High-altitude exercise auxiliary equipment

Abstract

The invention discloses high-altitude exercise auxiliary equipment, and belongs to the technical field of high-altitude exercise assistion.The high-altitude exercise auxiliary equipment comprises a fixing waistband, a fixing clamping plate and a fixing clamping block are fixed to the two ends of the fixing waistband respectively, and the fixing clamping plate is matched with the fixing clamping block; a first sliding part, an oxygen inhalation assembly, a second sliding part, a plurality of third sliding parts and a fourth sliding part are slidably connected to the surface of the fixed waistband, an oxygen supply mechanism is arranged on the surface of the first sliding part and communicates with the oxygen inhalation assembly, and a pipe winding mechanism is arranged on the surface of the second sliding part and communicates with the oxygen inhalation assembly; and supporting rods are arranged on the surfaces of the third sliding parts, the two ends of each supporting rod are provided with a thread line and a first thread groove correspondingly, an auxiliary mechanism is arranged on the surface of one third sliding part, and a plurality of monitoring mechanisms are arranged on the inner side of the fourth sliding part. On the basis of assisting in high-altitude exercise, the body condition of the user can be monitored, and convenience can be brought to exercise of the user.

Description

Technical Field

[0001] The present invention relates to the technical field of high-altitude sports assistance, and more particularly to a high-altitude sports assistance device. Background Art

[0002] High-altitude sports refer to various sports activities performed in areas with higher altitudes, which usually refer to places above 2,500 meters above sea level. The low oxygen environment in high-altitude areas has a significant impact on the human body, so high-altitude sports require special preparation and equipment.

[0003] Altitude sickness refers to a series of physiological reactions caused by low oxygen environment after the human body enters a high altitude area in a short period of time. Common symptoms include headache, nausea, vomiting, fatigue, insomnia, etc. Severe altitude sickness may lead to high altitude pulmonary edema and high altitude cerebral edema, which are life-threatening.

[0004] At high altitudes, the oxygen concentration drops significantly. Oxygen supply equipment can help climbers relieve altitude sickness and improve physical fitness and safety. Traditional high-altitude sports auxiliary equipment is usually large and not portable. At the same time, traditional high-altitude sports auxiliary equipment has relatively single functionality, which makes it inconvenient to meet the requirements of high-altitude exercise. Summary of the invention

[0005] 1. Technical issues to be solved

[0006] In view of the problems existing in the prior art, the purpose of the present invention is to provide a high-altitude exercise assisting device. On the basis of assisting high-altitude exercise, the present invention can also monitor the user's physical condition and bring convenience to the user's exercise.

[0007] 2. Technical solution

[0008] To solve the above problems, the present invention adopts the following technical solutions:

[0009] A high-altitude sports auxiliary equipment comprises: a fixed waist belt, wherein a fixed card plate and a fixed card block are respectively fixed at two ends of the fixed waist belt, and the fixed card plate is adapted to the fixed card block; a first sliding member, an oxygen absorption component, a second sliding member, a plurality of third sliding members and a fourth sliding member are slidably connected on the surface of the fixed waist belt; an oxygen supply mechanism is provided on the surface of the first sliding member, and the oxygen supply mechanism is connected to the oxygen absorption component; a tube winding mechanism is provided on the surface of the second sliding member; a support rod is provided on the surface of the third sliding member, and a thread line and a first thread groove are respectively provided at two ends of the support rod; an auxiliary mechanism is provided on the surface of one of the third sliding members; and a plurality of monitoring mechanisms are provided on the inner side of the fourth sliding member.

[0010] As a preferred solution of the present invention, the oxygen supply mechanism comprises an oxygen cylinder arranged inside the first sliding member, an observation plate is installed on the front surface of the oxygen cylinder, a flow meter is installed on the surface of one side of the oxygen cylinder, the oxygen cylinder and the flow meter are connected through a control valve, and an oxygen supply pipe is arranged and connected on the surface of the flow meter;

[0011] The oxygen inhalation assembly includes an oxygen inhalation mask and a second connecting belt arranged on both sides of the fixed waist belt surface, a nasal mask is installed on the front surface of the oxygen inhalation mask, and the nasal mask is connected to the oxygen supply tube, a breathing valve is installed on the front surface of the oxygen inhalation mask and on both sides of the nasal mask, two first connecting belts are fixed to the upper and lower surfaces of the oxygen inhalation mask, a first binding strap is fixed to the surface of the first connecting belt by bolts, a first locking piece is rotatably connected to the surface of the first binding strap, and locking blocks adapted to the first locking piece are fixed to multiple ends of the second connecting belt.

[0012] As a preferred solution of the present invention, the tube winding mechanism includes a protection box arranged on the inner side of the second sliding member, the inner wall of the protection box is rotatably connected to a tube winding roller, and the oxygen supply tube is wound around the surface of the tube winding roller, the inner wall of the protection box and one side of the tube winding roller is rotatably connected to a reciprocating screw rod, the surface of the reciprocating screw rod is threadedly connected to an internal thread plate, and the surface of the internal thread plate is rotatably connected to an auxiliary roller adapted to the oxygen supply tube;

[0013] The upper surface of the protection box is provided with a first guide groove adapted to the oxygen delivery tube, a limit plate is fixed to one side of the inner wall of the protection box, and a sliding block fixedly connected to the inner thread plate is slidably connected to the surface of the limit plate;

[0014] The tube winding roller and one end of the reciprocating screw rod are both fixedly connected with pulleys, and the two pulleys are rotationally connected through a transmission belt. A servo motor is installed on the surface of the protection box, and the output shaft of the servo motor is fixedly connected to one side of the tube winding roller.

[0015] As a preferred solution of the present invention, the auxiliary mechanism comprises a connecting rod arranged on the inner side of a third sliding member, the bottom of the connecting rod is provided with a second thread groove adapted to the thread line of one end of the support rod, a hammer rod is fixed on the upper surface of the connecting rod, a limiting shell is fixed on the upper surface of the connecting rod and located outside the hammer rod, a hammer head is provided on the surface of one side of the hammer rod, a chisel rod is rotatably connected to the surface of the hammer rod, and mutually staggered crushing teeth are provided on the surface of the hammer head opposite to the crushing teeth;

[0016] The surface of the limiting shell is slidably connected with an arc-shaped plate adapted to the chisel rod, two spring telescopic rods are fixed on both sides of the surface of the arc-shaped plate close to the limiting shell, a push plate is fixed at one end of the outer side of the spring telescopic rod, two protrusions are provided on the outer surface of the push plate, holes and grooves adapted to the protrusions are opened on the surface of the limiting shell, an auxiliary block is fixed on the outer surface of the push plate, and a second guide groove adapted to the auxiliary block is opened on the surface of the arc-shaped plate.

[0017] As a preferred solution of the present invention, the monitoring mechanism includes a monitoring instrument body arranged on the inner side of a fourth sliding member, a switch is installed on the surface of one side of the monitoring instrument body, and the upper and lower sides of the monitoring instrument body are rotatably connected to the second straps, one end of the outer side of the second strap on one side is rotatably connected to the second locking member, two limiting ring belts are slidably connected to the surface of the second strap and located on the inner side of the second locking member, and a plurality of limiting lock holes corresponding to the second locking member are opened on the surface of the second strap on the other side.

[0018] As a preferred solution of the present invention, a blood oxygen saturation monitoring module, a heart rate monitoring module, a breathing and sleep monitoring module, a body temperature monitoring module, an activity monitoring module, a comprehensive data analysis module, a user input module, an alarm notification module, a data synchronization storage module and an oxygen supply control module are arranged on the inner side of the monitor body;

[0019] The blood oxygen saturation monitoring module is used to continuously monitor the blood oxygen saturation, the heart rate monitoring module is used to continuously monitor the heart rate, the breathing and sleep monitoring module is used to monitor the breathing status and skin conductance changes to estimate the breathing rate while monitoring the sleep quality and cycle, and identifying whether there is apnea or frequent awakenings, the body temperature monitoring module is used to monitor the user's real-time body temperature changes, the activity monitoring module is used to monitor daily activity and identify whether there is a sudden decrease in physical strength, the comprehensive data analysis module is used to combine multiple data for comprehensive analysis, the user input module is used to allow the user to input subjective feelings and symptoms, the alarm notification module is used to remind the user when the above modules detect abnormal conditions, the data synchronization storage module is used to record and store all monitoring data, and the oxygen supply control module is used to control the oxygen supply mechanism.

[0020] As a preferred solution of the present invention, the blood oxygen saturation monitoring module includes a blood oxygen optical emission module, a photoelectric detection module, an analog front-end unit, a heart rate signal processing unit and a blood oxygen data statistics unit;

[0021] The blood oxygen optical emission unit is used to emit 660nm red light and 940nm infrared light to the human body, the 660nm red light is used to detect the absorption of arterial blood, and the 940nm infrared light is used to distinguish the absorption of arterial blood and other tissues, the photoelectric detection unit is used to detect the intensity of light after passing through the tissue and convert the optical signal into an electrical signal, the analog front-end unit is used to amplify, filter and perform analog-to-digital conversion on the electrical signal generated by the photoelectric detection unit, the heart rate signal processing unit is used to calculate the blood oxygen saturation according to the BeerLambert law, and the blood oxygen data statistics unit is used to store blood oxygen saturation data and related timestamps, and transmit the data to the data synchronization storage module.

[0022] As a preferred solution of the present invention, the heart rate monitoring module includes a heart rate optical sensing unit, a heart rate signal processing unit, an algorithm analysis unit and a heart rate data statistics unit;

[0023] The heart rate optical sensing unit is used to detect changes in blood flow by emitting green LED light to illuminate the skin and the amount of light reflected back. The heart rate signal processing unit is used to collect data from the heart rate optical sensing unit and remove noise and enhance signals. The algorithm analysis unit is used to calculate the user's heart rate value through the PPG algorithm. The heart rate data statistics unit is used to save the collected heart rate information and send it to the data synchronization storage module for further analysis or long-term storage.

[0024] As a preferred solution of the present invention, the breathing and sleep monitoring module includes an acceleration sensor, a photoplethysmography sensor unit, a gyroscope, a breathing and sleep signal processing unit and a breathing and sleep data statistics unit;

[0025] The acceleration sensor is used to measure the user's movement and body position changes, the photoplethysmography sensor unit is used to monitor blood flow changes through optical signals to distinguish different sleep stages, the gyroscope is used to assist the acceleration sensor in measuring angular velocity and rotation direction, the breathing and sleep signal processing unit is used to analyze acceleration data and photoplethysmography data to calculate the user's breathing frequency, and the breathing and sleep data statistics unit is used to store sleep data and transmit the data to the data synchronization storage module.

[0026] As a preferred solution of the present invention, the body temperature monitoring module includes a temperature sensor, a thermistor, an infrared temperature sensor, a humidity sensor, an air pressure sensor, a body temperature signal processing unit and a body temperature data statistics unit;

[0027] The temperature sensor is used to provide real-time temperature of the contact part between the skin and the wearable device, and at the same time assists in judging the user's sleep state by monitoring changes in body temperature. The thermistor is used to measure temperature changes in a local area. The infrared temperature sensor is used to detect infrared radiation emitted by an object to measure temperature. The humidity sensor is used to measure the relative humidity in the environment. The air pressure sensor is used to measure atmospheric pressure. The body temperature signal processing unit is used to process the collected raw data. The body temperature data statistics unit is used to store the body temperature data and transmit the data to the data synchronization storage module.

[0028] 3. Beneficial effects

[0029] Compared with the prior art, the advantages of the present invention are:

[0030] (1) The present invention facilitates fixing the fixed belt on the surface of the user's body through the fixed clamp plate and the fixed clamp block, and the monitoring mechanism is worn on the user's arm. At this time, the patient's physical characteristics are monitored by the monitoring mechanism. At this time, multiple support rods can be assembled through the thread line and the first thread groove, and then the auxiliary mechanism is installed on the top of the support rod. At this time, the user can be assisted to perform high-altitude exercises. Then, the oxygen absorption component is worn on the user's face. When the monitoring mechanism detects that the user has an abnormal situation, the oxygen supply mechanism is activated. At this time, oxygen is supplied to the user through the oxygen supply mechanism and the oxygen absorption component, and the pipeline of the oxygen supply mechanism can be wound through the second sliding member.

[0031] (2) The altitude sickness detection function integrated into the monitoring mechanism of the present invention can monitor the physiological indicators of the user in real time, timely discover the early signs of altitude sickness, and avoid serious consequences. The coordinated use of the support rod and the auxiliary mechanism improves the user's ability to cope with emergencies. The oxygen supply mechanism and the oxygen absorption component can quickly provide oxygen in an emergency, alleviate altitude sickness, and improve the survival rate. At the same time, the burden of carrying multiple devices is reduced, the convenience of use is improved, and the monitoring mechanism is used to record the user's climbing data to help the user better understand his or her physical condition and climbing performance. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 A first-perspective stereoscopic image of a high-altitude sports auxiliary device according to the present invention;

[0033] Figure 2 A second perspective stereogram of a high-altitude sports auxiliary device according to the present invention;

[0034] Figure 3 A third-view stereoscopic diagram of a high-altitude exercise assisting device according to the present invention;

[0035] Figure 4It is a schematic diagram of an oxygen absorption component in a high-altitude sports auxiliary device of the present invention;

[0036] Figure 5 It is a schematic diagram of a pipe winding mechanism in a high altitude sports auxiliary device of the present invention;

[0037] Figure 6 It is a closed schematic diagram of an auxiliary mechanism in a high-altitude sports auxiliary device of the present invention;

[0038] Figure 7 It is a schematic diagram of the deployment of an auxiliary mechanism in a high-altitude sports auxiliary device of the present invention;

[0039] Figure 8 It is a partial structural schematic diagram of an auxiliary mechanism in a high-altitude sports auxiliary device of the present invention;

[0040] Fig. 9 The figure is a schematic diagram of a detection mechanism in a high-altitude sports auxiliary device of the present invention.

[0041] Description of the numbers in the figure:

[0042] 1. Fixed waist belt; 2. Fixed card plate; 3. Fixed card block; 4. First sliding member; 5. Oxygen supply mechanism; 501. Oxygen cylinder; 502. Observation board; 503. Control valve; 504. Flow meter; 505. Oxygen supply tube; 6. Oxygen inhalation assembly; 601. Oxygen inhalation mask; 602. Nasal mask; 603. Breathing valve; 604. First connecting belt; 605. Second connecting belt; 606. First binding belt; 607. First locking member; 608. Locking block; 7. Second sliding member; 8. Pipe winding mechanism; 801. Protection box; 802. Pipe winding roller; 803. Reciprocating screw rod; 804. Internal thread plate; 805. Auxiliary roller; 806. First guide groove; 807. Limit plate; 808. Sliding block; 80 9. Pulley; 810. Drive belt; 811. Servo motor; 9. Third sliding member; 10. Support rod; 11. Auxiliary mechanism; 1101. Connecting rod; 1102. Limiting shell; 1103. Hammer rod; 1104. Hammer head; 1105. Chisel rod; 1106. Crushing teeth; 1107. Arc plate; 1108. Spring telescopic rod; 1109. Push plate; 1110. Bump; 1111. Hole groove; 1112. Auxiliary block; 1113. Second guide groove; 12. Fourth sliding member; 13. Monitoring mechanism; 1301. Monitoring instrument body; 1302. Switch; 1303. Second binding strap; 1304. Second locking member; 1305. Limiting ring belt; 1306. Limiting lock hole. DETAILED DESCRIPTION

[0043] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0044] Example:

[0045] See also Figure 1-9 A high-altitude sports auxiliary equipment comprises: a fixed waist belt 1, a fixed card plate 2 and a fixed card block 3 are respectively fixed at both ends of the fixed waist belt 1, and the fixed card plate 2 is adapted to the fixed card block 3, a first sliding member 4, an oxygen absorption component 6, a second sliding member 7, a plurality of third sliding members 9 and a fourth sliding member 12 are slidably connected on the surface of the fixed waist belt 1, an oxygen supply mechanism 5 is arranged on the surface of the first sliding member 4, and the oxygen supply mechanism 5 is connected to the oxygen absorption component 6, a tube winding mechanism 8 is arranged on the surface of the second sliding member 7, a support rod 10 is arranged on the surface of the third sliding member 9, and a thread line and a first thread groove are respectively arranged at both ends of the support rod 10, an auxiliary mechanism 11 is arranged on the surface of one of the third sliding members 9, and a plurality of monitoring mechanisms 13 are arranged on the inner side of the fourth sliding member 12.

[0046] In a specific embodiment of the present invention, the fixed belt 1 is conveniently fixed to the surface of the user's body by fixing the clamp plate 2 and the fixed clamp block 3, and the monitoring mechanism 13 is worn on the user's arm. At this time, the patient's physical characteristics are monitored by the monitoring mechanism 13. At this time, multiple support rods 10 can be assembled through thread lines and first thread grooves, and then the auxiliary mechanism 11 is installed on the top of the support rod 10. At this time, the user can be assisted to perform high-altitude exercises, and then the oxygen absorption component 6 is worn on the user's face. When the monitoring mechanism 13 detects that the user has an abnormal situation, the oxygen supply mechanism 5 is started. At this time, oxygen is supplied to the user through the oxygen supply mechanism 5 and the oxygen absorption component 6, and the pipeline of the oxygen supply mechanism 5 can be wound through the second sliding member 7.

[0047] Specifically, the oxygen supply mechanism 5 includes an oxygen cylinder 501 disposed inside the first sliding member 4, an observation plate 502 is installed on the front surface of the oxygen cylinder 501, a flow meter 504 is installed on the surface of one side of the oxygen cylinder 501, the oxygen cylinder 501 and the flow meter 504 are connected through a control valve 503, and an oxygen supply pipe 505 is arranged on the surface of the flow meter 504 and connected;

[0048] The oxygen inhalation assembly 6 includes an oxygen inhalation mask 601 and a second connecting belt 605 arranged on both sides of the surface of the fixed waist belt 1. A nasal mask 602 is installed on the front surface of the oxygen inhalation mask 601, and the nasal mask 602 is connected to the oxygen supply tube 505. A breathing valve 603 is installed on the front surface of the oxygen inhalation mask 601 and on both sides of the nasal mask 602. Two first connecting belts 604 are fixed to the surfaces of the upper and lower sides of the oxygen inhalation mask 601. A first binding strap 606 is fixed to the surface of the first connecting belt 604 by bolts. A first locking piece 607 is rotatably connected to the surface of the first binding strap 606. Locking blocks 608 adapted to the first locking piece 607 are fixed to multiple ends of the second connecting belt 605.

[0049] In a specific embodiment of the present invention, the length of the second connecting strap 605 can be adjusted by the first strap 606, the first locking piece 607 and the locking block 608, and then the oxygen mask 601 is worn on the surface of the user through the second connecting strap 605. Oxygen can be stored through the oxygen cylinder 501, and the control valve 503 can be started to release the oxygen inside the oxygen cylinder 501. Then the oxygen is delivered to the nasal mask 602 through the flow meter 504 and the oxygen supply tube 505. At this time, oxygen is supplied to the user through the nasal mask 602, and the user breathes through the breathing valve 603.

[0050] Specifically, the tube winding mechanism 8 includes a protection box 801 disposed on the inner side of the second sliding member 7, the inner wall of the protection box 801 is rotatably connected to a tube winding roller 802, and the oxygen supply tube 505 is wound around the surface of the tube winding roller 802, the inner wall of the protection box 801 and one side of the tube winding roller 802 is rotatably connected to a reciprocating screw 803, the surface of the reciprocating screw 803 is threadedly connected to an internal thread plate 804, and the surface of the internal thread plate 804 is rotatably connected to an auxiliary roller 805 adapted to the oxygen supply tube 505;

[0051] The upper surface of the protection box 801 is provided with a first guide groove 806 adapted to the oxygen delivery tube 505. A limit plate 807 is fixed to one side of the inner wall of the protection box 801. A sliding block 808 fixedly connected to the inner thread plate 804 is slidably connected to the surface of the limit plate 807.

[0052] One end of the tube winding roller 802 and the reciprocating screw rod 803 are fixedly connected with a pulley 809, and the two pulleys 809 are rotatably connected through a transmission belt 810. A servo motor 811 is installed on the surface of the protection box 801, and the output shaft of the servo motor 811 is fixedly connected to one side of the tube winding roller 802.

[0053] In a specific embodiment of the present invention, when the oxygen supply tube 505 needs to be reeled up, the servo motor 811 is started, and the output shaft of the servo motor 811 drives the tube winding roller 802 to rotate, thereby reeling up the oxygen supply tube 505. At the same time, the reciprocating screw 803 is driven to rotate under the action of the pulley 809 and the transmission belt 810. The rotation of the reciprocating screw 803 drives the internal thread plate 804 and the auxiliary roller 805 to move, thereby assisting the oxygen supply tube 505 to be laid flat on the surface of the tube winding roller 802. When the internal thread plate 804 moves, it drives the sliding block 808 to move on the surface of the limit plate 807, thereby increasing the stability of the internal thread plate 804 when moving.

[0054] Specifically, the auxiliary mechanism 11 includes a connecting rod 1101 arranged on the inner side of a third sliding member 9, a second thread groove adapted to the thread line of one end of the support rod 10 is provided at the bottom of the connecting rod 1101, a hammer rod 1103 is fixed on the upper surface of the connecting rod 1101, a limiting shell 1102 is fixed on the upper surface of the connecting rod 1101 and located on the outer side of the hammer rod 1103, a hammer head 1104 is provided on the surface of one side of the hammer rod 1103, a chisel rod 1105 is rotatably connected to the surface of the hammer rod 1103, and mutually staggered crushing teeth 1106 are provided on the surface of the hammer head 1104 and the crushing teeth 1106;

[0055] The surface of the limiting shell 1102 is slidably connected with an arc plate 1107 adapted to the chisel rod 1105, and two spring telescopic rods 1108 are fixed on both sides of the surface of the arc plate 1107 close to the limiting shell 1102, and a push plate 1109 is fixed to one end of the outer side of the spring telescopic rod 1108, and two protrusions 1110 are provided on the outer surface of the push plate 1109, and a hole groove 1111 adapted to the protrusion 1110 is provided on the surface of the limiting shell 1102, an auxiliary block 1112 is fixed to the outer surface of the push plate 1109, and a second guide groove 1113 adapted to the auxiliary block 1112 is provided on the surface of the arc plate 1107.

[0056] In a specific embodiment of the present invention, cone striking can be performed by the hammer head 1104, and chiseling can be performed by the chisel rod 1105. When crushing work is required, the auxiliary block 1112 is moved on the surface of the second guide groove 1113. The movement of the auxiliary block 1112 drives the push plate 1109 and the protrusion 1110 away from the hole groove 1111 and charges the spring telescopic rod 1108. Then, the arc plate 1107 is moved on the surface of the limiting shell 1102 and the arc plate 1107 is away from the chisel rod 1105. At this time, the chisel rod 1105 can be moved, so that the crushing teeth 1106 can be used for crushing work, and the connecting rod 1101 can be threadedly connected to the top of the support rod 10. At this time, the auxiliary mechanism 11 and the auxiliary mechanism 11 can be used as a trekking pole.

[0057] Specifically, the monitoring mechanism 13 includes a monitoring instrument body 1301 arranged on the inner side of the fourth sliding member 12, a switch 1302 is installed on the surface of one side of the monitoring instrument body 1301, and the second straps 1303 are rotatably connected to the upper and lower sides of the monitoring instrument body 1301. One end of the outer side of the second strap 1303 on one side is rotatably connected to the second lock 1304, and two limiting ring belts 1305 are slidably connected to the surface of the second strap 1303 and located on the inner side of the second lock 1304, and a plurality of limiting lock holes 1306 corresponding to the second lock 1304 are opened on the surface of the second strap 1303 on the other side.

[0058] In a specific embodiment of the present invention, the monitor body 1301 is fitted onto the user, and then the limiting lock hole 1306 on one side is passed through the second locking piece 1304, and then the second locking piece 1304 is inserted into the limiting lock hole 1306, so as to fix the monitor body 1301 on the user's arm, and then the limiting lock hole 1306 is inserted into the limiting ring belt 1305, so as to store the limiting lock hole 1306.

[0059] Specifically, the inner side of the monitor body 1301 is provided with a blood oxygen saturation monitoring module, a heart rate monitoring module, a breathing and sleep monitoring module, a body temperature monitoring module, an activity monitoring module, a comprehensive data analysis module, a user input module, an alarm notification module, a data synchronization storage module and an oxygen supply control module;

[0060] The blood oxygen saturation monitoring module is used to continuously monitor the blood oxygen saturation, the heart rate monitoring module is used to continuously monitor the heart rate, the breathing and sleep monitoring module is used to monitor the breathing status and skin conductance changes to estimate the breathing rate and monitor the sleep quality and cycle at the same time, and identify whether there is apnea or frequent awakenings, the body temperature monitoring module is used to monitor the user's real-time body temperature changes, the activity monitoring module is used to monitor daily activity and identify whether there is a sudden decrease in physical strength, the comprehensive data analysis module is used to combine multiple data for comprehensive analysis and generate a health report, the user input module is used to allow the user to input subjective feelings and symptoms, the alarm notification module is used to remind the user through vibration and sound screen display when the above modules detect abnormal conditions, the data synchronization storage module is used to record and store all monitoring data, so that users and doctors can view historical records, and the oxygen supply control module is used to control the oxygen supply mechanism 5.

[0061] Specifically, the blood oxygen saturation monitoring module includes a blood oxygen optical emission module, a photoelectric detection module, an analog front-end unit, a heart rate signal processing unit and a blood oxygen data statistics unit;

[0062] The blood oxygen optical emission unit is used to emit 660nm red light and 940nm infrared light to the human body. The 660nm red light is used to detect the absorption of arterial blood, and the 940nm infrared light is used to distinguish the absorption of arterial blood and other tissues. The photoelectric detection unit is used to detect the light intensity after passing through the tissue and convert the optical signal into an electrical signal. The analog front-end unit is used to amplify, filter and analog-to-digital convert the electrical signal generated by the photoelectric detection unit for further digital processing. The heart rate signal processing unit is used to calculate the blood oxygen saturation through the BeerLambert law and extract the absorption characteristics of arterial blood. The blood oxygen data statistics unit is used to store the blood oxygen saturation data and related timestamps, and transmit the data to the data synchronization storage module.

[0063] Specifically, the heart rate monitoring module includes a heart rate optical sensing unit, a heart rate signal processing unit, an algorithm analysis unit and a heart rate data statistics unit;

[0064] The heart rate optical sensor unit is used to detect changes in blood flow by emitting green LED light to illuminate the skin and the amount of light reflected back. Since blood is red, it absorbs green light and reflects back to less heart rate optical sensor units. When the heart beats, more blood flows through the wrist, resulting in a decrease in the amount of light reflected back to the sensor, thereby achieving heart rate monitoring. The heart rate signal processing unit is used to collect data from the heart rate optical sensor unit, remove noise and enhance the signal, so that the subsequent algorithm can analyze the data more accurately. The algorithm analysis unit is used to calculate the user's heart rate value through the PPG algorithm in order to more accurately identify the heartbeat pattern. The heart rate data statistics unit is used to save the collected heart rate information and send it to the data synchronization storage module for further analysis or long-term storage, thereby synchronizing the data in real time.

[0065] Specifically, the breathing and sleep monitoring module includes an acceleration sensor, a photoplethysmography sensor unit, a gyroscope, a breathing and sleep signal processing unit, and a breathing and sleep data statistics unit;

[0066] The accelerometer is used to measure the user's movement and body position changes. By monitoring the user's physical activities during sleep, it is determined whether the user is in a deep sleep, light sleep or REM sleep state. The photoplethysmography sensor unit is used to monitor blood flow changes through light signals to distinguish different sleep stages. The gyroscope is used to assist the accelerometer in measuring angular velocity and rotation direction to improve the accuracy of respiratory rate monitoring. The respiratory and sleep signal processing unit is used to analyze acceleration data and photoplethysmography data, calculate the user's respiratory rate, and identify abnormal situations. The respiratory and sleep data statistics unit is used to store sleep data and transmit the data to the data synchronization storage module, so that users can view and analyze their sleep data and synchronize it with other health applications.

[0067] Specifically, the body temperature monitoring module includes a temperature sensor, a thermistor, an infrared temperature sensor, a humidity sensor, an air pressure sensor, a body temperature signal processing unit and a body temperature data statistics unit;

[0068] The temperature sensor is used to provide real-time temperature of the contact point between the skin and the wearable device, and assists in judging the user's sleep state by monitoring changes in body temperature, because body temperature will change significantly in different sleep stages. Thermistors are used to measure temperature changes in local areas. Infrared temperature sensors are used to detect infrared radiation emitted by objects to measure temperature, so that the temperature of the skin surface can be measured non-contactly to reduce interference factors. Humidity sensors are used to measure relative humidity in the environment to help evaluate the impact of environmental conditions on the perceived temperature. The air pressure sensor is used to measure atmospheric pressure, thereby combining humidity and temperature data to further optimize the calculation of perceived temperature. The perceived temperature signal processing unit is used to process the collected raw data, so as to comprehensively consider temperature, humidity and air pressure factors to calculate the user's perceived temperature and identify abnormal situations. The perceived temperature data statistics unit is used to store perceived temperature data and transmit the data to the data synchronization storage module, so that users can view and analyze their own perceived temperature data and synchronize it with other health applications.

[0069] A method for using a high-altitude sports auxiliary device comprises the following steps:

[0070] The fixing belt 1 is conveniently fixed to the surface of the user's body by the fixing clamp plate 2 and the fixing clamp block 3, and the monitor body 1301 is fitted to the user, and then the one side limit lock hole 1306 is passed through the second lock piece 1304, and then the second lock piece 1304 is inserted into the inside of the limit lock hole 1306, so that the monitor body 1301 is fixed to the user's arm, and then the limit lock hole 1306 is inserted into the inside of the limit ring belt 1305, so that the limit lock hole 1306 is stored and worn on the user's arm, and at this time, the patient's physical characteristics are monitored through the monitor body 1301;

[0071] The length of the second connecting strap 605 can be adjusted by the first strap 606, the first locking piece 607 and the locking block 608, and then the oxygen mask 601 is worn on the user's surface through the second connecting strap 605. When the monitoring mechanism 13 detects that the user has an abnormal situation, the control valve 503 is started. The control valve 503 can be started to release the oxygen in the oxygen cylinder 501, and then the oxygen is delivered to the nose mask 602 through the flow meter 504 and the oxygen supply tube 505. At this time, the user is supplied with oxygen through the nose mask 602, and the user is ventilated through the breathing valve 603. When the oxygen supply tube 505 needs to be opened, the oxygen supply tube 505 is opened. When winding, the servo motor 811 is started, and the output shaft of the servo motor 811 drives the tube winding roller 802 to rotate, thereby winding the oxygen supply tube 505. At the same time, the reciprocating screw rod 803 is driven to rotate under the action of the pulley 809 and the transmission belt 810. The rotation of the reciprocating screw rod 803 drives the internal thread plate 804 and the auxiliary roller 805 to move, thereby assisting the oxygen supply tube 505 to be laid flat on the surface of the tube winding roller 802. When the internal thread plate 804 moves, it drives the sliding block 808 to move on the surface of the limit plate 807, thereby increasing the stability of the internal thread plate 804 when moving;

[0072] Cone striking can be performed by the hammer head 1104, and chiseling can be performed by the chisel rod 1105. When crushing work is required, the auxiliary block 1112 is moved on the surface of the second guide groove 1113. The movement of the auxiliary block 1112 drives the push plate 1109 and the protrusion 1110 away from the hole groove 1111 and charges the spring telescopic rod 1108. Then, the arc plate 1107 is moved on the surface of the limit shell 1102 and the arc plate 1107 is away from the chisel rod 1105. At this time, the chisel rod 1105 can be moved, so that the crushing teeth 1106 can be used for crushing work, and the connecting rod 1101 can be threadedly connected to the top of the support rod 10. At this time, the auxiliary mechanism 11 and the auxiliary mechanism 11 can be used as a trekking pole.

[0073] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and improved concepts of the present invention within the technical scope disclosed by the present invention, and they should be covered by the protection scope of the present invention.

Claims

1. A high altitude sports assisting device, characterized in that: include: A fixed waist belt (1), wherein two ends of the fixed waist belt (1) are respectively fixed with a fixed card plate (2) and a fixed card block (3), and the fixed card plate (2) is adapted to the fixed card block (3); the surface of the fixed waist belt (1) is slidably connected with a first sliding member (4), an oxygen absorption component (6), a second sliding member (7), a plurality of third sliding members (9) and a fourth sliding member (12); the surface of the first sliding member (4) is provided with an oxygen supply mechanism (5), and the oxygen supply mechanism (5) is connected with the oxygen absorption component (6); the surface of the second sliding member (7) is provided with a tube winding mechanism (8); the surface of the third sliding member (9) is provided with a support rod (10), and the two ends of the support rod (10) are respectively provided with a thread line and a first thread groove; the surface of one of the third sliding members (9) is provided with an auxiliary mechanism (11); and the inner side of the fourth sliding member (12) is provided with a plurality of monitoring mechanisms (13).

2. A high altitude sports assisting device according to claim 1, characterized in that: The oxygen supply mechanism (5) comprises an oxygen cylinder (501) arranged inside the first sliding member (4); an observation plate (502) is installed on the front surface of the oxygen cylinder (501); a flow meter (504) is installed on the surface of one side of the oxygen cylinder (501); the oxygen cylinder (501) and the flow meter (504) are connected via a control valve (503); an oxygen supply pipe (505) is arranged on the surface of the flow meter (504) and is connected thereto; The oxygen inhalation assembly (6) comprises an oxygen inhalation mask (601) and a second connecting belt (605) arranged on both sides of the surface of the fixed waist belt (1); a nose mask (602) is installed on the front surface of the oxygen inhalation mask (601), and the nose mask (602) is connected to the oxygen supply tube (505); a breathing valve (603) is installed on the front surface of the oxygen inhalation mask (601) and on both sides of the nose mask (602); two first connecting belts (604) are fixed to the upper and lower surfaces of the oxygen inhalation mask (601); a first binding belt (606) is fixed to the surface of the first connecting belt (604) by bolts; a first locking piece (607) is rotatably connected to the surface of the first binding belt (606); and locking blocks (608) adapted to the first locking piece (607) are fixed to multiple ends of the second connecting belt (605).

3. A high altitude sports assisting device according to claim 2, characterized in that: The tube winding mechanism (8) comprises a protection box (801) arranged on the inner side of the second sliding member (7); the inner wall of the protection box (801) is rotatably connected to a tube winding roller (802), and the oxygen supply tube (505) is wound around the surface of the tube winding roller (802); the inner wall of the protection box (801) and one side of the tube winding roller (802) is rotatably connected to a reciprocating screw rod (803); the surface of the reciprocating screw rod (803) is threadedly connected to an internal thread plate (804); the surface of the internal thread plate (804) is rotatably connected to an auxiliary roller (805) adapted to the oxygen supply tube (505); The upper surface of the protection box (801) is provided with a first guide groove (806) adapted to the oxygen supply pipe (505); a limit plate (807) is fixed to one side of the inner wall of the protection box (801); a sliding block (808) fixedly connected to the inner thread plate (804) is slidably connected to the surface of the limit plate (807); The tube winding roller (802) and one end of the reciprocating screw rod (803) are both fixedly connected with a pulley (809), and the two pulleys (809) are rotationally connected via a transmission belt (810). A servo motor (811) is installed on the surface of the protection box (801), and the output shaft of the servo motor (811) is fixedly connected to one side of the tube winding roller (802).

4. The high altitude sports auxiliary equipment according to claim 3, characterized in that: The auxiliary mechanism (11) comprises a connecting rod (1101) arranged on the inner side of a third sliding member (9), a second thread groove adapted to the thread line of one end of the support rod (10) is provided at the bottom of the connecting rod (1101), a hammer rod (1103) is fixed on the upper surface of the connecting rod (1101), a limiting shell (1102) is fixed on the upper surface of the connecting rod (1101) and located outside the hammer rod (1103), a hammer head (1104) is provided on the surface of one side of the hammer rod (1103), a chisel rod (1105) is rotatably connected to the surface of the hammer rod (1103), and mutually staggered crushing teeth (1106) are provided on the surface of the hammer head (1104) opposite to the crushing teeth (1106); The surface of the limiting shell (1102) is slidably connected with an arc plate (1107) adapted to the chisel rod (1105); two spring telescopic rods (1108) are fixed on both sides of the surface of the arc plate (1107) close to the limiting shell (1102); a push plate (1109) is fixed to one end of the outer side of the spring telescopic rod (1108); two protrusions (1110) are arranged on the outer surface of the push plate (1109); a hole groove (1111) adapted to the protrusions (1110) is provided on the surface of the limiting shell (1102); an auxiliary block (1112) is fixed on the outer surface of the push plate (1109); and a second guide groove (1113) adapted to the auxiliary block (1112) is provided on the surface of the arc plate (1107).

5. The high altitude sports assisting device according to claim 4, characterized in that: The monitoring mechanism (13) comprises a monitoring instrument body (1301) arranged on the inner side of a fourth sliding member (12); a switch (1302) is installed on the surface of one side of the monitoring instrument body (1301); the upper and lower sides of the monitoring instrument body (1301) are both rotatably connected to second straps (1303); one end of the outer side of the second strap (1303) on one side is rotatably connected to a second locking member (1304); two limiting ring belts (1305) are slidably connected to the surface of the second strap (1303) and located on the inner side of the second locking member (1304); and a plurality of limiting lock holes (1306) adapted to the second locking member (1304) are provided on the surface of the second strap (1303) on the other side.

6. A high altitude sports assisting device according to claim 5, characterized in that: The inner side of the monitor body (1301) is provided with a blood oxygen saturation monitoring module, a heart rate monitoring module, a breathing and sleep monitoring module, a body temperature monitoring module, an activity monitoring module, a comprehensive data analysis module, a user input module, an alarm notification module, a data synchronization storage module and an oxygen supply control module; The blood oxygen saturation monitoring module is used to continuously monitor the blood oxygen saturation, the heart rate monitoring module is used to continuously monitor the heart rate, the breathing and sleep monitoring module is used to monitor the breathing state and skin conductance changes to estimate the breathing rate and monitor the sleep quality and cycle at the same time, and identify whether there is apnea or frequent awakening. The body temperature monitoring module is used to monitor the user's real-time body temperature changes, the activity monitoring module is used to monitor the daily activity and identify whether there is a sudden decrease in physical strength, the comprehensive data analysis module is used to combine multiple data for comprehensive analysis, the user input module is used to allow the user to input subjective feelings and symptoms, the alarm notification module is used to remind the user when the above modules detect abnormal conditions, the data synchronization storage module is used to record and store all monitoring data, and the oxygen supply control module is used to control the oxygen supply mechanism (5).

7. The high altitude sports assisting device according to claim 6, characterized in that: The blood oxygen saturation monitoring module includes a blood oxygen optical emission module, a photoelectric detection module, an analog front-end unit, a heart rate signal processing unit and a blood oxygen data statistics unit; The blood oxygen optical emission unit is used to emit 660nm red light and 940nm infrared light to the human body, the 660nm red light is used to detect the absorption of arterial blood, and the 940nm infrared light is used to distinguish the absorption of arterial blood and other tissues, the photoelectric detection unit is used to detect the intensity of light after passing through the tissue and convert the optical signal into an electrical signal, the analog front-end unit is used to amplify, filter and perform analog-to-digital conversion on the electrical signal generated by the photoelectric detection unit, the heart rate signal processing unit is used to calculate the blood oxygen saturation according to the BeerLambert law, and the blood oxygen data statistics unit is used to store blood oxygen saturation data and related timestamps, and transmit the data to the data synchronization storage module.

8. The high altitude sports assisting device according to claim 7, characterized in that: The heart rate monitoring module includes a heart rate optical sensing unit, a heart rate signal processing unit, an algorithm analysis unit and a heart rate data statistics unit; The heart rate optical sensing unit is used to detect changes in blood flow by emitting green LED light to illuminate the skin and the amount of light reflected back. The heart rate signal processing unit is used to collect data from the heart rate optical sensing unit and remove noise and enhance signals. The algorithm analysis unit is used to calculate the user's heart rate value through the PPG algorithm. The heart rate data statistics unit is used to save the collected heart rate information and send it to the data synchronization storage module for further analysis or long-term storage.

9. The high altitude sports assisting device according to claim 8, characterized in that: The breathing and sleep monitoring module includes an acceleration sensor, a photoplethysmography sensor unit, a gyroscope, a breathing and sleep signal processing unit and a breathing and sleep data statistics unit; The acceleration sensor is used to measure the user's movement and body position changes, the photoplethysmography sensor unit is used to monitor blood flow changes through optical signals to distinguish different sleep stages, the gyroscope is used to assist the acceleration sensor in measuring angular velocity and rotation direction, the breathing and sleep signal processing unit is used to analyze acceleration data and photoplethysmography data to calculate the user's breathing frequency, and the breathing and sleep data statistics unit is used to store sleep data and transmit the data to the data synchronization storage module.

10. The high altitude sports assisting device according to claim 9, characterized in that: The body temperature monitoring module includes a temperature sensor, a thermistor, an infrared temperature sensor, a humidity sensor, an air pressure sensor, a body temperature signal processing unit and a body temperature data statistics unit; The temperature sensor is used to provide real-time temperature of the contact part between the skin and the wearable device, and at the same time assists in judging the user's sleep state by monitoring changes in body temperature. The thermistor is used to measure temperature changes in a local area. The infrared temperature sensor is used to detect infrared radiation emitted by an object to measure temperature. The humidity sensor is used to measure the relative humidity in the environment. The air pressure sensor is used to measure atmospheric pressure. The body temperature signal processing unit is used to process the collected raw data. The body temperature data statistics unit is used to store the body temperature data and transmit the data to the data synchronization storage module.

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