Intelligent pulse instrument for relieving muscle tension

Abstract

The invention relates to the technical field of medical instruments, and discloses an intelligent pulse instrument for relieving muscle tension, the intelligent pulse instrument comprises a patch and a remote controller, the upper surface of the patch is fixedly connected with an I-shaped rod, the top of the I-shaped rod is detachably connected with a control center, and a pulse generation module, a biological feedback sensor and a main controller are integrated in the control center; the biofeedback sensor comprises an electromyographic sensor used for collecting real-time electromyographic signals; an anti-falling assembly and a starting assembly are arranged in the lower side of the control center, the starting assembly is connected with a switch of a starting panel, and the main controller is electrically connected with the pulse generation module and the biological feedback sensor and dynamically adjusts pulse parameters according to electromyographic signals. The first spring drives the sliding block and the I-shaped rod clamping groove to be locked, and it is ensured that the control center is stably connected in the human body movement process. The starting assembly triggers the connecting rod to press the switch contact through the installation pressure, the user process is simplified, and the stability and convenience of equipment use are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, in particular to an intelligent pulse meter for relieving muscle tension. Background Art

[0002] In the field of medical device technology, pulse therapy devices that relieve muscle tension are widely used in sports rehabilitation, chronic strain treatment, and postoperative recovery. These devices typically output pulse signals from a control center to patches, which act on target muscle groups to regulate muscle tension.

[0003] Traditional pulse therapy devices for relieving muscle tension generally have insufficient structural stability in the connection between the control center and the patch. Most of them use magnetic or simple snap-on designs. When the human body moves (such as limb movement, skin traction), the control center can easily shift or fall off, causing treatment interruption. This is especially true in scenarios requiring dynamic treatment, such as sports rehabilitation and elderly care, where the risk of device falling off is significantly increased. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the present invention provides an intelligent pulse device for relieving muscle tension, which solves the problem of insufficient stability of the connection structure between the control center and the patch that is common in traditional pulse therapy equipment for relieving muscle tension.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: an intelligent pulse meter for relieving muscle tension, including a patch and a remote control, the upper surface of the patch is fixedly connected to an I-beam, the top of the I-beam is detachably connected to a control center, the control center is integrated with a pulse generating module, a biofeedback sensor and a main controller; the biofeedback sensor includes an electromyoelectric sensor for collecting real-time electromyoelectric signals; an anti-drop component and a starting component are provided inside the lower side of the control center, the control center is locked to the upper surface of the patch through the anti-drop component and the I-beam, the starting component is connected to the switch of the starting panel, the main controller is electrically connected to the pulse generating module and the biofeedback sensor, and the pulse parameters are dynamically adjusted according to the electromyoelectric signal.

[0006] By adopting the above technical solution, the elastic reset force of spring 1 in the anti-drop component drives the protrusion at the end of the sliding block to tightly engage with the side slot of the I-beam, forming a dynamic elastic locking structure, which can effectively offset the lateral shear force or skin pulling force generated by human activities, ensuring that the control center is firmly connected to the upper surface of the patch in dynamic scenes such as exercise and limb activities, avoiding treatment interruption due to displacement or falling off; realizing the "install and start" buttonless automatic start logic, without the user manually operating the switch, simplifying the operation process, avoiding the risk of accidental touch of traditional buttons among the elderly, and significantly improving the stability and convenience of equipment use.

[0007] Preferably, the control center is also provided with a temperature regulation module, including a semiconductor refrigeration plate, a heating resistor wire and a temperature sensor; the temperature sensor is connected to the main controller, and the main controller controls the opening and closing of the semiconductor refrigeration plate or the heating resistor wire through the temperature control circuit to switch between hot compress and cold compress modes.

[0008] Preferably, the anti-drop assembly includes a sliding block and a spring 1, the outside of the sliding block is fixedly connected to a pull rod, the end of the sliding block is provided with a protrusion adapted to the side slot of the I-beam, and the two ends of the spring 1 respectively abut the sliding block and the inner wall of the control center to provide elastic reset force.

[0009] Preferably, the starting component includes a shell, spring 2 and a connecting rod, one end of the connecting rod extends to the switch contact of the starting panel, and the other end is elastically connected to the shell through spring 2. Pressing the connecting rod triggers the switch contact of the starting panel, and the main controller starts the pulse generating module.

[0010] Preferably, the control center is provided with a mode switching unit, which is connected to the main controller and provides a variety of preset treatment modes. After the user selects a mode through the remote control, the main controller automatically adjusts the pulse parameters.

[0011] Preferably, a control system of an intelligent pulse meter for relieving muscle tension comprises: Main controller, communication module and user input module; The main controller receives feedback data from the electromyography sensor and the temperature sensor, and synchronously adjusts the output parameters of the pulse generation module and the cooling and heating modes of the temperature adjustment module; The communication module supports Bluetooth and Wi-Fi dual-mode protocols to exchange treatment data with mobile terminals or cloud servers; The user input module selects a preset treatment mode through the touch screen or physical buttons of the remote controller.

[0012] Preferably, the preset treatment mode includes a pulse intensity gradient, a hot and cold alternating cycle, and a single treatment duration. The user customizes the mode parameters through a mobile terminal application and stores them in the cloud.

[0013] Preferably, the main controller has a built-in safety protection protocol, which automatically cuts off the pulse and temperature output when the electromyographic signal strength exceeds 50mV for 3 seconds or the temperature sensor reading exceeds the range of 5-45°C.

[0014] Preferably, the communication module uploads the electromyographic signal waveform, temperature curve and user operation log to the cloud server in real time, generates a muscle status analysis report and feeds it back to the mobile terminal.

[0015] Preferably, the remote control has a built-in vibration motor and voice prompt module. When the pulse intensity exceeds a preset safety threshold or the temperature adjustment is abnormal, the main controller sends an instruction to the remote control through the communication module to trigger a vibration alarm and voice reminder.

[0016] Working principle: When using, first fit the patch to the target muscle part, and use the spring of the anti-drop component to drive the sliding block and the I-beam slot to lock the control center. During the installation process, the connecting rod of the starting component is squeezed to trigger the switch contact. After receiving the signal, the main controller starts the pulse generation module to achieve immediate start-up; during treatment, the electromyographic sensor collects the electromyographic signal in real time and transmits it to the main controller. The main controller dynamically adjusts the intensity, frequency and other parameters of the pulse generation module based on the signal characteristics to form a closed-loop feedback with precise response. At the same time, the temperature sensor collects temperature data in real time. The main controller controls the semiconductor refrigeration plate or heating resistor wire through the temperature control circuit, and intelligently switches the hot compress or cold compress mode within the range of 5-45℃ to dynamically adapt to the stage of muscle injury; the main controller has a built-in safety protection protocol. When the electromyographic signal strength exceeds 50mV for 3 seconds, the main controller will start the pulse generation module. Or when the temperature exceeds the safe range, the pulse and temperature output are automatically cut off, and at the same time, a command is sent to the remote control with a built-in vibration motor and voice prompt module through the communication module, triggering a tactile-auditory dual alarm within 0.3 seconds; the communication module supports Bluetooth and Wi-Fi dual-mode protocols, and can interact with mobile terminals or cloud servers for treatment data. Users can select preset treatment modes and custom mode parameters through the remote control or mobile terminal application and store them in the cloud. The cloud uploads the electromyographic signal waveform, temperature curve and user operation log in real time, generates a muscle status analysis report and feeds it back to the mobile terminal, realizing multi-modal data interaction and personalized treatment plan optimization. Through the overall collaboration of multiple modules, accurate detection, dynamic treatment, safety protection and data management of muscle tension can be achieved, thereby improving the effectiveness of rehabilitation treatment and user experience.

[0017] The present invention provides an intelligent pulse meter for relieving muscle tension. It has the following beneficial effects: 1. The present invention uses a spring to drive the sliding block to lock with the I-bar slot, ensuring that the control center is firmly connected during human activities to avoid treatment interruption; the starting component uses the installation pressure to trigger the connecting rod to press the switch contact, achieving a button-free operation logic of immediate installation and start, immediate removal and stop, simplifying the user process, reducing the risk of accidental touch, and improving the stability and convenience of equipment use.

[0018] 2. This invention uses myoelectric sensors to collect myoelectric signals in real time. The main controller dynamically adjusts parameters such as pulse intensity and frequency based on signal characteristics, achieving a precise response to muscle tension. Compared to traditional fixed-pulse devices, this device can provide inhibitory or excitatory stimulation tailored to the state of different muscle groups, improving the targeted and effective treatment and avoiding overstimulation or undertreatment.

[0019] 3. The temperature regulation module integrates a semiconductor refrigeration chip, a heating resistor, and a temperature sensor. The main controller's temperature control circuit enables intelligent switching between hot and cold compress modes within the 5-45°C range. Dynamic adaptation to the stage of muscle injury and real-time feedback from the temperature sensor form a closed-loop control system, enhancing treatment effectiveness and avoiding the risk of frostbite or burns.

[0020] 4. The main controller of the present invention has a built-in safety protocol, which automatically cuts off the output when the electromyographic signal exceeds 50mV or the temperature is abnormal; the remote control integrates a vibration motor and a voice prompt module, which triggers a tactile and auditory dual alarm within 0.3 seconds. The alarm mode is optimized for user groups such as the elderly and visually impaired, ensuring treatment safety and user experience. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention; Figure 2 This is a schematic diagram of the local structure of the I-beam of the present invention; Figure 3 This is a schematic diagram of the bottom structure of the control center of the present invention; Figure 4 It is a schematic diagram of the partial structure of the anti-drop assembly of the present invention; Figure 5 This is a schematic diagram of the partial structure of the starting component of the present invention; Figure 6 It is a schematic diagram of the local structure of the connecting rod of the present invention.

[0022] Among them, 1. Patch; 2. Remote control; 3. Control center; 4. I-beam; 5. Anti-drop assembly; 51. Sliding block; 52. Spring 1; 53. Pull rod; 6. Starting assembly; 61. Housing; 62. Spring 2; 63. Connecting rod; 7. Starting panel. DETAILED DESCRIPTION

[0023] The following will clearly and completely describe the technical solution of the present invention in conjunction with the accompanying drawings. Obviously, the embodiments described are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0024] Please see the attached Figure 1 -Attached Figure 3An embodiment of the present invention provides an intelligent pulse instrument for relieving muscle tension, including a patch 1 and a remote control 2. The upper surface of the patch 1 is fixedly connected to an I-shaped rod 4, and the top of the I-shaped rod 4 is detachably connected to a control center 3. The control center 3 integrates a pulse generating module, a biofeedback sensor and a main controller; the biofeedback sensor includes an electromyographic sensor for collecting real-time electromyographic signals; an anti-drop component 5 and a starting component 6 are provided on the lower side of the control center 3. The control center 3 is locked to the upper surface of the patch 1 through the anti-drop component 5 and the I-shaped rod 4. The starting component 6 is connected to the switch of the starting panel 7. The main controller is electrically connected to the pulse generating module and the biofeedback sensor, and dynamically adjusts the pulse parameters according to the electromyographic signal.

[0025] Specifically, when using the intelligent pulse instrument for relieving muscle tension, first fit the patch 1 on the muscle part that needs treatment. The top of the I-beam 4 on the upper surface of the patch 1 is detachably connected to the control center 3 through the anti-drop component 5. The protrusion at the end of the sliding block 51 in the anti-drop component 5 is adapted to the side slot of the I-beam 4. Under the action of the anti-drop component 5, the control center 3 is firmly locked on the upper surface of the patch 1; when the control center 3 is fixed on the upper surface of the patch 1, the switch contact of the start panel 7 of the start component 6 is pressed, and the main controller starts the pulse generating module after receiving the signal; during the treatment process, the electromyographic sensor in the biofeedback sensor collects the electromyographic signal of the muscle in real time and transmits the signal to the main controller. The main controller analyzes and processes the electromyographic signal and dynamically adjusts the pulse parameters of the pulse generating module according to the analysis results to achieve the effect of accurately relieving muscle tension.

[0026] Please see the attached Figure 2 -Attached Figure 4 The control center 3 is also provided with a temperature regulation module, including a semiconductor refrigeration plate, a heating resistor and a temperature sensor; the temperature sensor is connected to the main controller, and the main controller controls the opening and closing of the semiconductor refrigeration plate or the heating resistor through the temperature control circuit to switch the hot compress or cold compress mode; the anti-drop component 5 includes a sliding block 51 and a spring 52, and the outside of the sliding block 51 is fixedly connected to a pull rod 53. The end of the sliding block 51 is provided with a protrusion adapted to the side slot of the I-beam 4, and the two ends of the spring 52 respectively abut the sliding block 51 and the inner wall of the control center 3 to provide elastic reset force.

[0027] Specifically, the temperature regulation module within the control center 3 uses a temperature sensor to collect current temperature data in real time and transmits it to the main controller. The main controller, based on the preset temperature threshold and the user's selected treatment mode of hot or cold compress, precisely controls the opening and closing of the semiconductor cooling plate or heating resistor wire through the temperature control circuit. When a hot compress is required, the main controller triggers the heating resistor wire to energize and heat up, raising the temperature of the treatment area; when a cold compress is required, the semiconductor cooling plate is activated to lower the temperature. The temperature sensor continuously feedbacks the real-time temperature to form a closed-loop control, ensuring that the temperature is maintained within the preset range of 5-45°C. By dynamically switching between hot and cold modes, differentiated treatments can be provided for different states of muscle tension, such as swelling after acute injury or stiffness caused by chronic strain. Cold compresses can constrict blood vessels and reduce inflammatory reactions, while hot compresses promote blood circulation and relieve muscle spasms.

[0028] Under the elastic restoring force of spring 1 52, the protruding end of the sliding block 51 of the anti-drop assembly 5 remains engaged with the slot on the side of the I-bar 4, thereby firmly locking the control center 3 to the top of the I-bar of the patch 1. To remove the control center, pull rod 53 outward, causing the sliding block 51 to compress spring 1 52 and disengage the slot, releasing the lock. After releasing the pull rod, spring 1 52 resets and pushes the sliding block back into engagement. This ensures that the control center 3 will not fall out during treatment due to human movement or patch displacement, maintaining device stability and treatment continuity.

[0029] Please see the attached Figure 4 -Attached Figure 6 The starting component 6 includes a shell 61, a second spring 62 and a connecting rod 63. One end of the connecting rod 63 extends to the switch contact of the starting panel 7, and the other end is elastically connected to the shell 61 through the second spring 62. Pressing the connecting rod 63 triggers the switch contact of the starting panel 7, and the main controller starts the pulse generating module; the control center 3 is provided with a mode switching unit, which is connected to the main controller and provides a variety of preset treatment modes. After the user selects the mode through the remote control 2, the main controller automatically adjusts the pulse parameters.

[0030] Specifically, when the control center 3 is mounted on the top of the I-beam 4 of the patch 1, the connecting rod 63 in the starting assembly 6 on the lower side of the control center 3 is squeezed, compressing the second spring 62 and moving it downward. The spring 62 extends to one end of the starting panel 7, triggering the switch contact, generating an electrical signal that is transmitted to the main controller. Upon receiving the signal, the main controller immediately activates the pulse generating module, causing the pulse meter to start working. When the control center 3 is removed from the I-beam 4, the elastic reset force of the second spring 62 pushes the connecting rod 63 back to its original position, breaking contact with the switch contact of the starting panel 7, and the pulse generating module stops working. The press pulse meter has a simple and intuitive operation process, without the need for complex operating steps, which greatly improves the convenience of use.

[0031] The mode switching unit is built into the control center 3 and is electrically connected to the main controller. It pre-stores a variety of preset treatment modes, each of which corresponds to different pulse parameters and the working mode of the temperature adjustment module. The user selects the desired preset treatment mode through the touch screen or physical buttons of the remote control 2, and the remote control 2 transmits the selection signal to the main controller through the communication module. After receiving the signal, the main controller immediately calls the parameters corresponding to the preset mode, automatically adjusts the output parameters of the pulse generating module and the hot and cold modes of the temperature adjustment module, and makes the pulse meter work according to the selected mode. During the treatment process, biofeedback sensors, such as electromyography sensors and temperature sensors, collect data in real time and feed it back to the main controller. The main controller will also fine-tune the parameters based on the real-time feedback data to ensure the stability and accuracy of the treatment effect.

[0032] A control system for an intelligent pulse meter for relieving muscle tension, comprising: Main controller, communication module and user input module; The main controller receives feedback data from the electromyographic sensor and the temperature sensor, and synchronously adjusts the output parameters of the pulse generation module and the cooling and heating modes of the temperature regulation module; The communication module supports Bluetooth and Wi-Fi dual-mode protocols, and exchanges treatment data with mobile terminals or cloud servers; The user input module selects a preset treatment mode through the touch screen or physical buttons of the remote controller 2 .

[0033] Specifically, the main controller builds a precise closed-loop treatment control system by receiving dynamic data from biofeedback sensors in real time. The electromyographic sensors continuously collect electrophysiological signals from the muscles. The main controller analyzes the signal strength, frequency, and waveform characteristics based on a preset algorithm to determine the degree of muscle tension and state. Based on this, the main controller dynamically adjusts the output parameters of the pulse generation module (including pulse strength, frequency, and waveform type). For example, it applies inhibitory pulses to overly tense muscle fibers and provides excitatory stimulation to relaxed and weak muscle groups. Furthermore, the main controller has a built-in safety protection protocol. When the electromyographic signal strength exceeds 50mV for three seconds (indicating excessive muscle stress) or the temperature exceeds the safe range of 5-45°C, the dual-shutoff mechanism is immediately triggered (stopping pulse output and temperature regulation), and an alarm command is sent to the remote control via the communication module to ensure a safe and reliable treatment process.

[0034] The communication module utilizes Bluetooth 5.2 and Wi-Fi 6 dual-mode protocols to build a multi-terminal data exchange network. In near-field communication scenarios, the Bluetooth protocol supports fast, low-power connections between the pulse meter and remote control 2, enabling real-time command transmission for mode selection, parameter preview, and more. In remote scenarios, the Wi-Fi protocol supports high-bandwidth data transmission, synchronizing treatment data such as EMG waveforms, temperature curves, and user operation logs to a cloud server in real time. The cloud performs in-depth analysis of this data, generating personalized muscle status reports (such as the distribution of tense areas and recovery trend predictions), which are then transferred back to the mobile terminal to provide users with a visual evaluation of treatment effectiveness.

[0035] Remote control 2 in the user input module integrates both a touchscreen and physical buttons. The touchscreen provides a graphical interface, allowing users to intuitively browse preset treatment modes (such as "Acute Injury Repair," "Post-Exercise Relaxation," and "Chronic Strain Treatment"). Each mode displays a preview of parameters such as the pulse intensity gradient, alternating hot and cold cycles, and single treatment duration. Users can quickly access preset modes by touching or pressing physical buttons. The main controller automatically adjusts pulse and temperature parameters upon receiving the command.

[0036] The preset treatment modes include pulse intensity gradient, alternating hot and cold cycles, and single treatment duration. Users can customize mode parameters through mobile terminal applications and store them in the cloud; the main controller has a built-in safety protection protocol, which automatically cuts off the pulse and temperature output when the electromyographic signal intensity exceeds 50mV for 3 seconds or the temperature sensor reading exceeds the range of 5-45℃.

[0037] Specifically, the preset treatment modes are based on clinical muscle rehabilitation data and include a multi-dimensional adjustable parameter system. Pulse intensity gradients range from 10-50mA (in 5mA increments) to accommodate the tolerance of different muscle groups. Alternating hot and cold cycles can be customized from 1-10 minutes, with settings such as "cold for 2 minutes → hot for 5 minutes" to precisely match the differentiated needs of swelling reduction during acute inflammation and relaxation during chronic recovery. Single treatment durations are preset to 15, 30, and 60 minutes to avoid overstimulation and muscle fatigue. Users can use the mobile app's graphical interface to drag and adjust the sliders to create personalized treatment plans (for example, a "pulse intensity = 5mA → cold for 3 minutes → hot for 4 minutes" cycle for tennis elbow, totaling 20 minutes). Cloud storage also supports treatment data traceability, allowing users to view the past 30 days of mode usage and efficacy trends, providing data reference for subsequent plan optimization and meeting the auditability requirements of treatment plans in medical scenarios.

[0038] The built-in security protection protocol of the main controller establishes a dual real-time monitoring defense line: First, the electromyographic signal monitoring module continuously analyzes the waveform data collected by the electromyographic sensor. When the signal strength is detected to be ≥50mV and the duration is 3 seconds, it is determined to be a state of muscle over-stress, and an interrupt instruction is immediately sent to the pulse generation module to stop the electrical stimulation output to avoid inducing muscle spasms or nerve damage; second, the temperature sensor collects the temperature of the treatment area at a frequency of 5 times per second. When the reading is <5℃ (risk of frostbite due to low temperature) or >45℃ (risk of burns due to high temperature), the temperature control circuit automatically cuts off the power supply of the semiconductor refrigeration plate and the heating resistor wire, and triggers the sound and light alarm system (remote control vibration motor + voice broadcast "temperature abnormality, treatment has been suspended").

[0039] The communication module uploads the electromyographic signal waveform, temperature curve and user operation log to the cloud server in real time, generates a muscle status analysis report and feeds it back to the mobile terminal; the remote control 2 has a built-in vibration motor and voice prompt module. When the pulse intensity exceeds the preset safety threshold or the temperature adjustment is abnormal, the main controller sends instructions to the remote control 2 through the communication module, triggering a vibration alarm and voice reminder.

[0040] Specifically, the communication module utilizes a dual-mode Bluetooth 5.2 and Wi-Fi 6 protocol architecture to establish a real-time data exchange link. Raw waveform data collected by the EMG sensor (sampling frequency 1000Hz), second-by-second temperature curves from the temperature sensor (accuracy ±0.5°C), and user operation logs (such as mode switching and parameter adjustment times) are uploaded to a cloud server in real time via an encrypted channel. A machine learning model deployed in the cloud performs time-frequency domain analysis on the EMG signals (such as extracting characteristic parameters such as the average power spectrum and RMS value). Combined with temperature trends, a dynamic muscle status analysis report is generated. This report includes: 1. Localization of muscle tension areas (based on multi-channel EMG signal differential calculation); 2. Fatigue assessment (using an EMG signal complexity algorithm); and 3. Hyperthermia effect index (analysis of the correlation between temperature and muscle blood flow). The report is delivered in real time to a mobile app in the form of visual charts (such as heat maps and trend curves), allowing users to visually compare muscle status before and after treatment, while medical staff can remotely adjust treatment plans.

[0041] Remote Control 2 features a built-in vibration motor and voice prompt module, creating a dual tactile and auditory alarm system. When the main controller detects, through biofeedback data, that pulse intensity exceeds a preset safety threshold or that an anomaly occurs in the temperature control module (e.g., a semiconductor refrigeration unit failure causing a sudden drop in temperature), it immediately sends a command packet (containing information such as the alarm type and abnormal parameter values) through the communication module. Upon receiving the command, the remote control triggers high-frequency vibrations (200Hz) in the vibration motor within 0.3 seconds, while the voice module simultaneously broadcasts a customized reminder. For elderly users or those experiencing distracted situations, this dual alarm mechanism effectively mitigates safety risks caused by sensory delays. For visually impaired users, voice prompts combined with vibration feedback complete the information transmission chain, ensuring timely intervention in emergencies.

[0042] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent pulse meter for relieving muscle tension, comprising a patch (1) and a remote controller (2), characterized in that: The upper surface of the patch (1) is fixedly connected to an I-shaped rod (4), and the top of the I-shaped rod (4) is detachably connected to a control center (3), wherein the control center (3) is integrated with a pulse generating module, a biofeedback sensor and a main controller; the biofeedback sensor includes an electromyographic sensor for collecting real-time electromyographic signals; an anti-drop component (5) and a starting component (6) are provided inside the lower side of the control center (3); the control center (3) is locked to the upper surface of the patch (1) through the anti-drop component (5) and the I-shaped rod (4); the starting component (6) is connected to the switch of the starting panel (7); the main controller is electrically connected to the pulse generating module and the biofeedback sensor, and dynamically adjusts the pulse parameters according to the electromyographic signals.

2. The intelligent pulse device for relieving muscle tension according to claim 1, characterized in that: The control center (3) is also provided with a temperature regulating module, comprising a semiconductor refrigeration plate, a heating resistance wire and a temperature sensor; the temperature sensor is connected to the main controller, and the main controller controls the opening and closing of the semiconductor refrigeration plate or the heating resistance wire through the temperature control circuit to switch between hot compress and cold compress modes.

3. The intelligent pulse device for relieving muscle tension according to claim 2, characterized in that: The anti-drop assembly (5) includes a sliding block (51) and a spring (52). The sliding block (51) is fixedly connected to a pull rod (53) on the outside. The end of the sliding block (51) is provided with a protrusion adapted to the side slot of the I-beam (4). The two ends of the spring (52) respectively abut against the sliding block (51) and the inner wall of the control center (3) to provide an elastic reset force.

4. The intelligent pulse device for relieving muscle tension according to claim 3, characterized in that: The starting assembly (6) includes a housing (61), a second spring (62) and a connecting rod (63). One end of the connecting rod (63) extends to the switch contact of the starting panel (7), and the other end is elastically connected to the housing (61) through the second spring (62). Pressing the connecting rod (63) triggers the switch contact of the starting panel (7), and the main controller starts the pulse generating module.

5. The intelligent pulse device for relieving muscle tension according to claim 2, characterized in that: The control center (3) is provided with a mode switching unit, which is connected to the main controller and provides a variety of preset treatment modes. After the user selects a mode through the remote controller (2), the main controller automatically adjusts the pulse parameters.

6. A control system for an intelligent pulse meter for relieving muscle tension, characterized in that: An intelligent pulse device for relieving muscle tension according to any one of claims 1 to 5, comprising: Main controller, communication module and user input module; The main controller receives feedback data from the electromyography sensor and the temperature sensor, and synchronously adjusts the output parameters of the pulse generation module and the cooling and heating modes of the temperature adjustment module; The communication module supports Bluetooth and Wi-Fi dual-mode protocols to exchange treatment data with mobile terminals or cloud servers; The user input module selects a preset treatment mode via the touch screen or physical buttons of the remote controller (2).

7. The control system of the intelligent pulse meter for relieving muscle tension according to claim 6, characterized in that: The preset treatment mode includes pulse intensity gradient, hot and cold alternation cycle and single treatment duration. Users can customize the mode parameters through the mobile terminal application and store them in the cloud.

8. The control system of the intelligent pulse meter for relieving muscle tension according to claim 6, characterized in that: The main controller has a built-in safety protection protocol, which automatically cuts off the pulse and temperature output when the electromyographic signal strength exceeds 50mV for 3 seconds or the temperature sensor reading exceeds the range of 5-45°C.

9. The control system of the intelligent pulse meter for relieving muscle tension according to claim 6, characterized in that: The communication module uploads the electromyographic signal waveform, temperature curve and user operation log to the cloud server in real time, generates a muscle status analysis report and feeds it back to the mobile terminal.

10. The control system of the intelligent pulse meter for relieving muscle tension according to claim 6, characterized in that: The remote controller (2) has a built-in vibration motor and voice prompt module. When the pulse intensity exceeds a preset safety threshold or the temperature adjustment is abnormal, the main controller sends a command to the remote controller (2) via the communication module to trigger a vibration alarm and voice prompt.

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