skeleton to change the supporting stiffness of local clothing; the working principle of the various components of the control module combined together: the electromyographic sensor captures the electrical signal generated by muscle contraction, i.e., the microvolt level, through electrodes, and identifies movement modes such as flexion, extension, and rotation; it is integrated with the inertial measurement unit, i.e., IMU, to supplement the acceleration and angular velocity data and enhance the robustness of complex movement tracking; it can evaluate muscle dysfunction, monitor strength recovery in rehabilitation training, and optimize the diagnosis and treatment plan of neuromuscular diseases; the inertial measurement unit is a core sensor device that measures the acceleration and angular velocity of an object in three-dimensional space to infer its posture, position and motion state, and is equipped with components of accelerometer, gyroscope, and magnetometer; by increasing The data from the speedometer and gyroscope, combined with integral operations and filtering algorithms such as Kalman filtering and complementary filtering, can solve the posture, speed and displacement of the object; physiological sensors achieve real-time monitoring of physiological parameters such as human heart rate, blood pressure, blood oxygen, etc. through the deep integration of sensors, algorithms and biomedicine, and also integrate heart rate monitoring, blood pressure monitoring, body temperature monitoring, etc.; support the transition from disease treatment to active health management; biosensors use molecular recognition elements such as enzymes, antibodies and transducers to work together to convert biological signals into electrical signals, thereby improving the sensitivity of early disease screening; they are used for medical health monitoring, namely chronic disease management and intensive care; training effects and data reports, and health management can be displayed through the APP; users can automatically adjust training plans according to monitoring data to ensure the safety and effectiveness of training

[0057] The power module includes a battery pack and a power management system. Each module is powered and supports wireless charging. Specifically, the battery pack uses a 2000mAh, 3.7V lithium polymer battery and is compatible with a Qi wireless charging coil. The power management system uses a TI BQ25601D chip.

[0058] The communication module supports Bluetooth, Wi-Fi and 5G protocols to realize data interaction with mobile terminals or cloud servers; the communication module adopts Bluetooth 5.2+Wi-Fi6 dual-mode chip, which supports 5GSub-6GHz;

[0059] Silver fiber wire 400, wherein the silver fiber wire 400 is conductive; the silver fiber wire 400 is a 16 μm diameter silver fiber wire 400, embedded in the fabric in a warp knitting manner, and has a surface resistance of less than 3 Ω / sq;

[0060] The magnetic buckle includes a plurality of magnetic buckles, each of which is provided with a female magnetic buckle head 501 and a male magnetic buckle head 502. The female magnetic buckle head 501 and the male magnetic buckle head 502 are magnetically attracted to each other to conduct current. The female magnetic buckle head 501 and the male magnetic buckle head 502 are made of neodymium iron boron permanent magnets.

[0061] The control box 600 is a housing for the modules and components and serves as a controller;

[0062] The sensor module 300 is detachably mounted on the chest of the garment body 100. The control module, power module, and communication module are integrated into one body through a circuit board and mounted in a control box 600. The control box 600 is detachably mounted on the shoulder of the garment body 100. The magnetic buckle female connector 501, the communication module, the power module, and the control module are electrically connected. The sensor module 300 and the magnetic buckle female connector 501 are electrically connected to the control module via a silver fiber line 400. The sensor module 300 is detachably mounted on the chest of the garment body 100 via a snap-on buckle, and is electrically connected to the control module using a JST-SH connector. The signal line is fixed to the fabric lining via conductive adhesive.

[0063] like Figure 1 、 Figure 6 As shown, the base of the flexible electrode sheet 200 is made of silicone sheet, the surface is covered with a biocompatible gel layer, and the electrode shape is rectangular; the electrical layer of the flexible electrode sheet 200 is made of graphene conductive material. Specifically, the silicone sheet is a 0.5mm thick medical silicone sheet with a Shore hardness of 25A; the graphene conductive material is a multilayer graphene film with a square resistance of Ω / □; the biocompatible gel layer is a PVA-based hydrogel with a thickness of 100μm; Ω / □ is ohms per square, which is the sheet resistance, namely Sheet Resistance, which is defined as the resistance value per square area of ​​a thin layer of material; the silicone sheet has good biocompatibility, ductility and deformation resistance, and can fit the curve of the human body tightly; the biocompatible gel layer ensures low electrical impedance and high conductivity, and is suitable for precise electrical signal acquisition and transmission. The flexible electrode sheet 200 detects the real-time impedance of the skin contact surface through the electrode, and automatically adjusts the output pulse waveform, that is, square wave or sine wave can be switched to ensure the stability of the stimulation current;

[0064] like Figures 1 to 7 As shown, the magnetic buckle female head 501 and the silver fiber line 400 are built into the clothing body 100, and the number of the magnetic buckle female head 501 is multiple; the magnetic buckle male head 502 is installed on the flexible electrode sheet 200, and the flexible electrode sheet 200 is magnetically attracted to the magnetic buckle female head 501 through the magnetic buckle male head 502. Specifically, the magnetic buckle female head 501 is embedded in the clothing body 100; the magnetic buckle male head 502 is integrated on the back of the magnetic buckle male head 502; the connection between the electrode and the clothing is achieved through the magnetic buckle female head 501 and the magnetic buckle male head 502 to achieve mechanical and electrical dual connection: the magnetic buckle female head 501 and the silver fiber line 400 are welded together, and its tensile strength is ≥5N; the magnetic buckle male head 502 and the magnetic buckle female head 501 are both provided with conductive contacts, and the electrical contacts form a closed loop circuit with the silver fiber line 400, which automatically cuts off the current output when the flexible electrode sheet 200 is disassembled.

[0065] like Figure 6 As shown, the flexible electrode sheets 200 are distributed in an array, covering the core muscle groups of the trunk, large muscle groups of the limbs and specific acupuncture points, and each flexible electrode sheet 200 is independently controllable, supporting multi-channel regional stimulation mode; Specifically, the flexible electrode sheets 200 are distributed in an array, and the following functions are achieved: 1. Precise targeted treatment, covering core muscle groups and acupuncture points: The flexible electrode sheets 200 are distributed in an array, which can accurately cover the core muscle groups of the trunk such as the rectus abdominis, erector spinae and large muscle groups of the limbs such as the quadriceps femoris and biceps brachii, and combine with specific acupuncture points such as Zusanli and Hegu to activate muscle contraction and meridian conduction through electrical stimulation, thereby achieving local fatigue relief and energy metabolism regulation; 2. Zoning Domain independent control, each flexible electrode sheet 200 is independently controllable, supporting differentiated electrical stimulation parameters such as frequency and intensity for different muscle groups or acupoints, meeting the refined needs of scenarios such as sports rehabilitation and pain management; third, muscle function enhancement, through multi-channel regional stimulation, it can simultaneously enhance the stability of core muscle groups such as lumbar support and limb explosiveness, such as sprint movement optimization, which is suitable for athletes' physical training or postoperative muscle strength recovery; fourth, integration of traditional Chinese medicine and physical therapy, applying specific frequency electric pulses such as 20-100Hz to acupoints, simulating the "qi" effect of acupuncture, promoting the circulation of qi and blood and the metabolism of inflammatory factors, and assisting in the treatment of arthritis, soft tissue injuries and other diseases.

[0066] like Figure 1 、 Figure 2 As shown, the processor is used to process sensor data in real time, dynamically adjust electrical stimulation parameters, and coordinate the operation of various modules to achieve intelligent muscle stimulation and movement assistance functions; the signal processing unit is used to filter and extract features from sensor data; the mode selection unit is used to provide switching functions among training mode, rehabilitation mode, and daily health care mode; the parameter adjustment unit is used to dynamically adjust the pulse frequency, pulse width, and current intensity according to the muscle activation threshold; the signal processing unit is specifically an ARM Cortex-M7 processor equipped with an LSTM neural network algorithm to process electromyographic sensor data in real time and generate control instructions, and uses an STMicroelectronics ISPU coprocessor, which is dedicated to edge signal processing, anomaly detection, and parameter optimization; the mode selection unit uses an FPGA logic controller, which uses programmable logic to achieve seamless switching between treatment, training, and recovery modes, and uses a magnetic key control module. Physical buttons trigger mode switching and feedback status is provided by Hall sensors; the magnetic key control module is also installed in the control box 600; the parameter adjustment unit uses a high-precision DAC chip and a multi-axis IMU sensor; the high-precision DAC chip is used to output 16-bit resolution current parameters; the multi-axis IMU sensor is used to dynamically adjust stimulation parameters to adapt to changes in movement posture.

[0067] like Figure 6As shown, the temperature sensor is used to collect the temperature of the environment; the humidity sensor is used to collect the humidity of the environment; the control module starts the high-frequency electric pulse stimulation function of the flexible electrode sheet 200 according to the temperature and humidity data of the environment.

[0068] like Figure 1 As shown, the deformable memory alloy skeleton is equipped with a skeleton temperature sensor, and the deformable memory alloy skeleton can change the support stiffness of the local clothing after receiving control instructions, helping the user to correct exercise posture; the deformable memory alloy skeleton has shape memory effect and super elasticity, these two properties enable it to return to its original shape when subjected to external force or temperature changes. Specifically, the deformable memory alloy skeleton uses nickel-titanium alloy wire, which is a memory alloy skeleton with a stiffness adjustment range of 0.5-1.2N / mm 2 The skeleton temperature sensor uses a DS18B20 temperature sensor to monitor the temperature of the deformable memory alloy skeleton in real time. After the data is processed by the algorithm, instructions are sent to the temperature control circuit. The temperature control circuit controls the deformable memory alloy skeleton to change the support stiffness of local clothing, thereby helping users correct their exercise posture.

[0069] like Figure 6 As shown, the substrate of the flexible electrode sheet 200 can be replaced by a silver fiber sheet.

[0070] The main functions of this embodiment are: 1. Personalized training plan: intelligently generate personalized training plans based on the user's age, gender, height, weight, fitness goals and other information; users can adjust the training intensity, frequency and duration through the mobile phone APP to meet the fitness needs of different stages. 2. Precise muscle stimulation: flexible electrodes cover the main muscle groups of the whole body; stimulate muscles through low-frequency pulse current to simulate muscle contraction during exercise to achieve efficient training; adjustable current intensity and stimulation mode to meet the tolerance and training needs of different users: 3. Memory alloy skeleton realizes real-time adjustment of clothing stiffness to better adapt to muscle activity, thereby improving training effect; 3. Real-time monitoring and feedback: Physiological indicators such as heart rate monitoring, blood pressure monitoring, body temperature monitoring, etc., display training effects and data reports through APP. Automatically adjust the training plan according to the monitoring data to ensure the safety and effectiveness of the training. 5. Rehabilitation assistance function: Provide specific rehabilitation plans for users who need rehabilitation, such as postoperative recovery, muscle injury repair, etc. EMS stimulation promotes blood circulation, accelerates muscle recovery, and reduces pain; its functions achieve medical-grade health management. 6. Flexible electrodes cover acupuncture points for targeted stimulation, integrating Traditional Chinese Medicine theory with modern electrophysiology. 7. Lightweight, breathable fabric ensures comfort. A rechargeable battery ensures long-term use. Easy to put on and take off, suitable for a variety of occasions. 8. Community interaction and motivation: Users can join a fitness community through the app to share their training results and experiences with other users. Participate in challenges, check-ins, and other activities to earn points and rewards, boosting their motivation. 9. Real-time monitoring of user physiological indicators and connection to the mobile app via Bluetooth or Wi-Fi enable data synchronization, remote monitoring, and the integration of big data and AI technology. 10. Suitable for home fitness, rehabilitation institutions, sports team training, and office worker wellness. As a smart garment that integrates fitness, rehabilitation, and health management, it brings users a brand new fitness experience.

[0071] Example 2:

[0072] like Figure 8 As shown, the difference between the second embodiment and the first embodiment is that the clothing body 100 is changed to have pants, and the pants and the clothing are electrically connected through buckles. The rest is the same as the first embodiment.

[0073] Example 3:

[0074] like Figure 9 As shown, the difference between the third embodiment and the second embodiment is that the pants and the top are connected together into a one-piece suit; the rest is the same as the third embodiment:

[0075] Example 4:

[0076] like Figure 10As shown, the difference between the fourth embodiment and the first embodiment is that the garment body 100 is changed into underwear; the rest is the same as the first embodiment.

[0077] From the products of Example 1 to Example 4, the products of the present invention fully possess the beneficial effects described in the content of the invention.

[0078] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein, and these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. An EMS smart clothing, characterized in that: include: The clothing body is made of elastic fabric and has an embedded deformable memory alloy skeleton; The electrode module comprises a plurality of flexible electrode sheets; the flexible electrode sheets comprise a substrate and an electrical layer; The sensor module includes an electromyographic sensor, an inertial measurement unit, a physiological sensor, a pressure sensor, a temperature sensor, and a humidity sensor. The electromyographic sensor, the inertial measurement unit, the physiological sensor, and the pressure sensor are used to collect the user's physiological data and movement posture in real time. A control module, comprising a control center, a signal generator, and a temperature control circuit; the control module is electrically connected to the electrode module and the sensor module, and has a built-in signal generator and an adaptive algorithm for dynamically adjusting electrical stimulation parameters based on sensor data; the control center comprises a processor, a signal processing unit, a mode switching unit, and a parameter adjustment unit; Power module, which includes: battery pack, power management, power supply for each module, and supports wireless charging function; Communication module, supporting Bluetooth, Wi-Fi and 5G protocols, to achieve data interaction with mobile terminals or cloud servers; Silver fiber wire, wherein the silver fiber wire is conductive; The magnetic buckle comprises a plurality of magnetic buckles, and the magnetic buckle is provided with a female magnetic buckle head and a male magnetic buckle head; the female magnetic buckle head and the male magnetic buckle head are magnetically attracted together to conduct current; A control box, which is the housing of the modules and components and serves as a controller; The sensor module is detachably mounted on the chest of the garment body; the control module, power module, and communication module are integrated into one through a circuit board and installed in a control box; the control box is detachably mounted on the shoulder of the garment body; the magnetic buckle female head, communication module, power module, and control module are electrically connected; the sensor module and magnetic buckle female head are electrically connected to the control module through a silver fiber line.

2. The EMS smart clothing according to claim 1, characterized in that: The base of the flexible electrode sheet is made of a silicone sheet, the surface of which is covered with a biocompatible gel layer, and the electrode shape is rectangular; the electrical layer of the flexible electrode sheet is made of graphene conductive material.

3. The EMS smart clothing according to claim 1, characterized in that: The female magnetic buckle and the silver fiber line are built into the clothing body, and there are multiple female magnetic buckle heads; the male magnetic buckle head is installed on the flexible electrode sheet, and the flexible electrode sheet is magnetically attracted to the female magnetic buckle head through the male magnetic buckle head.

4. The EMS smart clothing according to claim 1, characterized in that: The flexible electrode sheets are distributed in an array, covering the core muscle groups of the trunk, large muscle groups of the limbs and specific acupuncture points, and each flexible electrode sheet is independently controllable, supporting a multi-channel regional stimulation mode.

5. The EMS smart clothing according to claim 1, characterized in that: The processor is used to process sensor data in real time, dynamically adjust electrical stimulation parameters, and coordinate the operation of various modules to realize intelligent muscle stimulation and movement assistance functions; the signal processing unit is used to filter and extract features from sensor data; the mode selection unit is used to provide switching functions among training mode, rehabilitation mode, and daily health care mode; and the parameter adjustment unit is used to dynamically adjust the pulse frequency, pulse width, and current intensity according to the muscle activation threshold.

6. The EMS smart clothing according to claim 1, characterized in that: The temperature sensor is used to collect the temperature of the environment; the humidity sensor is used to collect the humidity of the environment; the control module starts the high-frequency electric pulse stimulation function of the flexible electrode sheet according to the temperature and humidity data of the environment.

7. The EMS smart clothing according to claim 1, characterized in that: The deformable memory alloy skeleton is provided with a skeleton temperature sensor, and the deformable memory alloy skeleton can change the supporting stiffness of local clothing after receiving a control instruction, thereby assisting the user in correcting exercise posture.

8. The control method of EMS smart clothing according to claim 2, characterized in that: The substrate of the flexible electrode sheet may be replaced by a silver fiber sheet.

9. The control method of EMS smart clothing according to claim 1, characterized in that: The style of the clothing body is a sportswear style.

10. The EMS smart clothing according to claim 9, characterized in that: The style of the garment body can be changed to a close-fitting underwear style.

Images