A wearable intelligent training device with physiological detection function

Abstract

The present invention relates to a wearable intelligent training device with physiological detection functions applied to the field of physiological detection technology, which includes a clothing body, a physiological detection box, a physiological detection intelligent controller, and a remote monitor; dry electrode muscle sensors, heart rate sensors, respiratory wave sensors, body temperature sensors, and blood pressure sensors are installed on the clothing body; a vertically arranged auxiliary air duct is fixed on one side of the physiological detection box, and a high-pressure gas cylinder is installed in the inner cavity of the physiological detection box; the physiological detection intelligent controller is provided with a data acquisition module, a data analysis and processing module, an alert module, and a communication module; with the above structure, the physiological detection intelligent controller performs real-time calculation and linkage analysis on various physiological parameters, and multiple pieces of information are mutually verified to accurately determine whether the human body is in an abnormal state, automatically judge and perform emergency rescue on the monitored person, and at the same time give a prominent reminder signal.

Description

Technical Field

[0001] The present invention relates to a wearable intelligent training device, and particularly to a wearable intelligent training device with physiological detection function applied to the field of physiological detection technology. Background Art

[0002] With the improvement of people's living standards, people begin to increase their personal physical exercise to ensure that they can have a healthier body to enjoy life. When people are exercising and training, the body's functions will change with the exercise intensity and exercise time. Information such as heart rate, blood pressure, respiratory rate, body temperature, etc. will all change. When the above data changes exceed the normal value, the body will have problems and need to be adjusted and rested in time. Therefore, it is necessary to monitor various functions of the human body in real time during training.

[0003] The invention patent with the publication number of CN112767650B discloses a sports protection clothing for running based on bioelectric current detection, which is composed of clothing fabric, a bioelectricity detection device and an alarm device; the clothing fabric is a double-layer material, and the bioelectricity detection device is composed of an electrode sensor installed between the inner and outer fabric layers and a bioelectricity detection device installed on the outer surface of the back of the decorative fabric layer. The electrode sensor is in contact with the skin surface, and the bioelectricity detection device has a control circuit board; the alarm device is composed of a buzzer installed in the bioelectricity detection device, a communication module, an alarm button installed on the wrist of the clothing fabric, and a touch control screen. The touch control screen is installed on the outer surface of the decorative fabric layer, and a reminder device is arranged on the back of the touch control screen; it can achieve a more accurate grasp of the wearer's physical condition and actively alarm when the wearer's body is in danger.

[0004] When the above solution is implemented, it mainly detects the bioelectricity of the human body to achieve the purpose of monitoring the body. When the monitored data changes exceed the normal value, it only performs a simple alarm process. When it detects that the human body function is abnormal, it cannot make an effective response in time. Summary of the Invention

[0005] Aiming at the above-mentioned prior art, the technical problem to be solved by the present invention is that it cannot make an effective response in time when it detects that the human body function is abnormal.

[0006] To solve the above problems, the present invention provides a wearable intelligent training device with physiological detection function, including:

[0007] A clothing body, on which a dry electrode muscle sensor, a heart rate sensor, a respiratory wave sensor, a body temperature sensor and a blood pressure sensor are installed for detecting the physiological functions of the human body;

[0008] Physiological detection box, the physiological detection box is installed on the clothing body, a vertically arranged auxiliary air duct is fixed on one side of the physiological detection box, a ventilation component is installed in the auxiliary air duct, an oxygen content sensor and a temperature sensor are installed on the outer shell of the physiological detection box, an alarm airbag is installed inside the physiological detection box in an embedded manner, a high-pressure gas cylinder is installed in the inner cavity of the physiological detection box, a solenoid valve is installed at the output end of the high-pressure gas cylinder, the output end of the high-pressure gas cylinder is respectively connected with an oxygen-increasing pipe and a gas guide pipe communicating with the alarm airbag, and the output end of the oxygen-increasing pipe extends into the inner cavity of the auxiliary air duct;

[0009] Physiological detection intelligent controller, the physiological detection intelligent controller is installed in the physiological detection box, a data acquisition module, a data analysis and processing module, an alert module and a communication module are arranged on the physiological detection intelligent controller, the data acquisition module is respectively electrically connected with the data analysis and processing module, a dry electrode muscle sensor, a heart rate sensor, a respiratory wave sensor, a body temperature sensor, a blood pressure sensor, an oxygen content sensor and a temperature sensor, the data analysis and processing module is respectively electrically connected with the alert module, the communication module and the ventilation component, and the data analysis and processing module is also electrically connected with a power module installed in the inner cavity of the physiological detection box;

[0010] Remote monitor, the remote monitor is electrically connected with the data analysis and processing module through the communication module, and a display screen is installed on the remote monitor.

[0011] In the above wearable intelligent training device with physiological detection function, the physiological detection intelligent controller performs multi-parameter linkage analysis, performs real-time calculation and linkage analysis on a variety of physiological parameters, and mutual verification of a variety of information to accurately judge whether the human body is in an abnormal state, can automatically judge and perform emergency rescue on the monitored person, and at the same time make a prominent reminder signal.

[0012] As a further improvement of the present application, the ventilation component includes a driving member installed in the middle of the auxiliary air duct and a ventilation fan blade installed on the output shaft of the driving member, the driving member is electrically connected with the data analysis and processing module, and the output end of the oxygen-increasing pipe located in the inner cavity of the auxiliary air duct is inclined upward.

[0013] As another improvement of the present application, an auxiliary mechanism is further provided in the physiological detection box, the auxiliary mechanism includes a heat conduction block installed in the inner cavity of the physiological detection box, a heat reverse push bar connected to the heat conduction block, an easily broken baffle provided at one end of the heat reverse push bar close to the high-pressure gas cylinder, and an insertion rod provided on the side of the easily broken baffle away from the heat reverse push bar, the side of the heat conduction block penetrates through the side wall of the physiological detection box and fits with the clothing body, and one end of the insertion rod away from the easily broken baffle is provided with a vulnerable sealing pipe installed at the output end of the high-pressure gas cylinder, and the input ends of the oxygen-increasing pipe and the gas guide pipe correspond to the vulnerable sealing pipe.

[0014] As another improved supplement of the present application, a conducting airway is opened through the insertion rod, the input end of the airway tube corresponds to one end of the conducting airway, and the input end of the oxygenation tube corresponds to the other end of the conducting airway. When the insertion rod is inserted into the fragile sealing tube, the conducting airway connects the fragile sealing tube and the airway tube; when the insertion rod passes through the fragile sealing tube and is inserted into the oxygenation tube, the conducting airway connects the airway tube and the oxygenation tube, and the high-pressure gas filled in the high-pressure gas cylinder is oxygen.

[0015] As another improved supplement of the present application, the end of the penetration rod close to the vulnerable sealing tube is a sharp end, and the conducting airway is in a Y-shaped structure.

[0016] As another improvement of the present application, an early warning module is also provided on the physiological detection intelligent controller, which is electrically connected to the data analysis and processing module. A grid plate is fixed to the end of the thermal push back strip away from the breakable baffle, and a block embedded in the side wall of the physiological detection box is fixed to the end of the grid plate away from the thermal push back strip. An air pressure sensor is installed in the inner cavity of the physiological detection box, and the air pressure sensor is electrically connected to the early warning module.

[0017] As a supplement to another improvement of the present application, a pressure sensor is installed on the side of the breakable baffle away from the thermal thrust strip, and the pressure sensor is electrically connected to the early warning module.

[0018] As a further improvement of the present application, the communication module is wired communication, Wi-Fi communication or Bluetooth communication, and an information plate is affixed to the alarm airbag, on which the information of the user is displayed.

[0019] In summary, through the set physiological detection intelligent controller, information of the human body is detected by dry electrode muscle sensors, heart rate sensors, respiratory wave sensors, body temperature sensors, and blood pressure sensors, and environmental information is detected by oxygen content sensors and temperature sensors. The above information is transmitted to the data analysis and processing module through the data acquisition module for multi-parameter linkage analysis, real-time calculation and linkage analysis of various physiological parameters, and mutual verification of various information to accurately determine whether the human body is in an abnormal state. When the data analysis and processing module determines that there is a problem with the physical state of the monitored person, a reminder signal is sent in a timely manner. The monitoring personnel can view the health status of the monitored person in real time through the remote monitor, provide timely medical advice and intervention to ensure the physical health of the personnel. When the data analysis and processing module determines that the monitored person may be in an oxygen-deficient environment and emergency assistance is required, at this time, the data analysis and processing module controls the solenoid valve to open and the ventilation component to work, and the high-pressure gas (which can be oxygen) in the high-pressure gas cylinder is quickly filled into the alarm airbag, and the alarm airbag is quickly deployed. As shown in the figure, it reminds the nearby personnel to discover and deal with it in time. After the alarm airbag is deployed, the oxygen inside it can be gradually input into the auxiliary air duct through the oxygen-increasing pipe, and the ventilation component quickly transports it to the mouth and nose of the human body to relieve its oxygen-deficient state, perform emergency rescue on the monitored person, and at the same time make a prominent reminder signal to remind the monitoring personnel and the nearby personnel to perform rescue in time. And the data analysis and processing module will perform trend analysis based on the historical health data of the user to discover potential health risks. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 is the overall structural schematic diagram of the first and second embodiments of the present application;

[0021] Figure 2 is the structural schematic diagram after the alarm airbag of the first and second embodiments of the present application expands;

[0022] Figure 3 is the structural schematic diagram of the physiological detection box of the first and second embodiments of the present application;

[0023] Figure 4 is the sectional structural schematic diagram of the auxiliary air duct of the first and second embodiments of the present application;

[0024] Figure 5 is the internal structural schematic diagram of the physiological detection box of the first and second embodiments of the present application;

[0025] Figure 6 is the control principle block diagram of the physiological detection intelligent controller of the first embodiment of the present application;

[0026] Figure 7 is the schematic diagram after the grid plate of the first and second embodiments of the present application is pushed and extended;

[0027] Figure 8 Schematic diagram when the vulnerable blocking tube in the first and second embodiments of this application is inserted by the inserting rod;

[0028] Figure 9 Structural schematic diagram when the vulnerable blocking tube in the first and second embodiments of this application is penetrated by the inserting rod;

[0029] Figure 10 For this application Figure 9 Enlarged schematic diagram at position A in

[0030] Figure 11 Principle block diagram of the physiological detection intelligent controller in the second embodiment of this application.

[0031] Explanation of the reference numerals in the figure:

[0032] 1. Clothing body; 2. Physiological detection box; 3. Auxiliary air duct; 4. Remote monitor; 5. Alarm airbag; 6. Dry electrode muscle sensor; 7. Heart rate sensor; 8. Respiratory wave sensor; 9. Body temperature sensor; 10. Blood pressure sensor; 11. Information plate; 12. Temperature sensor; 13. Oxygen content sensor; 14. Driving member; 15. Ventilation fan blade; 16. Oxygen increasing tube; 17. Heat reverse pushing strip; 18. Physiological detection intelligent controller; 19. Power supply module; 20. Air pressure sensor; 21. Heat conducting block; 22. Grid plate; 23. Block; 24. Easy-to-break baffle; 25. Inserting rod; 26. Air duct; 27. High-pressure gas cylinder; 28. Vulnerable blocking tube; 29. Pressure sensor; 30. Conduction airway. Specific embodiments

[0033] The following describes the two embodiments of this application in detail with reference to the accompanying drawings.

[0034] The first embodiment:

[0035] Figures 1-6Disclosed is a wearable intelligent training device with physiological detection function, including a clothing body 1, a physiological detection box 2, a physiological detection intelligent controller 18 and a remote monitor 4; dry electrode muscle sensors 6, heart rate sensors 7, respiratory wave sensors 8, body temperature sensors 9 and blood pressure sensors 10 are installed on the clothing body 1 for detecting human physiological functions. When the clothing body 1 is worn on the body, the dry electrode muscle sensors 6, heart rate sensors 7, respiratory wave sensors 8, body temperature sensors 9 and blood pressure sensors 10 will be in close contact with the human body, and can continuously monitor human physiological functions. The heart rate sensor 7 collects pulse signals through photoplethysmography (PPG). Specifically, the sensor uses an LED light source and a photodetector to detect the change in blood flow in blood vessels. When the heart beats, the blood flow increases, and the amount of reflected or transmitted light changes. The sensor captures and converts these light signals into electrical signals to obtain heart rate data; the body temperature sensor 9 transmits the data after temperature conversion through a Single-Line bus; the blood pressure sensor 10 measures blood pressure through the pulse wave method. The sensor detects the pulse wave transit time (PTT) and calculates the blood pressure value using a bioelectronics algorithm; the dry electrode muscle sensor 6 amplifies the weak surface electromyogram signal within ±1.5 mV of the human body by 1000 times and effectively suppresses noise through differential input and analog filter circuits; the respiratory wave sensor 8 uses piezoelectric materials to detect the changes in the lung contraction and relaxation pressure generated by human breathing in the human lungs, and outputs respiratory waveform data through circuits such as pre-amplification, signal conditioning, amplitude adjustment, AD, and serial communication.

[0036] In this embodiment, the physiological detection box 2 is installed on the clothing body 1. A vertically arranged auxiliary air duct 3 is fixed on one side of the physiological detection box 2. A ventilation component is installed in the auxiliary air duct 3. An oxygen content sensor 13 and a temperature sensor 12 are installed on the outer shell of the physiological detection box 2. An alarm airbag 5 is installed inside the physiological detection box 2. A high-pressure gas cylinder 27 is installed in the inner cavity of the physiological detection box 2. The output end of the high-pressure gas cylinder 27 is equipped with an electromagnetic valve. The output end of the high-pressure gas cylinder 27 is respectively connected with an oxygen enrichment pipe 16 and a gas guide pipe 26 communicated with the alarm airbag 5. The output end of the oxygen enrichment pipe 16 extends into the inner cavity of the auxiliary air duct 3. The axis of the auxiliary air duct 3 faces the human mouth and nose. The ventilation component drives the air flow near the human body and outputs fresh air to the human mouth and nose through the auxiliary air duct 3, which can actively adjust the human surrounding environment when detecting human discomfort and deliver fresh air to the mouth and nose. When an alarm for human discomfort occurs, the electromagnetic valve at the high-pressure gas cylinder 27 is opened, and the high-pressure gas (which can be oxygen) in the high-pressure gas cylinder 27 is filled into the alarm airbag 5 to quickly deploy the alarm airbag 5, such as Figure 2As shown, it reminds the nearby personnel to discover and handle it in time as soon as possible. After the alarm airbag 5 is deployed, the oxygen inside it can be gradually input into the auxiliary air duct 3 through the oxygen-increasing pipe 16, and the ventilation component is used to quickly transport it to the human mouth and nose to relieve the state of hypoxia.

[0037] It is worth mentioning that the physiological detection intelligent controller 18 is installed in the physiological detection box 2. The physiological detection intelligent controller 18 is provided with a data acquisition module, a data analysis and processing module, an alert module and a communication module. The data acquisition module is electrically connected to the data analysis and processing module, the dry electrode muscle sensor 6, the heart rate sensor 7, the respiratory wave sensor 8, the body temperature sensor 9, the blood pressure sensor 10, the oxygen content sensor 13 and the temperature sensor 12 respectively. The data analysis and processing module is electrically connected to the alert module, the communication module and the ventilation component respectively. The data analysis and processing module is also electrically connected to a power supply module 19 installed in the inner cavity of the physiological detection box 2. The device is powered by the power supply module 19. The remote monitor 4 is electrically connected to the data analysis and processing module through the communication module. A display screen is installed on the remote monitor 4. By wearing the clothing body 1 on the human body, the dry electrode muscle sensor 6, the heart rate sensor 7, the respiratory wave sensor 8, the body temperature sensor 9, the blood pressure sensor 10, the oxygen content sensor 13 and the temperature sensor 12 send the collected corresponding information to the data acquisition module. The information of the human body is detected by the dry electrode muscle sensor 6, the heart rate sensor 7, the respiratory wave sensor 8, the body temperature sensor 9 and the blood pressure sensor 10, and the environmental information is detected by the oxygen content sensor 13 and the temperature sensor 12. The above information is transmitted to the data analysis and processing module through the data acquisition module. The data analysis and processing module analyzes and processes the above information, and conducts multi-parameter linkage analysis, performs real-time calculation and linkage analysis on various physiological parameters. For example, the body temperature information collected by the body temperature sensor 9 is compared with the outdoor temperature information collected by the temperature sensor 12 to exclude the situation where the human body temperature reaches the preset temperature threshold due to too high or too low outdoor temperature. And the heart rate information collected by the heart rate sensor 7 and the respiratory frequency information collected by the respiratory wave sensor 8 are mutually verified to accurately judge whether the human body is in an abnormal state; when the data analysis and processing module judges that the data detected by the dry electrode muscle sensor 6, the heart rate sensor 7, the respiratory wave sensor 8, the body temperature sensor 9 and the blood pressure sensor 10 exceed the normal value, a reminder signal will be sent to the alert module. The alert module reminds the monitored person in the form of sound and light, and sends the above information to the remote monitor 4 through the communication module to realize the automatic push and real-time alarm of abnormal data. The monitoring personnel can view the health status of the monitored person in real time through the remote monitor 4, provide timely medical advice and intervention to ensure the physical health of the personnel. The display screen adopts a high-definition OLED screen, which real-time displays the current physiological parameters (such as heart rate, body temperature, blood pressure, etc.) and analysis results. The screen interface design is intuitive, and users can easily read and understand the data;

[0038] When the data analysis and processing module determines that the body temperature information detected by the body temperature sensor 9 exceeds the temperature threshold under the condition of excluding the interference of outdoor temperature, and determines that the information fed back by the heart rate sensor 7 and the respiratory wave sensor 8 respectively exceeds the heart rate threshold and the respiratory wave threshold, it is determined that the monitored person is in an emergency state. When it is determined that the oxygen content in the environment is lower than the oxygen content threshold through the oxygen content sensor 13, it is determined that the monitored person may be in an oxygen-deficient environment and emergency assistance is required. At this time, the data analysis and processing module controls the solenoid valve to open and the ventilation component to work, and the high-pressure gas (which can be oxygen) in the high-pressure gas cylinder 27 is quickly filled into the alarm airbag 5, and the alarm airbag 5 is quickly deployed, as Figure 2 shown, to remind the nearby personnel to discover and deal with it in time. After the alarm airbag 5 is deployed, the oxygen inside it can be gradually input into the auxiliary air duct 3 through the oxygen-increasing pipe 16, and the ventilation component is used to quickly transport it to the mouth and nose of the human body to relieve its oxygen-deficient state, perform emergency rescue on the monitored person, and at the same time make a prominent reminder signal to remind the monitoring personnel and the nearby personnel to rescue in time; and the data analysis and processing module will perform trend analysis based on the historical health data of the user to discover potential health risks.

[0039] Preferably, please refer to Figure 4 , the ventilation component includes a driving member 14 installed in the middle of the auxiliary air duct 3 and a ventilation fan blade 15 installed on the output shaft of the driving member 14. The driving member 14 is electrically connected to the data analysis and processing module. The output end of the oxygen-increasing pipe 16 located in the inner cavity of the auxiliary air duct 3 is inclined upward. When the data analysis and processing module sends a working signal to the ventilation component, the driving member 14 works to drive the ventilation fan blade 15 to rotate, forming an air flow from bottom to top in the inner cavity of the auxiliary air duct 3, and guiding the oxygen in the alarm airbag 5 to the inner cavity of the auxiliary air duct 3 through the oxygen-increasing pipe 16 and transporting it to the mouth and nose of the human body along with the air flow.

[0040] In addition, the communication module is wired communication, Wi-Fi communication or Bluetooth communication. Through the RS485 bus, the processed physiological data is transmitted to the remote monitor 4 in real time. During the data transmission process, verification is added to ensure the accuracy and stability of the user data transmission. And wireless data transmission is realized by using Wi-Fi or Bluetooth technology. An information plate 11 is pasted on the alarm airbag 5, and the information of the user is displayed on the information plate 11. When the alarm airbag 5 is quickly inflated and expanded, the information plate 11 pasted on the alarm airbag 5 is quickly deployed, which is convenient for the rescue personnel to quickly rescue the user through the information on the information plate 11. The information plate 11 can display relevant first aid information such as the blood type, name and address, and emergency contact information of this person.

[0041] The second implementation method:

[0042] Figure 5 and Figures 7-11There is shown a wearable intelligent training device with physiological detection function. Different from the first embodiment, an auxiliary mechanism is further provided in the physiological detection box 2. The auxiliary mechanism includes a heat conduction block 21 installed in the inner cavity of the physiological detection box 2, a heat reverse push bar 17 connected to the heat conduction block 21, a breakable baffle 24 provided at one end of the heat reverse push bar 17 close to the high-pressure gas cylinder 27, and an insertion rod 25 provided on the side of the breakable baffle 24 away from the heat reverse push bar 17. The side of the heat conduction block 21 penetrates through the side wall of the physiological detection box 2 and fits against the clothing body 1. One end of the insertion rod 25 away from the breakable baffle 24 is provided with a vulnerable sealing pipe 28 installed at the output end of the high-pressure gas cylinder 27. The input ends of the oxygen-increasing pipe 16 and the air guide pipe 26 both correspond to the vulnerable sealing pipe 28. After the clothing body 1 is worn, the heat conduction block 21 will closely adhere to the human body surface and transfer the body temperature to the heat reverse push bar 17. Among them, the heat reverse push bar 17 is made of an elastic material, and a medium that deforms when heated is provided inside it, which can expand in volume when heated, driving the heat reverse push bar 17 to produce an elongation deformation effect. After the heat reverse push bar 17 is heated and elongated, one end will gradually extend towards the side of the breakable baffle 24. When the body temperature exceeds the normal temperature, the elongation amount of the heat reverse push bar 17 will break the breakable baffle 24 and push the insertion rod 25 to move. The insertion rod 25 will pierce the vulnerable sealing pipe 28, and the high-pressure oxygen in the high-pressure gas cylinder 27 will be discharged and enter the air guide pipe 26, and the alarm airbag 5 will be quickly inflated through the air guide pipe 26. The inflation of the alarm airbag 5 plays a warning role. The oxygen-increasing pipe 16 with an upward-tilted outlet can guide the oxygen in the alarm airbag 5 to the mouth and nose of the monitored person; in addition, in cooperation with the ventilation component, the oxygen filled in the alarm airbag 5 can be better quickly guided to the mouth and nose of the monitored person, improving the nearby air environment. Therefore, according to the change of the human body temperature, when the temperature is abnormal, the monitored person can be automatically emergently treated and assisted through the elongation of the heat reverse push bar 17, avoiding the situation that the monitored person is not treated in time when the electronic control equipment fails, providing a set of backup passive rescue methods, and improving the reliability of the equipment.

[0043] In addition, the side wall of the physiological detection box 2 is provided with a heat insulation coating, which can play a certain role in shielding the environmental temperature and reducing the change of the length of the heat reverse push bar 17 caused by the external environmental temperature.

[0044] In this embodiment, please refer to Figures 8-10A conducting airway 30 is provided through the insertion rod 25, the input end of the airway tube 26 corresponds to one end of the conducting airway 30, and the input end of the oxygenation tube 16 corresponds to the other end of the conducting airway 30. When the insertion rod 25 is inserted into the vulnerable sealing tube 28, the conducting airway 30 connects the vulnerable sealing tube 28 with the airway 26; when the insertion rod 25 passes through the vulnerable sealing tube 28 and is inserted into the oxygenation tube 16, the conducting airway 30 connects the airway 26 with the oxygenation tube 16. The high-pressure gas filled in the high-pressure gas cylinder 27 is oxygen. The end of the insertion rod 25 close to the vulnerable sealing tube 28 is a sharp end. The conducting airway 30 is a Y-shaped structure. When the heat-reverse push strip 17 is heated and elongated, it will push the insertion rod 25 to be inserted into the vulnerable sealing tube 28. Figure 8 As shown, at this time, the high-pressure gas in the high-pressure gas cylinder 27 enters the air guide tube 26 through the conductive airway 30, and the alarm airbag 5 is quickly inflated. In the process of continuous extension of the heat reverse push strip 17, the heat reverse push strip 17 will push the front end of the insertion rod 25 to be inserted into the oxygenation tube 16, as shown in FIG. Figure 9 As shown, at this time, the high-pressure oxygen filled in the alarm airbag 5 enters the oxygenation tube 16 through the conductive airway 30, mixes with the air in the auxiliary air duct 3 and is transported to the mouth and nose of the monitored person, increasing the oxygen content in the inhaled air and providing emergency treatment.

[0045] It is worth mentioning that an early warning module is also provided on the physiological detection intelligent controller 18. The early warning module is electrically connected to the data analysis and processing module. A grid plate 22 is fixed to one end of the thermal reverse push bar 17 away from the easily broken baffle 24. A block 23 that is embedded in the side wall of the physiological detection box 2 is fixed to one end of the grid plate 22 away from the thermal reverse push bar 17. A pressure sensor 20 is installed in the inner cavity of the physiological detection box 2. The pressure sensor 20 is electrically connected to the early warning module. A pressure sensor 29 is installed on one side of the easily broken baffle 24 away from the thermal reverse push bar 17. The pressure sensor 29 is electrically connected to the early warning module. When the environmental temperature is too high, even if the physiological detection box 2 has a certain heat insulation ability, the temperature inside the physiological detection box 2 will inevitably increase to some extent, thereby increasing the internal pressure of the physiological detection box 2. The pressure sensor 20 sends the detected pressure data inside the physiological detection box 2 to the early warning module. When the early warning module detects that the pressure data sent by the pressure sensor 20 exceeds the preset value (a range value of the increase in the pressure inside the physiological detection box 2 is preset in the early warning module), the early warning module sends an environmental temperature warning to the data analysis and processing module, reminding that the outdoor temperature environment is not suitable for outdoor sports. At the same time, after the thermal reverse push bar 17 is heated and elongated, it will push the grid plate 22 at its end to move. The grid plate 22 synchronously pushes the block 23 to disengage from the engagement with the side wall of the physiological detection box 2. At this time, the internal cavity of the physiological detection box 2 is in air pressure balance with the outside. The pressure sensor 20 detects that the air pressure returns to the normal value, and at the same time, heat dissipation is carried out inside the physiological detection box 2, so that the thermal reverse push bar 17 can change more accurately with the human body temperature; when the human body temperature is higher than the normal range, the thermal reverse push bar 17 elongates and pierces through the easily broken baffle 24. At this time, the pressure sensor 29 detects the pressure value and sends it to the early warning module. The early warning module sends an early warning signal of too high body temperature to the data analysis and processing module. The data analysis and processing module sends the corresponding reminder signal to the remote monitor 4 through the communication module to give an early warning to the monitoring personnel, facilitating the monitoring personnel to prepare the corresponding first aid equipment and first aid measures in advance; the heat conducting block 21 is installed at one end of the thermal reverse push bar 17 close to the grid plate 22, so that the elongation range of one end of the thermal reverse push bar 17 close to the easily broken baffle 24 is larger, which can better pierce through the easily broken baffle 24.

[0046] Combined with the current actual requirements, the above implementation manner adopted in this application, the protection scope is not limited thereto. Within the scope of knowledge possessed by those skilled in the art, various changes made without departing from the concept of this application still fall within the protection scope of the present invention.

Claims

1. A wearable intelligent training device with physiological detection function, characterized in that: include: A clothing body (1), on which a dry electrode muscle sensor (6), a heart rate sensor (7), a respiratory wave sensor (8), a body temperature sensor (9) and a blood pressure sensor (10) are installed for detecting human physiological functions; A physiological detection box (2), the physiological detection box (2) being mounted on a clothing body (1), a vertically arranged auxiliary air duct (3) being fixed on one side of the physiological detection box (2), a ventilation assembly being mounted in the auxiliary air duct (3), an oxygen content sensor (13) and a temperature sensor (12) being mounted on the outer shell of the physiological detection box (2), an alarm airbag (5) being embedded in the physiological detection box (2), a high-pressure gas cylinder (27) being mounted in the inner cavity of the physiological detection box (2), an electromagnetic valve being mounted at the output end of the high-pressure gas cylinder (27), an oxygenation tube (16) and an air guide tube (26) being connected to the alarm airbag (5) being connected to the output end of the high-pressure gas cylinder (27), respectively, and the output end of the oxygenation tube (16) extending to the inner cavity of the auxiliary air duct (3); The physiological detection box (2) is also provided with an auxiliary mechanism, which comprises a heat conductive block (21) installed in the inner cavity of the physiological detection box (2), a heat reverse push strip (17) connected to the heat conductive block (21), a breakable baffle (24) arranged at one end of the heat reverse push strip (17) close to the high-pressure gas cylinder (27), and an insertion rod (25) arranged at the side of the breakable baffle (24) away from the heat reverse push strip (17). The side of the heat conductive block (21) penetrates the side wall of the physiological detection box (2) and fits with the clothing body (1). The end of the insertion rod (25) away from the breakable baffle (24) is provided with a breakable sealing tube (28) installed with the output end of the high-pressure gas cylinder (27). The insertion rod (25) is provided with a conductive gas pipe (28) extending through the side wall of the physiological detection box (2). The air guide tube (26) is provided with a conductive airway (30), the input end of the air guide tube (26) corresponds to one end of the conductive airway (30), the input end of the oxygenation tube (16) corresponds to the other end of the conductive airway (30), when the insertion rod (25) is inserted into the fragile sealing tube (28), the conductive airway (30) connects the fragile sealing tube (28) and the air guide tube (26); when the insertion rod (25) passes through the fragile sealing tube (28) and is inserted into the oxygenation tube (16), the conductive airway (30) connects the air guide tube (26) and the oxygenation tube (16), the high-pressure gas filled in the high-pressure gas cylinder (27) is oxygen, the end of the insertion rod (25) close to the fragile sealing tube (28) is a sharp end, and the conductive airway (30) is a Y-shaped structure.

2. A wearable intelligent training device with physiological detection function according to claim 1, characterized in that: It also includes a physiological detection intelligent controller (18), which is installed in the physiological detection box (2). The physiological detection intelligent controller (18) is provided with a data acquisition module, a data analysis and processing module, an alert module and a communication module. The data acquisition module is electrically connected to the data analysis and processing module, the dry electrode muscle sensor (6), the heart rate sensor (7), the respiratory wave sensor (8), the body temperature sensor (9), the blood pressure sensor (10), the oxygen content sensor (13) and the temperature sensor (12). The data analysis and processing module is electrically connected to the alert module, the communication module and the ventilation component. The data analysis and processing module is also electrically connected to a power supply module (19) installed in the inner cavity of the physiological detection box (2); A remote monitor (4), the remote monitor (4) being electrically connected to the data analysis and processing module via the communication module, and the remote monitor (4) being provided with a display screen; The ventilation assembly comprises a driving member (14) installed in the middle of the auxiliary air duct (3) and a ventilation fan blade (15) installed on an output shaft of the driving member (14); the driving member (14) is electrically connected to a data analysis and processing module; and the output end of the oxygenation pipe (16) located in the inner cavity of the auxiliary air duct (3) is tilted upward.

3. A wearable intelligent training device with physiological detection function according to claim 2, characterized in that: The physiological detection intelligent controller (18) is also provided with an early warning module, and the early warning module is electrically connected to the data analysis and processing module. A mesh plate (22) is fixed to one end of the thermal push back strip (17) away from the breakable baffle (24), and a block (23) embedded in the side wall of the physiological detection box (2) is fixed to one end of the mesh plate (22) away from the thermal push back strip (17). An air pressure sensor (20) is installed in the inner cavity of the physiological detection box (2), and the air pressure sensor (20) is electrically connected to the early warning module.

4. A wearable intelligent training device with physiological detection function according to claim 3, characterized in that: A pressure sensor (29) is installed on the side of the breakable baffle (24) away from the thermal push-back strip (17), and the pressure sensor (29) is electrically connected to the early warning module.

5. The wearable intelligent training device with physiological detection function according to claim 2 is characterized in that: The communication module is wired communication, Wi-Fi communication or Bluetooth communication, and an information plate (11) is attached to the alarm airbag (5), and the information plate (11) displays the user's information.

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