A height-increasing training device and method based on bioelectric meridian stimulation

Abstract

This invention discloses a height-increasing training device and method based on bioelectric meridian stimulation. The device includes an ultrasound module, a bioelectric detection module, a bioelectric stimulation module, a control module, a communication module, and a display module. The bioelectric detection module collects relevant bioelectric signals from the human foot and the contact state between the foot and the foot-mounted electrode pads. The bioelectric stimulation module outputs low-frequency electrical stimulation of 1.2mA-5.2mA through graded electrode pads. The control module processes the data and dynamically adjusts the parameters. The communication module enables local terminal synchronization and cloud upload and sharing of bioelectric detection data and training data. The training method completes the training through body positioning preparation, device initialization, contact / removal stimulation switching, real-time adjustment, and data processing. This invention constructs a closed loop of "detection-analysis-stimulation-feedback," achieving synergy between bioelectric detection and stimulation, combined with targeted ultrasound regulation, to enhance the height-increasing auxiliary effect and adapt to the needs of users of different ages from adolescents to young adults.

Description

Technical Field

[0001] This invention relates to the field of height-increasing training methods, specifically to a height-increasing training device and method based on bioelectric meridian stimulation. Background Technology

[0002] Height development is an important physiological characteristic in the human growth process, influenced by multiple factors such as heredity, nutrition, hormone secretion, and exercise. Among these, growth hormone secreted by the pituitary gland is the core element regulating height. With the improvement of living standards, the demand for height-increasing aids among teenagers and young adults is increasing, leading to the emergence of various height-increasing training devices. However, current technologies still have many limitations.

[0003] Currently, mainstream height-increasing devices are mainly divided into two categories: one is a simple mechanical exercise device (such as a jump rope or a stretcher), which stimulates bone growth through physical exercise; the other is a single bioelectric stimulation device, which can act on the meridians through electrical signals, but generally suffers from the problem of "separation of detection and stimulation"—it can only blindly output electrical stimulation of a fixed intensity, and cannot collect the user's bioelectric signals and body status data in real time, making it difficult to achieve personalized adaptation of stimulation parameters. This results in some users experiencing discomfort due to excessive stimulation intensity, or failing to achieve the expected effect due to insufficient intensity. Summary of the Invention

[0004] The purpose of this invention is to provide a height-increasing training device and method based on bioelectric meridian stimulation, so as to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a height-increasing training device based on bioelectric meridian stimulation, comprising: an ultrasound module, a bioelectric detection module, a bioelectric stimulation module, a control module, a communication module, and a display module; The ultrasonic module includes a rangefinder base, a bracket, and an ultrasonic sensor. The upper surface of the rangefinder base is provided with a foot area. The bracket is vertically fixed to one side of the upper surface of the rangefinder base. Hand grips are symmetrically arranged on both sides of the middle of the bracket. The ultrasonic sensor is fixed to the top area of ​​the bracket, with the detection direction vertically downward and located directly above the rangefinder base. The bioelectric detection module is electrically connected to the control module and is used to collect relevant bioelectric signals of the human foot and the contact status between the foot and the foot-step electrode plate. The bioelectric stimulation module includes foot-operated electrode pads, hand-held electrode pads, and a bioelectric transmitter. The foot-operated electrode pads are located in the foot-operated area of ​​the rangefinder base, and the hand-held electrode pads are located on the hand-held bar. Both are connected to the bioelectric transmitter. The control module is integrated inside the bracket and is electrically connected to the ultrasound module, bioelectric detection module, bioelectric stimulation module, communication module and display module respectively; The display module is embedded in the middle area of ​​the bracket.

[0006] Preferably, the effective center frequency of the ultrasound is a preset fixed value, which enables high-intensity focused ultrasound to regulate the growth hormone secretion-related functions of the pituitary gland.

[0007] Preferably, the bioelectric emitter can generate low-frequency electrical stimulation of 1.2mA-5.2mA, which is applied to the meridians of the corresponding parts of the human body through each electrode.

[0008] Preferably, the communication module includes a Bluetooth submodule and a Wi-Fi submodule, which respectively enable local terminal synchronization and cloud upload and sharing of bioelectric detection data and training data.

[0009] Preferably, the stimulation intensity of the bioelectric stimulation module is set in stages: the stimulation of the foot-operated electrode pads is divided into several levels, and the output is set according to the preset multi-level fixed values, corresponding to current intensities of 1.2mA-5.2mA. When the control module issues an intensity increase command, the stimulation intensity is instantly switched to the target level. The single cycle is a preset duration, and it is slowly adjusted in the order of "low intensity → high intensity → low intensity". The highest intensity lasts for a preset duration.

[0010] Preferably, the stimulation intensity of the hand-held electrode pads on the hand-held rod is divided into several levels, and the output is based on preset multi-level fixed values, corresponding to current intensities of 1.2mA-5.2mA. When the control module issues an intensity increase command, the stimulation intensity instantly switches to the target level. The single cycle is a preset duration, and it is slowly adjusted in the order of "low intensity → high intensity → low intensity", with the highest intensity lasting for a preset duration.

[0011] Preferably, the control module has a built-in training program that can preset training programs for different age groups from adolescence to youth. The program includes bioelectric stimulation intensity thresholds, cycle periods, and training duration parameters that match the age group, and supports personalized adjustments based on user tolerance data fed back by the bioelectric detection module.

[0012] This invention also provides a height-increasing training method based on bioelectric meridian stimulation, the training method comprising the following steps: Step 1: The user places both feet on the foot-feet area of ​​the rangefinder base, so that the skin of the feet simultaneously contacts the bioelectric detection module and the foot-feet electrode pads, and selects the appropriate training program through the display module or client. Step 2: The control module starts the ultrasound module and the bioelectric detection module. The bioelectric detection module begins to collect the bioelectric signals of the user's feet and the contact status of the heel in real time. At the same time, the bioelectric stimulation module is initialized to standby mode. The control module analyzes the collected initial bioelectric data and determines the initial stimulation intensity level based on the user's age group. Step 3: When the bioelectric detection module detects that the heel is in stable contact with the foot electrode and the bioelectric signal is within the normal range, the control module sends a command to the bioelectric transmitter to activate the stimulation channel of the foot electrode and emit bioelectric stimulation at the corresponding level. Hold the electrode and keep it in standby mode. At this time, the ultrasound module continuously outputs focused ultrasound at the center effective frequency as a preset fixed value to act on the pituitary gland. Step 4: When the bioelectric detection module detects that the heel leaves the foot electrode, the control module switches the stimulation channel within a preset time, starts the stimulation channel of the hand-held electrode, pauses the stimulation of the foot electrode, and emits bioelectric stimulation of the hand-held electrode according to the preset dynamic mode. Step 5: During the training process, the bioelectric detection module continuously collects the user's bioelectric data and contact status, the control module processes the feedback data in real time, dynamically adjusts the stimulation intensity based on the bioelectric characteristics, and displays the training progress, current stimulation intensity, bioelectric detection results, and cumulative training time through the display module. Step 6: After the preset training time is reached or the user manually terminates the training, the control module integrates the bioelectric detection data and training data to generate a training report, which is then synchronized to the local client or cloud server via the communication module, while displaying the incentive information.

[0013] Preferably, in steps 3 and 4, the channel switching response time of bioelectric stimulation is less than or equal to the preset response time. The control module ensures the synchronization between bioelectric stimulation and the user's tiptoeing movement state and bioelectric characteristics through real-time signal feedback from the bioelectric detection module.

[0014] Preferably, during training, the control module combines the tolerance data fed back by the bioelectric detection module with user operation feedback to dynamically adjust the stimulation intensity level; if the user actively reduces the stimulation intensity multiple times within a preset time, the control module automatically lowers the subsequent default intensity by one level; after a preset training cycle, the training parameters are automatically optimized based on historical bioelectric data and training effects to adapt to changes in the user's physiological state.

[0015] Compared with the prior art, the beneficial effects of the present invention are: This invention utilizes a bioelectric stimulation module to design differentiated intensity levels and trigger modes for different electrode pads. Several intensity levels are set for the foot-stepped electrode pads and several intensity levels are set for the hand-held electrode pads. All are slowly adjusted in a preset fixed cycle and in the order of "low intensity → high intensity → low intensity", corresponding to low-frequency electrical stimulation of 1.2mA-5.2mA. The ultrasound module targets the pituitary gland with a preset fixed center effective frequency, which not only meets the stimulation intensity requirements of the foot meridians, but also reduces muscle adaptation through dynamic stimulation of the hand. At the same time, combined with ultrasound targeted adjustment, it further enhances the height-increasing auxiliary effect. Attached Figure Description

[0016] Figure 1 A front view of the height-increasing training device based on bioelectric meridian stimulation provided by the present invention; Figure 2 Left view of the height-increasing training device based on bioelectric meridian stimulation provided by the present invention; Figure 3 A flowchart of the height-increasing training method based on bioelectric meridian stimulation provided by the present invention; In the picture: base 11, bracket 12, display screen 13, ultrasonic sensor 14, hand grip 15. Detailed Implementation

[0017] To make the objectives, technical solutions, and advantages of the present invention clear and complete, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are only some, not all, embodiments of the present invention, and are merely illustrative of the embodiments of the present invention. They are not intended to limit the embodiments of the present invention. All other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0018] To make the objectives, technical solutions, and advantages of the present invention clear and complete, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are only some, not all, embodiments of the present invention, and are merely illustrative of the embodiments of the present invention. They are not intended to limit the embodiments of the present invention. All other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0019] See Figures 1 to 3 This invention provides a technical solution for a height-increasing training device and method based on bioelectric meridian stimulation: The height-increasing training device based on bioelectric meridian stimulation in this embodiment includes a bioelectric detection module, a bioelectric stimulation module, an ultrasound module, a control module, a display module, and a communication module. The bioelectric detection module is a bioelectric sensor built into the foot area of ​​the rangefinder base. Electrically connected to the control module, this sensor collects real-time bioelectric signals from the user's feet and the contact status data between the foot and the foot-operated electrodes by contacting the user's skin, transmitting this data synchronously to the control module. This mechanism solves the problem of "separation of detection and stimulation" in existing single-stimulation devices. By acquiring real-time physiological data from the user, it provides a basis for adjusting subsequent stimulation parameters, avoiding discomfort caused by blindly outputting electrical stimulation. The ultrasonic sensor in the ultrasonic module is fixed to the top of the support, with the detection direction vertically downward and directly above the rangefinder base. During operation, it outputs high-intensity focused ultrasound at a central effective frequency of 50kHz. Through the thermal effect of high-intensity focused ultrasound, it targets the user's pituitary gland, activating pituitary cell activity to promote growth hormone secretion. The ultrasonic sensor also functions as a height detector, providing basic data for evaluating training effectiveness.

[0020] The bioelectric stimulation module includes foot-operated electrodes, hand-held electrodes, and a bioelectric transmitter. The foot-operated electrodes are located in the foot area of ​​the rangefinder base, while the hand-held electrodes are integrated into the hand-held bars on both sides of the central part of the support. Both are connected to the bioelectric transmitter. The bioelectric transmitter works by receiving instructions from the control module and generating low-frequency electrical stimulation of 1.2mA-5.2mA, which is applied to the corresponding meridians of the body through the electrodes. To adapt to the stimulation needs of different meridians, the module adopts a graded stimulation design. The foot-operated electrodes are divided into 5 levels, outputting at preset fixed values ​​(10%, 30%, 60%, 100%, 120%), corresponding to current intensities of 1.2mA, 2.0mA, 3.1mA, 4.2mA, and 5.2mA, respectively. The hand-held electrodes are divided into 3 levels, outputting at preset fixed values ​​(10%, 30%, 60%), corresponding to current intensities of 1.2mA, 2.0mA, and 3.1mA, respectively. In terms of triggering mode, both types of electrode pads adopt an instant triggering mode. After receiving the intensity adjustment command from the control module, they instantly switch to the target level. A single cycle is 10 seconds, and the intensity is slowly adjusted in the order of "low intensity → high intensity → low intensity", with the highest intensity lasting for 1-2 seconds. This differentiated working mechanism solves the problem of the single stimulation mode of existing devices. The graded design of the foot-operated electrode pads meets the stimulation intensity requirements of the foot meridians, while the dynamic mode of the hand-held electrode pads reduces muscle adaptability. It covers the physiological characteristics of users in different age groups of 6-12 years old, 13-18 years old, and 19-25 years old, improving the universality of the device and addressing the deficiency of weak adaptability of existing devices in the background technology.

[0021] The control module is located inside the support frame and contains a pre-set training program. This program includes parameters such as bioelectric stimulation intensity thresholds, stimulation cycle periods, and single training durations matched to the physiological characteristics of different age groups. Regarding channel switching control, when the bioelectric detection module detects stable heel contact (contact signal lasting ≥50ms), the control module immediately activates the foot-step electrode channel; when it detects heel removal (contact signal disappearance ≥30ms), the control module switches to the hand-held electrode channel within ≤100ms. The control module supports personalized parameter adjustments based on user tolerance data from the bioelectric detection module. If the user manually reduces the stimulation intensity twice within one minute, the control module automatically lowers the subsequent default intensity by one level. This rapid response and intelligent optimization mechanism ensures synchronization between stimulation and the user's toe-raising movement, avoiding discomfort caused by stimulation delay, and achieving a "the more you use it, the better it becomes" effect, solving the problem of unstable effects in existing devices.

[0022] The display module is embedded in the middle area of ​​the support. During training, it will display the training progress, current stimulation intensity, bioelectric detection results and cumulative training time. After training is completed, it will display the incentive information.

[0023] The communication module integrates Bluetooth and Wi-Fi sub-modules, enabling real-time synchronization of training data with local terminals; it can also connect to wireless networks to automatically upload training reports to cloud servers, achieving local terminal synchronization and cloud-based sharing of bioelectric detection data and training data.

[0024] This invention also provides a height-increasing training method based on bioelectric meridian stimulation, comprising the following steps: Step 1 involves training preparation and program selection. The user first places both feet on the foot-feeding area, ensuring simultaneous skin contact with the bioelectric detection module and foot-feeding electrodes. Holding the hand grip, the user keeps their head upright, aligning the ultrasound sensor with the pituitary gland projection area. The user then selects a suitable preset program via the display module or client application. Within the program's limits, the intensity level and training duration can be adjusted. First-time users will start with the lowest stimulation level by default. This step ensures effective contact between detection and stimulation, laying the foundation for avoiding detection errors or attenuation of stimulation effects due to improper contact.

[0025] Step 2 is the device startup and initialization. The control module starts the ultrasonic module and the bioelectric detection module. The bioelectric detection module begins to collect the bioelectric signals of the user's feet and the contact status of the heels in real time. At the same time, the bioelectric stimulation module is initialized to standby mode. The control module analyzes the collected initial bioelectric data and determines the initial stimulation intensity level based on the user's age group.

[0026] Step 3 involves stimulation during contact. The bioelectric detection module continuously collects heel contact signals. When a heel contact signal is detected and lasts for ≥50ms, it is determined to be a "stable contact" state and the signal is transmitted to the control module. If the bioelectric signal is within the normal range, the control module immediately sends a command to the bioelectric transmitter to activate the stimulation channel of the foot-operated electrode pads, outputting low-frequency electrical stimulation at the corresponding level (according to the 5 fixed values ​​and corresponding current output of the foot-operated electrode pads). The foot-operated electrode pads stimulate acupoints on the sole of the foot. At this time, the ultrasound module continuously outputs focused ultrasound at a central effective frequency of 50kHz to act on the pituitary gland. This step, through the synergistic work of bioelectric stimulation of meridians and ultrasound regulation of hormones, forms a dual-action mechanism, improving the effect from both meridian unblocking and hormone secretion aspects compared to existing simple physical exercise or electrical stimulation.

[0027] Step 4 involves stimulation switching during the "away" state. When the bioelectric detection module detects a heel-away signal and the signal disappears for ≥30ms, it is determined to be in the "away" state. The control module completes channel switching within ≤100ms, closing the foot-step electrode channel and activating the hand-held electrode channel. The hand-held electrode outputs stimulation in a dynamic mode that cycles every 10 seconds (based on the three fixed values ​​and corresponding current outputs of the hand-held electrode), slowly adjusting in the order of "low intensity → high intensity → low intensity," with the highest intensity lasting for 1-2 seconds, providing gentle stimulation to the meridians and acupoints of the hand. This channel switching mechanism ensures synchronization between stimulation and the user's toe-raising movement through precise state judgment and rapid response. The dynamic mode of the hand-held electrode reduces muscle adaptation to fixed stimulation, improves the meridian regulation effect, and solves the bottleneck of effect caused by the single stimulation mode of existing devices.

[0028] Step 5 involves real-time adjustment during training. The mechanism involves the bioelectric detection module continuously collecting data and transmitting it to the control module. The control module processes the feedback data every 100ms. If poor contact between the electrode and the skin is detected, the intensity of the corresponding stimulation channel is immediately reduced by 50%, and a prompt is issued via the display module. Simultaneously, the display module updates various data in real time, and users can adjust parameters or execute pause commands at any time through the user interface. This real-time adjustment mechanism provides dynamic assurance during training, enabling personalized intensity adjustment based on bioelectric data and ensuring safety through anomaly handling, thus improving training comfort and safety.

[0029] Step 6: After the preset training time is reached or the user manually terminates the training, the control module integrates the bioelectric detection data and training process data to generate a training report, which is synchronized to the local client or cloud server through the communication module. At the same time, the display module displays the incentive information indicating that the training is complete.

[0030] During training, the control module dynamically adjusts the stimulation intensity level by combining the tolerance data fed back by the bioelectric detection module with user operation feedback. If the user manually reduces the stimulation intensity twice within 1 minute, the control module automatically lowers the subsequent default intensity by 1 level. After 1-2 weeks of continuous training, the training parameters are automatically optimized based on historical bioelectric data and training effects such as height changes and meridian activity to adapt to changes in the user's physiological state.

[0031] Although the illustrative specific embodiments of this application have been described above to enable those skilled in the art to understand this application, this application is not limited to the scope of the specific embodiments. For those skilled in the art, all applications utilizing the concept of this application are protected as long as various variations are within the spirit and scope of this application as defined and determined by the appended claims.

Claims

1. A height-increasing training device based on bioelectric meridian stimulation, characterized in that, include: Ultrasonic module, bioelectric detection module, bioelectric stimulation module, control module, communication module and display module; The ultrasonic module includes a rangefinder base, a bracket, and an ultrasonic sensor. The upper surface of the rangefinder base is provided with a foot area. The bracket is vertically fixed to one side of the upper surface of the rangefinder base. Hand grips are symmetrically arranged on both sides of the middle of the bracket. The ultrasonic sensor is fixed to the top area of ​​the bracket, with the detection direction vertically downward and located directly above the rangefinder base. The bioelectric detection module is electrically connected to the control module and is used to collect relevant bioelectric signals of the human foot and the contact status between the foot and the foot-step electrode plate. The bioelectric stimulation module includes foot-operated electrode pads, hand-held electrode pads, and a bioelectric transmitter. The foot-operated electrode pads are located in the foot-operated area of ​​the rangefinder base, and the hand-held electrode pads are located on the hand-held bar. Both are connected to the bioelectric transmitter. The control module is integrated inside the bracket and is electrically connected to the ultrasound module, bioelectric detection module, bioelectric stimulation module, communication module and display module respectively; The display module is embedded in the middle area of ​​the bracket.

2. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The effective frequency of the ultrasound center is a preset fixed value, which can regulate the growth hormone secretion-related functions of the pituitary gland through high-intensity focused ultrasound.

3. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The bioelectric emitter can generate low-frequency electrical stimulation of 1.2mA-5.2mA, which is applied to the meridians of corresponding parts of the human body through various electrode pads.

4. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The communication module includes a Bluetooth submodule and a Wi-Fi submodule, which respectively enable local terminal synchronization and cloud upload and sharing of bioelectric detection data and training data.

5. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The bioelectric stimulation module has a graded stimulation intensity setting: the stimulation of stepping on the electrode pads is divided into several levels, and the output is based on preset multi-level fixed values, corresponding to current intensities of 1.2mA-5.2mA. When the control module issues an intensity increase command, the stimulation intensity instantly switches to the target level. The single cycle is a preset duration, and it is slowly adjusted in the order of "low intensity → high intensity → low intensity". The highest intensity lasts for a preset duration.

6. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The stimulation intensity of the hand-held electrode pads on the hand-held rod is divided into several levels, and the output is based on preset multi-level fixed values, corresponding to current intensities of 1.2mA-5.2mA. When the control module issues an intensity increase command, the stimulation intensity instantly switches to the target level. The single cycle is a preset duration, and it is slowly adjusted in the order of "low intensity → high intensity → low intensity". The highest intensity lasts for a preset duration.

7. The height-increasing training device based on bioelectric meridian stimulation according to claim 1, characterized in that, The control module has a built-in training program that can preset training programs for different age groups from adolescence to young adulthood. The program includes bioelectric stimulation intensity thresholds, cycle periods, and training duration parameters that match the age group, and supports personalized adjustments based on user tolerance data fed back by the bioelectric detection module.

8. A height-increasing training method based on bioelectric meridian stimulation, characterized in that: The training method includes the following steps: Step 1: The user places both feet on the foot-feet area of ​​the rangefinder base, so that the skin of the feet simultaneously contacts the bioelectric detection module and the foot-feet electrode pads, and selects the appropriate training program through the display module or client. Step 2: The control module starts the ultrasound module and the bioelectric detection module. The bioelectric detection module begins to collect the bioelectric signals of the user's feet and the contact status of the heel in real time. At the same time, the bioelectric stimulation module is initialized to standby mode. The control module analyzes the collected initial bioelectric data and determines the initial stimulation intensity level based on the user's age group. Step 3: When the bioelectric detection module detects that the heel is in stable contact with the foot electrode and the bioelectric signal is within the normal range, the control module sends a command to the bioelectric transmitter to activate the stimulation channel of the foot electrode and emit bioelectric stimulation at the corresponding level. Hold the electrode and keep it in standby mode. At this time, the ultrasound module continuously outputs focused ultrasound at the center effective frequency as a preset fixed value to act on the pituitary gland. Step 4: When the bioelectric detection module detects that the heel leaves the foot electrode, the control module switches the stimulation channel within a preset time, starts the stimulation channel of the hand-held electrode, pauses the stimulation of the foot electrode, and emits bioelectric stimulation of the hand-held electrode according to the preset dynamic mode. Step 5: During the training process, the bioelectric detection module continuously collects the user's bioelectric data and contact status, the control module processes the feedback data in real time, dynamically adjusts the stimulation intensity based on the bioelectric characteristics, and displays the training progress, current stimulation intensity, bioelectric detection results, and cumulative training time through the display module. Step 6: After the preset training time is reached or the user manually terminates the training, the control module integrates the bioelectric detection data and training data to generate a training report, which is then synchronized to the local client or cloud server via the communication module, while displaying the incentive information.

9. The height-increasing training method based on bioelectric meridian stimulation according to claim 8, characterized in that, In steps 3 and 4, the channel switching response time of bioelectric stimulation is less than or equal to the preset response time. The control module ensures the synchronization between bioelectric stimulation and the user's tiptoeing movement state and bioelectric characteristics through real-time signal feedback from the bioelectric detection module.

10. The height-increasing training method based on bioelectric meridian stimulation according to claim 8, characterized in that, During training, the control module combines the tolerance data fed back by the bioelectric detection module with user operation feedback to dynamically adjust the stimulation intensity level; if the user actively reduces the stimulation intensity multiple times within the preset time, the control module will automatically lower the subsequent default intensity by one level. After a preset training period, the training parameters are automatically optimized based on historical bioelectrical data and training results to adapt to changes in the user's physiological state.

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