Diabetes metabolic clothes vibration magnetic module control system and method

Abstract

The application discloses a kind of diabetes metabolism clothes vibration magnetic module control system and method, applied to diabetes metabolism clothes, the diabetes metabolism clothes includes body suit and be arranged on its vertebral muscle group vibration module, waist muscle group vibration module, abdominal muscle group vibration module, period door hole vibration magnetic module, also include control terminal;Wherein, the control terminal includes control unit, and with the parameter acquisition unit of control unit electric connection, module drive unit, state monitoring unit, man-machine interaction unit, data storage unit, fault early warning protection unit.The present application is by setting control unit and built-in standard physiotherapy parameter model, and according to the user heart rate of parameter acquisition unit collection, physiological parameters such as body temperature realize the automatic adaptation of vibration and vibration magnetic parameters, break the limitation of existing fixed parameter drive, adapt the individual difference of different users, substantially improve the pertinence and effectiveness of physiotherapy.

Description

Technical Field

[0001] This invention relates to the field of diabetes physiotherapy equipment technology, and more specifically, to a control system and method for a diabetic metabolic clothing vibrating magnetic module. Background Technology

[0002] Diabetes mellitus, a prevalent chronic metabolic disease worldwide, is primarily treated with medication, diet, and exercise. Non-pharmacological physiotherapy devices, due to their non-invasive and convenient advantages, have become an important direction for adjuvant blood sugar control. Diabetic metabolic garments are one such innovative physiotherapy device. Through the synergistic action of vibration modules targeting the spinal skeletal muscles, lumbar muscles, and abdominal muscles, as well as a magnetic vibration module targeting the Qimen acupoint, they provide low-frequency and mid-frequency vibrational magnetic therapy to the muscles and acupoints. This achieves the effect of passively consuming muscle glycogen and reducing the metabolic burden on the liver and pancreas. Compared to traditional magnetic therapy belts and heat therapy devices, its treatment areas are more comprehensive, and its mechanism of action is more aligned with the metabolic pathology of diabetes, demonstrating good application potential in clinical adjuvant therapy. However, the existing control components of diabetic metabolic garments are only basic, simple control modules, capable only of starting and stopping each module and adjusting a fixed frequency. They lack professional and intelligent design tailored to the actual usage needs of physiotherapy devices. The lack of core control functions significantly reduces the therapeutic effect and user experience, failing to fully realize the therapeutic advantages of metabolic garments and failing to meet the long-term, safe physiotherapy needs of diabetic patients.

[0003] The technical deficiencies of existing diabetes metabolic garment control components have become a core bottleneck restricting their industrial application and improving therapeutic effects. However, existing devices mostly use fixed or limited preset parameters to drive all users, ignoring real-time differences in individual users' physiological states such as heart rate, basal body temperature, and body size (e.g., BMI). This leads to two major problems: First, the therapeutic parameters do not match the user's real-time state. For example, users with a faster heart rate may experience discomfort due to vibrations of a fixed intensity, while users with a lower metabolic rate may feel insufficient stimulation, affecting the therapeutic effect. Second, the lack of real-time monitoring and closed-loop control of the working status of each independent vibration module poses a risk of local overheating or failure, resulting in insufficient safety and reliability.

[0004] No effective solutions have yet been proposed to address the problems in the relevant technologies. Summary of the Invention

[0005] In response to the problems in related technologies, this invention proposes a control system and method for a diabetic metabolic garment vibratory magnetic module to overcome the aforementioned technical problems existing in the prior art.

[0006] The technical solution of this invention is implemented as follows:

[0007] One aspect of the present invention:

[0008] A vibration and magnetic module control system for a diabetic metabolic garment includes a formwork garment for use with the diabetic metabolic garment, the formwork garment including a formwork garment and a vibration module for the spinal skeletal muscle group, a vibration module for the lumbar muscle group, a vibration module for the abdominal muscle group, and a vibration and magnetic module for the Qimen acupoint disposed thereon, and also includes a control terminal.

[0009] The control terminal includes a control unit, and a parameter acquisition unit, a module driving unit, a status monitoring unit, a human-machine interaction unit, a data storage unit, and a fault early warning and protection unit electrically connected to the control unit.

[0010] The control unit is used to build a preset standard physiotherapy parameter model, and to receive and process signals from each unit, and output drive control commands and early warning protection commands.

[0011] The parameter acquisition unit is used to collect the user's physiological parameters and the fitting parameters of each module, and transmit the collected signals to the control unit.

[0012] The module drive unit includes a low-frequency vibration drive module and a medium-frequency magnetic vibration drive module, which are electrically connected to each module respectively, and are used to adjust the vibration frequency, magnetic field strength and drive power.

[0013] The status monitoring unit is used to collect the operating status parameters of each module in real time and transmit the monitoring signals to the control unit for real-time monitoring of the operating status.

[0014] The human-computer interaction unit is used to realize user command input, visualization of physiotherapy parameters, and prompting of early warning information;

[0015] The data storage unit is used to store user-related data, physiotherapy parameters, operating status data of each module, and fault records, and to trace and retrieve the data.

[0016] The fault warning and protection unit is used to receive fault judgment instructions from the control unit, and to provide audible and visual warnings and emergency shutdown protection for each module.

[0017] Furthermore, the parameter acquisition unit includes: a heart rate detection module, a body temperature detection module, and a contact pressure detection module; wherein; the heart rate detection module and the body temperature detection module are patch sensors, configured at the chest position of the tight-fitting garment, and are used to collect the user's real-time heart rate and body surface temperature, respectively; the contact pressure detection module is a thin-film pressure sensor, configured at the contact position between each module and the human body, and is used to collect the contact pressure value between each module and the human body, and to determine whether the module is in close contact with the human body.

[0018] Furthermore, the low-frequency vibration drive module has a built-in PWM frequency conversion drive circuit for electrical connection with the spinal skeletal muscle group vibration module, the lumbar muscle group vibration module, and the abdominal muscle group vibration module, so as to realize stepless adjustment of the low-frequency vibration frequency within a set range.

[0019] Furthermore, the intermediate frequency magnetic drive module integrates a frequency conversion drive circuit and a constant current magnetic field adjustment circuit, which are used to electrically connect with the Qimen acupoint magnetic drive module to realize stepless adjustment of the intermediate frequency magnetic drive frequency and the constant current magnetic field strength within a set range.

[0020] Furthermore, the status monitoring unit includes a motor speed monitoring module, a magnetic field strength monitoring module, a current and voltage monitoring module, and a temperature monitoring module;

[0021] The motor speed monitoring module is a Hall speed sensor, used to collect the real-time speed of the motor and convert it into actual vibration and magnetic frequency.

[0022] The magnetic field strength monitoring module is a gaussmeter, used to collect real-time magnetic field strength;

[0023] The current and voltage monitoring module is a current and voltage sensor used to collect the operating current and voltage of each module;

[0024] The temperature monitoring module is an NTC thermistor, used to collect the module's operating temperature.

[0025] Furthermore, the fault early warning protection unit includes an audible and visual early warning module and an electronic switch module; wherein, the audible and visual early warning module includes a buzzer and an LED warning light, used to output buzzers of different frequencies and flashing lights of different colors according to the fault judgment command of the control unit, so as to realize early warning by distinguishing fault levels; the electronic switch module is used to realize emergency shutdown or power reduction protection of the corresponding module according to the command of the control unit.

[0026] Another aspect of the present invention:

[0027] A control method for a vibrating magnetic module of a diabetic metabolic garment, used in the control method of the aforementioned vibrating magnetic module control system for diabetic metabolic garments, includes the following steps:

[0028] The user inputs basic information in advance through the human-computer interaction unit, and its control unit loads the standard physiotherapy parameter model;

[0029] The data acquisition unit collects the user's real-time physiological parameters and the contact pressure values ​​of each module, and transmits the collected signals to the control unit;

[0030] The control unit inputs the collected physiological parameters into the standard physiotherapy parameter model, matches the corresponding vibration and magnetic vibration parameters and physiotherapy duration, outputs drive control commands to the module drive unit, and at the same time determines whether the module is in place based on the bonding pressure value. If it is not in place, it prompts the user through the human-machine interaction unit.

[0031] The module drive unit receives drive control commands and uses a gradient frequency ramping method to drive each module to start up to the target parameters. The spinal skeletal muscle group vibration module, the lumbar muscle group vibration module and the abdominal muscle group vibration module are driven by the low-frequency vibration drive module, and the Qimen acupoint magnetic vibration module is driven by the medium-frequency magnetic vibration drive module.

[0032] The status monitoring unit collects the operating status parameters of each module in real time and transmits the monitoring signals to the control unit. The control unit compares the actual operating parameters with the target parameters, and outputs a calibration command if there is a deviation.

[0033] The data storage unit synchronously records the user's physiological parameters, physiotherapy parameters, and real-time operating status parameters of the module, and stores them according to timestamps;

[0034] Once the desired treatment duration is reached, the control unit outputs a gradient frequency reduction command to the module drive unit. Each module gradually reduces its frequency until it stops. The system records the complete data of this treatment and returns to standby mode.

[0035] The process also includes the following steps: the control unit compares the monitoring data with the preset fault threshold range, and if the data exceeds the threshold, it is determined to be a fault. Based on the fault level, the control unit outputs instructions to the fault warning and protection unit to realize audible and visual warnings and corresponding shutdown and power reduction protection.

[0036] The beneficial effects of this invention are:

[0037] This invention, by setting up a control unit and incorporating a standard physiotherapy parameter model, and automatically adapting vibration and magnetic field parameters based on user heart rate and body temperature physiological parameters collected by the parameter acquisition unit, breaks through the limitations of existing fixed parameter drives, adapts to individual differences among different users, and significantly improves the pertinence and effectiveness of physiotherapy. Furthermore, the built-in status monitoring unit enables real-time monitoring of motor speed, magnetic field strength, current, voltage, and operating temperature of each module. Simultaneously, parameter calibration is achieved through the control unit, ensuring that each module operates accurately according to target parameters, solving the problem of parameter deviation and lack of calibration in existing equipment. The module drive unit supports flexible drive with gradient frequency increase and decrease, avoiding physical discomfort caused by sudden start / stop and frequency changes, while improving vibration wave transmission efficiency and further enhancing the physiotherapy effect.

[0038] In addition, the fault early warning protection unit of this invention can realize fault level differentiation early warning and corresponding shutdown and power reduction protection, which solves the problem of existing equipment having no safety protection and no fault early warning, and greatly improves the safety of equipment use; the data storage unit can realize full storage and traceability of user physiological parameters, physiotherapy parameters and module operating status data, providing data support for the formulation of subsequent personalized physiotherapy plans and equipment maintenance. The overall system has high stability, high control precision, controllable cost, and is easy to industrialize, promote and integrate. Attached Figure Description

[0039] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0040] Figure 1 This is a schematic diagram of the structure of a diabetic metabolic clothing vibration magnetic module control system according to an embodiment of the present invention;

[0041] Figure 2 This is a schematic diagram of the principle of a diabetic metabolic clothing vibration magnetic module control system according to an embodiment of the present invention;

[0042] Figure 3 This is a flowchart illustrating a method for controlling a vibrating magnetic module in a diabetic metabolic garment according to an embodiment of the present invention. Detailed Implementation

[0043] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention are within the scope of protection of the present invention.

[0044] Example 1

[0045] According to an embodiment of the present invention, a control system for a diabetic metabolic garment vibratory magnetic module is provided.

[0046] like Figures 1-2As shown, the vibration and magnetic module control system for the diabetic metabolic garment according to an embodiment of the present invention is applied to the diabetic metabolic garment. The diabetic metabolic garment includes a tight-fitting garment 1 and vibration modules for the spinal skeletal muscle group, waist muscle group, abdominal muscle group, and Qimen acupoint, which are disposed thereon. The cell resonator structure of each module adopts an existing mature structure: the first cell resonator is a wave-shaped shell equipped with a first vibration motor, the second cell resonator is a circular shell equipped with a second vibration motor and a DC electromagnet, and the third and fourth cell resonators are square shells equipped with a third vibration motor.

[0047] This technical solution provides a control system for a diabetic metabolic garment's magnetic vibration module, including a control unit, and a parameter acquisition unit, a module drive unit, a status monitoring unit, a human-machine interaction unit, a data storage unit, and a fault early warning and protection unit electrically connected to the control unit. The specific configuration is as follows:

[0048] The control unit uses an STM32F407 embedded microcontroller, which has a built-in standard physiotherapy parameter model. This model is built based on clinical diabetes physiotherapy data and presets two threshold ranges for heart rate: 60~80bpm and 80~100bpm. These ranges correspond to different vibration / magnetic parameters. The microcontroller has a main frequency of 168MHz and has high-speed data processing and multi-channel signal acquisition capabilities, making it the main control core of the control system.

[0049] Specifically, in the implementation process, the standard physiotherapy parameter model establishes a mapping relationship between the user's real-time physiological parameters and the optimal physiotherapy parameters. It dynamically matches differentiated module drive frequencies based on real-time collected heart rate (HR) and body temperature (T). For example, when HR ∈ [60, 80) bpm and T ∈ [36.0, 37.0) °C, the fundamental frequency Fv is matched to the target vibration module. base =6.5Hz, which is the fundamental frequency Fm matched to the target magneto-resonance module. base =80Hz. When HR∈[80,100)bpm, the system will apply an attenuation coefficient K1, with a value of 0.85, to the above fundamental frequency, that is, the actual output frequency Fv=Fv base *K1 is used to adjust for user tolerance when heart rate increases. Simultaneously, BMI is used as a correction factor, meaning the user's BMI information is entered during initialization. For users with a BMI > 24, the system applies an enhancement coefficient K2, with a value of 1.15, to the magnetic field strength to overcome the attenuation effect of adipose tissue on the magnetic field.

[0050] The parameter acquisition unit includes a heart rate detection module, a body temperature detection module, and a contact pressure detection module. The heart rate detection module is a patch-type PPG heart rate sensor, and the body temperature detection module is a patch-type NTC thermistor sensor, both of which are configured at the chest position of the tight-fitting garment 1. The contact pressure detection module consists of 5 thin-film pressure sensors, which are respectively configured at the contact positions between the four modules and the human body to determine whether the modules are in close contact with the human body.

[0051] The module drive unit includes a low-frequency vibration drive module and a medium-frequency magnetic vibration drive module. The low-frequency vibration drive module adopts a PWM frequency conversion drive circuit and is electrically connected to the three vibration modules, enabling stepless adjustment of the low-frequency vibration frequency from 1.8Hz to 8.2Hz. The medium-frequency magnetic vibration drive module integrates a PWM frequency conversion drive circuit and a constant current magnetic field adjustment circuit, and is electrically connected to the Qimenxue magnetic vibration module, enabling stepless adjustment of the medium-frequency magnetic vibration frequency from 43Hz to 110Hz and the constant current magnetic field strength from 150Gs to 400Gs.

[0052] The status monitoring unit includes a motor speed monitoring module, a magnetic field strength monitoring module, a current and voltage monitoring module, and a temperature monitoring module. The motor speed monitoring module is a Hall effect speed sensor, corresponding to the vibration motor of each module. The magnetic field strength monitoring module is a portable gaussmeter, located in the flux configuration cavity of the Qimenxue vibration module. The current and voltage monitoring module consists of an ACS712 current sensor and a voltage divider sensor, connected in series in the power supply circuit of each module. The temperature monitoring module is an NTC thermistor, located inside the housing of each module.

[0053] The human-computer interaction unit includes a 2.4-inch touch screen; the touch screen is a TFT LCD screen used to display various parameters and warning information;

[0054] Specifically, the human-computer interaction unit also includes a Bluetooth communication module for wireless communication with a mobile APP, enabling remote parameter adjustment and data viewing;

[0055] The data storage unit uses a 32G SD card storage module to store basic user information, historical physiological parameters, physiotherapy parameters, module operating status data, and fault records, and supports retrieval by timestamp;

[0056] The fault warning and protection unit includes an audible and visual warning module and an electronic switch module. The audible and visual warning module consists of a buzzer and red, yellow and green LED warning lights, which can output buzzers and flashing lights at different frequencies. The electronic switch module is a MOSFET electronic switch connected in series in the power supply circuit of each module, which can realize rapid switching.

[0057] According to an embodiment of the present invention, a method for controlling a vibrating magnetic module in a diabetic metabolic garment is provided.

[0058] like Figure 2As shown, the method for controlling the magnetic resonance module of the diabetic metabolic garment according to an embodiment of the present invention includes the following specific steps:

[0059] Step S1: The user inputs basic information such as age and weight in advance through the touch screen of the human-computer interaction unit. The control unit loads the standard physiotherapy parameter model, and the system enters standby mode.

[0060] In step S2, each sensor in the parameter acquisition unit synchronously acquires the user's heart rate, body temperature, and the contact pressure value of each module. All acquired signals are transmitted to the control unit after analog-to-digital conversion.

[0061] In step S3, the control unit inputs the collected heart rate into the standard physiotherapy parameter model and matches the corresponding physiotherapy parameters: vibration module frequency 6.5Hz, magnetic vibration module frequency 80Hz, magnetic field strength 300Gs, and physiotherapy duration 1.5h. It then outputs drive control commands to the module drive unit 3. Simultaneously, it determines the contact pressure value. If the pressure value of a certain module is <10kPa, the system prompts the user to adjust the module position via the touchscreen display. If the user has personalized needs, they can manually adjust the physiotherapy parameters via the touchscreen display; the system prioritizes manual commands.

[0062] In step S4, the module drive unit receives the drive control command and drives each module to start using a gradient frequency ramping method. The frequency ramps from the initial 2Hz vibration / 43Hz magnetic vibration at a rate of 0.3Hz / s to the target parameters. The three vibration modules are synchronously driven by the low-frequency vibration drive module, and the Qimen acupoint magnetic vibration module is driven by the medium-frequency magnetic vibration drive module. Each module operates collaboratively according to the matching parameters.

[0063] Step S5: The sensors of the status monitoring unit collect the motor speed, magnetic field strength, operating current / voltage, and operating temperature of each module in real time, and transmit the monitoring signals to the control unit. The control unit compares the actual operating parameters with the target parameters. If the actual magnetic field strength of the vibrating magnetic module is 290Gs, it outputs a calibration command to the medium frequency vibrating magnetic drive module to adjust the magnetic field strength to 300Gs, thereby achieving parameter adjustment.

[0064] Step S6: The data storage unit synchronously records the user's physiological parameters, physiotherapy parameters, and real-time operating status parameters of the module at a frequency of 10 seconds / time, and stores them to the SD card according to the timestamp.

[0065] In step S7, the control unit compares the monitoring data with the preset fault threshold. If the operating temperature of a vibration module rises to 46°C, it is determined to be a moderate fault. The control unit outputs a command to the fault warning and protection unit. The audible and visual warning module outputs a medium-frequency buzzer and a flashing orange light. The control unit outputs a protection command to reduce power by 30%. If the magnetic field strength deviation of the vibrating module reaches ±35Gs, it is determined to be a serious fault. The audible and visual warning module outputs a high-frequency buzzer and a flashing red light. The electronic switch module disconnects the power supply circuit of the vibrating module to achieve emergency shutdown.

[0066] In step S8, after the physiotherapy duration of 1.5 hours is reached, the control unit outputs a gradient frequency reduction command to the module drive unit. Each module gradually reduces its frequency at a rate of 0.3 Hz / s until it stops. The system records the complete data of this physiotherapy session, the LED warning light turns green, and the system returns to standby mode. The user can view the data of this physiotherapy session.

[0067] Example 2

[0068] According to an embodiment of the present invention, a practical clinical application test of the above-mentioned diabetic metabolic garment vibratory magnetic module control system and method is provided. The test subjects are diabetic patients of different ages and genders. The test cycle is divided into 15-time use cycle and 30-time use cycle. During the test, the diabetic metabolic garment vibratory magnetic module control system and method of the present invention are used for physiotherapy. The fasting blood glucose value before use, the change value of fasting blood glucose during use, and the fasting blood glucose value after use are recorded. The blood glucose reduction rate is calculated to verify the actual physiotherapy effect of the system and method.

[0069] The implementation results of this technical solution are as follows:

[0070] Specifically, the basic testing conditions involved a diabetic metabolic garment equipped with the vibration and magnetic module control system of this invention. The system underwent parameter adaptation, module driving, status monitoring, and fault protection as described above. The default physiotherapy parameter matching rules were: a heart rate of 60-80 bpm matched with a vibration frequency of 6.5 Hz, a magnetic vibration frequency of 80 Hz, and a magnetic field strength of 300 Gs, with a treatment duration of 1.5 hours per session; a heart rate of 80-100 bpm matched with a vibration frequency of 5.5 Hz, a magnetic vibration frequency of 68 Hz, and a magnetic field strength of 255 Gs, with a treatment duration of 1.5 hours per session. Users were allowed to make minor adjustments based on their own tolerance. Simultaneously, all blood glucose data were the patient's fasting blood glucose test values ​​from the morning. The formula for calculating the blood glucose reduction rate was: The test subjects were aged 40-72 years, with both men and women. The patients' basic medications included metformin monotherapy, metformin + insulin, gliclazide, rosiglitazone, etc., covering common clinical medication regimens for diabetes.

[0071] Specifically, the results of the 15-cycle test (i.e., 15 consecutive daily uses for a total of 15 days) were obtained from 21 participants. The specific changes in blood glucose and the blood glucose reduction rate are shown in Table 1 below:

[0072] Table 1 Test Parameter Reference Table

[0073] Experiencer age gender Basic medication Pre-use blood glucose (mmol / L) Post-use blood glucose (mmol / L) Blood sugar reduction rate Yuan* 45 male Metformin 8.2 6.6 19.51% Gao Yu 48 male Metformin + Insulin 18.5 13.2 28.65% tour* / male none 17.8 11.2 37.08% Qiu*li 48 female Rosiglitazone 9.2 7.1 22.83% Ginger* 70 female Grechte 9.8 7.2 26.53% plum* / female Metformin 14.0 9.6 31.43% Zhang Yan 40 male Metformin 11.1 8.7 21.62% Tang* / female none 9.7 6.8 29.90% Luo* 63 female Grechte 14.4 9.2 36.11% Cao Pei 52 male Metformin 13.5 8.3 38.52% Remain* 54 male Metformin 9.5 7.6 20.00% Zhang*di 68 male Metformin 17.1 10.1 40.94% Fang*wen 50 male Metformin 10.9 8.3 23.85% Wu*liang 66 male Metformin 14.9 8.1 45.64% Huang*chang 71 male Metformin + Insulin 16.3 7.5 53.99% Chen*hua 70 male Metformin 10.3 8.1 21.36% Zhang Hong 72 male Metformin + Insulin 15.1 7.2 52.32% Wang Lun 48 male Metformin + Insulin 13.4 9.4 29.85% Li*li 60 female Metformin + Insulin 14.5 9.5 34.48% Liu*xiang 71 female Metformin 11.6 6.3 45.69%

[0074] As shown in Table 1, after 15 consecutive uses, all test subjects experienced a decrease in fasting blood glucose, with a blood glucose reduction rate ranging from 19.51% to 53.99%. Among them, 4 patients achieved a blood glucose reduction rate of over 40%, all of whom had high initial blood glucose levels ≥14.9 mmol / L or were using combination therapy. Even patients with low initial blood glucose levels achieved a blood glucose reduction effect of over 19.51%, indicating that this system and method have an auxiliary blood glucose reduction effect on diabetic patients with different initial blood glucose levels.

[0075] Specifically, the results of the 30-cycle test (meaning 30 consecutive days of use, with 10 participants) are shown in Table 2.

[0076] Table 2 Test Parameter Reference Table

[0077] Experiencer age gender Basic medication Pre-use blood glucose (mmol / L) Post-use blood glucose (mmol / L) Blood sugar reduction rate Zhu Gui 71 male Metformin 14.7 7.6 48.30% Yang*liang 52 male Metformin + Insulin 16.1 10.4 35.40% Liu*lian 55 female Metformin + Insulin 14.5 7.4 48.97% Li*hua 57 female Metformin + Insulin 13.9 7.2 48.20% Yang*yu 58 female Grechte 9.9 6.8 31.31% James* / female Metformin 12.7 8.3 34.65% Xiong Jin 46 male Metformin 9.2 6.8 26.09% king* / female none 14.2 8.2 42.25% Lin*ping 70 male Metformin 13.1 9.3 29.01% Zhang*ping 44 female Metformin + Insulin 16.9 7.8 53.85%

[0078] As shown in Table 2, after 30 consecutive uses, all test subjects showed a significant downward trend in fasting blood glucose, with a blood glucose reduction rate ranging from 26.09% to 53.85%. Among them, patients using metformin + insulin showed more significant blood glucose reduction, with a blood glucose reduction rate of over 35%, reaching a maximum of 53.85%. Patients without basic medication or using single-drug therapy also achieved effective blood glucose reduction, verifying the effectiveness of this system and method as an adjunct physical therapy for diabetic patients with different medication regimens.

[0079] Using the above-mentioned scheme, in this clinical application test, the diabetic metabolic garment equipped with the magnetic resonance module control system of this invention showed a stable and continuous downward trend in fasting blood glucose levels in all test subjects after 15 and 30 consecutive cycles of use. The overall blood glucose reduction rate ranged from 19.51% to 53.99%. Furthermore, during use, the system, through its functions of automatic physiological parameter adaptation, real-time monitoring of module operation status, and fault warning protection, did not experience any equipment malfunctions or patient discomfort. This verifies that the magnetic resonance module control system and method for the diabetic metabolic garment of this invention possess the following practical application value:

[0080] This invention can effectively lower blood sugar in diabetic patients and is applicable to patients of different ages, genders, initial blood glucose levels, and basic medication regimens. The system's fault warning protection and flexible gradient frequency increase / decrease drive design ensure the safety of equipment operation and patient use. The automatic parameter adaptation function based on the user's heart rate and body temperature can meet the individual differences of different patients and improve the pertinence and acceptance of physiotherapy.

[0081] The test results of this embodiment fully demonstrate that the diabetic metabolic garment vibration magnetic module control system and method of the present invention can effectively make up for the technical defects of existing diabetic metabolic garment control components, greatly improve the physiotherapy effect and user experience of the metabolic garment, meet the long-term and safe auxiliary physiotherapy needs of diabetic patients, and have good clinical application and industrial promotion value.

[0082] It should be noted that the control system of the diabetic metabolic garment's magnetic vibration module adopts a modular design. Each unit uses mature commercial components, which have high control accuracy, strong stability, and controllable cost. It is easy to integrate and modify with existing diabetic metabolic garments. At the same time, the parameter thresholds and module configurations can be flexibly adjusted according to actual needs, which has good industrialization and industrial application value.

[0083] Furthermore, the control system of this invention is not only applicable to the vibration / magnetic module control of diabetic metabolic garments, but can also be extended to the field of multi-module vibration and magnetic therapy control of other physiotherapy equipment, and has broad application prospects.

[0084] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Those skilled in the art, upon considering the disclosure in the specification and embodiments, will readily conceive of other embodiments of this disclosure. This application is intended to cover any variations, uses, or adaptations of this disclosure that follow the general principles of this disclosure and include common knowledge or customary techniques in the art not disclosed herein. The specification and embodiments are to be considered exemplary only, and the true scope and spirit of this disclosure are indicated by the claims.

[0085] It should be understood that this disclosure is not limited to the precise structures described above and shown in the accompanying drawings, and various modifications and changes can be made without departing from its scope. The scope of this disclosure is limited only by the appended claims.

Claims

1. A vibration and magnetic module control system for a diabetic metabolic garment, applied to a diabetic metabolic garment, the diabetic metabolic garment comprising a tight-fitting garment (1) and a vibration module for the spinal skeletal muscle group, a vibration module for the lumbar muscle group, a vibration module for the abdominal muscle group, and a vibration and magnetic module for the Qimen acupoint disposed thereon, characterized in that: It also includes a control terminal (2); The control terminal (2) includes a control unit, and a parameter acquisition unit, a module driving unit, a status monitoring unit, a human-machine interaction unit, a data storage unit, and a fault early warning and protection unit that are electrically connected to the control unit. The control unit is used to build a preset standard physiotherapy parameter model, and to receive and process signals from each unit, and output drive control commands and early warning protection commands. The parameter acquisition unit is used to collect the user's physiological parameters and the fitting parameters of each module, and transmit the collected signals to the control unit. The module drive unit includes a low-frequency vibration drive module and a medium-frequency magnetic vibration drive module, which are electrically connected to each module respectively, and are used to adjust the vibration frequency, magnetic field strength and drive power. The status monitoring unit is used to collect the operating status parameters of each module in real time and transmit the monitoring signals to the control unit for real-time monitoring of the operating status. The control unit has a built-in standard physiotherapy parameter model, which is used to dynamically match and output differentiated target frequencies and target magnetic field strengths for each vibration module and magnetic field module based on the user's heart rate and body temperature collected in real time by the parameter acquisition unit and combined with the user's body mass index (BMI). The control unit is also used to perform real-time closed-loop calibration of the operating parameters of each module based on the feedback data from the status monitoring unit, and to activate the power reduction protection program for any module when the temperature of any module exceeds the first threshold. The module driving unit is used to drive each module to its corresponding target parameters in a gradient frequency up / down manner. The status monitoring unit is used to monitor the temperature and working magnetic field strength of each module in real time; The human-computer interaction unit is used to realize user command input, visualization of physiotherapy parameters, and prompting of early warning information; The data storage unit is used to store user-related data, physiotherapy parameters, operating status data of each module, and fault records, and to trace and retrieve the data. The fault warning and protection unit is used to receive fault judgment instructions from the control unit, and to provide audible and visual warnings and emergency shutdown protection for each module.

2. The diabetic metabolic clothing vibration magnetic module control system according to claim 1, characterized in that, The parameter acquisition unit includes: a heart rate detection module, a body temperature detection module, and a contact pressure detection module; wherein: the heart rate detection module and the body temperature detection module are patch sensors, configured on the chest of the tight-fitting garment (1), and are used to collect the user's real-time heart rate and body surface temperature respectively; the contact pressure detection module is a thin film pressure sensor, configured at the contact position between each module and the human body, and is used to collect the contact pressure value between each module and the human body, and to determine whether the module is in close contact with the human body.

3. The diabetic metabolic clothing vibration magnetic module control system according to claim 1, characterized in that, The low-frequency vibration drive module has a built-in PWM frequency conversion drive circuit, which is used to electrically connect with the spinal skeletal muscle group vibration module, the lumbar muscle group vibration module, and the abdominal muscle group vibration module to achieve stepless adjustment of the low-frequency vibration frequency within a set range.

4. The diabetic metabolic clothing vibration magnetic module control system according to claim 3, characterized in that, The intermediate frequency magnetic drive module integrates a frequency conversion drive circuit and a constant current magnetic field adjustment circuit, which are used to electrically connect with the Qimen acupoint magnetic drive module to realize stepless adjustment of the intermediate frequency magnetic drive frequency and the constant current magnetic field strength within a set range.

5. The diabetic metabolic clothing vibration magnetic module control system according to claim 1, characterized in that, The status monitoring unit includes a motor speed monitoring module, a magnetic field strength monitoring module, a current and voltage monitoring module, and a temperature monitoring module; The motor speed monitoring module is a Hall speed sensor, used to collect the real-time speed of the motor and convert it into actual vibration and magnetic frequency. The magnetic field strength monitoring module is a gaussmeter, used to collect real-time magnetic field strength; The current and voltage monitoring module is a current and voltage sensor used to collect the operating current and voltage of each module; The temperature monitoring module is an NTC thermistor, used to collect the module's operating temperature.

6. The diabetic metabolic clothing vibration magnetic module control system according to claim 1, characterized in that, The fault early warning protection unit includes an audible and visual early warning module and an electronic switch module. The audible and visual early warning module includes a buzzer and an LED warning light, which are used to output buzzers of different frequencies and flashing lights of different colors according to the fault judgment command of the control unit, so as to realize the early warning of fault level differentiation. The electronic switch module is used to realize the emergency shutdown or power reduction protection of the corresponding module according to the command of the control unit.

7. A method for controlling a vibrating magnetic module in a diabetic metabolic garment, used in the control method of the vibrating magnetic module control system for the diabetic metabolic garment according to any one of claims 1-6, characterized in that, Includes the following steps: Real-time collection of user's heart rate, body temperature, and preset body mass index (BMI); Based on the standard physiotherapy parameter model, and according to the real-time collected physiological parameters, the system dynamically matches and generates differentiated target frequencies and target magnetic field strengths for each vibration module and magnetic vibration module. Each module is driven to achieve its target parameters by gradient frequency up / down. Real-time monitoring of the temperature and operating magnetic field strength of each module; Based on the monitoring results, the module's operating parameters are calibrated in real time using a closed-loop system. When the temperature of any module exceeds the first threshold, the module is controlled to perform a power reduction operation.

8. The method for controlling the vibratory magnetic module of the diabetic metabolic garment according to claim 7, characterized in that, It also includes the following steps: The control unit compares the monitored data with the preset fault threshold range. If the data exceeds the threshold, it is determined to be a fault. Based on the fault level, the control unit outputs instructions to the fault warning and protection unit to realize audible and visual warnings and corresponding shutdown and power reduction protection.

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