A wearable Internet of Things device for monitoring and alarming

Abstract

The present invention discloses a wearable Internet of Things device for monitoring and alarming, which relates to the technical field of wearable equipment, and includes a central control adjustment processor. With the cooperation of a main body, an advanced monitoring operation is formed to monitor the user's physiological condition, environmental adaptability, and motion state in real time, and to perform intelligent analysis, early warning, and take intervention measures when necessary according to the monitoring results. When an elderly person or patient encounters a health emergency outside, such as a heart attack, stroke, severe hypoglycemia, or fall, a rapid response can be made based on the overall real-time to ensure signal quality, reduce interference, perform intelligent analysis on the collected data, predict potential health risks, and send the generated data to a smart terminal or smart watch of medical staff through a signal base station or wirelessly, or send a cry for help to surrounding people, and form a vibration early warning or alarm to improve the efficiency of treatment and reduce the harm to life-threatening dangers.

Description

Technical Field

[0001] The present invention relates to the technical field of wearable devices, in particular to a wearable Internet of Things device for monitoring and alarming. Background Art

[0002] The development of a fast-paced society is the inevitable result of today's urbanization, but the fast-paced life has also brought considerable pressure to the city's constituents. The inevitable result will inevitably lead to an increase in the incidence of heart disease. Many heart disease patients cannot stay in the hospital for diagnosis in real time, which is also unrealistic, especially for elderly patients.

[0003] However, in the prior art, it is currently impossible to effectively detect the health of the elderly or patients in real time when they are out. As a result, once the elderly or patients have a health emergency outside, such as a heart attack, stroke, severe hypoglycemia or fall, there is no immediate monitoring, which means that a quick response cannot be made, which may delay treatment and increase the risk of life. In addition, since the elderly or patients lack calcium in the bones inside the legs during recuperation and walking, the bone strength will decrease and the joint support will be weakened during recuperation, thereby increasing the pressure and wear on the meniscus inside the joint, which may easily cause falls and injure the health of the elderly or patients. Therefore, it is necessary to propose a wearable Internet of Things device for monitoring and alarm. Summary of the invention

[0004] The purpose of the present invention is to provide a wearable Internet of Things device for monitoring and alarming, so as to solve the problem proposed in the above-mentioned background technology that when the elderly or patients go out, it is impossible to effectively detect the health of the elderly or patients in real time, resulting in that once the elderly or patients have a health emergency outside, such as a heart attack, stroke, severe hypoglycemia or fall, there is no real-time monitoring, which means that it is impossible to respond quickly, which may delay treatment and increase the risk of life. In addition, since the elderly or patients lack calcium in the internal bones of the legs during recuperation and walking, the bone strength will decrease and the joint support will be weakened during recuperation, thereby increasing the pressure and wear on the meniscus inside the joint, which may easily cause falls and injure the health of the elderly or patients.

[0005] To achieve the above object, the present invention provides the following technical solution: a wearable Internet of Things device for monitoring alarm, comprising a central control adjustment processor, feedback processors are installed at both ends of the top of the central control adjustment processor, and the top of the feedback processor is electrically connected to the mounting ridge detection and mounting adjustment component through a line;

[0006] The spine detection installation and adjustment component includes a micro guide rod, the top of the micro guide rod is fastened with a flexible hinge, the top of the flexible hinge is respectively installed with a first adjustment rotating clamp and a second adjustment rotating clamp, the first adjustment rotating clamp is internally rotatably connected with a movable telescopic member, the second adjustment rotating clamp is internally installed with a connecting member, the side end of the movable telescopic member is connected to the side of the connecting member, the connecting member and the side end of the movable telescopic member are connected to a first secondary processor, the left and right ends of the outside of the first secondary processor are electrically connected with an electric signal processor, the left and right ends of the first secondary processor are symmetrically connected with movable elastic electrode line side bands, the side ends of the movable elastic electrode line side bands are connected with a bioadhesive patch, and the side end of the first secondary processor is installed with an elastic rod The side end of the elastic rod is installed with an attached flexible sensor, the top of the first secondary processor is installed with a rotating joint, the internal rotation of the rotating joint is connected to a connecting reinforced insulating frame, the side end of the rotating joint is installed with a motion controller, the interior of the connecting reinforced insulating frame is connected to a movable telescopic part, the interior of the connecting reinforced insulating frame is connected to an anchoring arm, the side end of the anchoring arm is installed with a second primary processor, the external ends of the second primary processor are connected to the movable elastic electrode line side band, the bioadhesive patch, the elastic rod and the attached flexible sensor in turn, the second primary processor and the first secondary processor form a two-stage type and have the same structure, and the second primary processor and the first secondary processor are both connected to a feedback circuit.

[0007] Preferably, a back sweat-absorbent patch accessory is installed on the side end of the central control adjustment processor, a mounting groove is opened on the surface of the back sweat-absorbent patch accessory, an external axial fan is installed inside the mounting groove, and the left and right side ends of the back sweat-absorbent patch accessory are symmetrically connected with elastic side straps, the side ends of the elastic side straps are connected with crotch connecting pieces, the outer peripheral side of the crotch connecting piece is connected with a rotating joint, and the side end of the rotating joint is connected with an elastic sweat-absorbent belt.

[0008] Preferably, a coccyx connecting belt is installed inside the rotating joint, and a logic controller and a prediction controller are respectively installed on the sides of the coccyx connecting belt.

[0009] Preferably, a redundant structure is installed inside the side end of the central control adjustment processor, a plastic sleeve is installed on the back surface of the central control adjustment processor, and an electric guide rod is installed inside the plastic sleeve.

[0010] Preferably, the top end of the electric guide rod is embedded in the miniature guide rod, the bottom of the plastic sleeve is provided with a connecting elastic plate, and the bottom of the connecting elastic plate is respectively provided with a motion receiving sensor and a photoelectric sensor.

[0011] Preferably, a heat dissipation connector is connected to the bottom of the elastic sweat-absorbent belt, and an information receiver is installed on the inner side end of the heat dissipation connector.

[0012] Preferably, a side end of the heat dissipation connector is connected to a knee pad biological electrode sheet, an ultrasonic detection sensor is installed inside the knee pad biological electrode sheet, and a secondary heat dissipation connector is connected to the side end of the knee pad biological electrode sheet.

[0013] Preferably, a nursing detection patch is installed at the bottom of the heat dissipation connector, an ultrasonic control connector is installed at the top front end of one side of the nursing detection patch, and a rotating connector is installed at the bottom of the front end of one side of the nursing detection patch.

[0014] Preferably, the side end of the rotating connector is fastened with an elastic ring, an annular vein detector is installed inside the elastic ring, the bottom of the rotating connector is fastened with a connecting guard rod, the side of the elastic ring is installed with a side connection piece, and the side connection piece is connected to the back end of the nursing detection patch.

[0015] Preferably, an adjusting elastic rubber ring is installed at the bottom of the connecting guard rod, a rotating rod is installed at the side end of the adjusting elastic rubber ring, and a monitoring patch is hinged at the side end of the rotating rod.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] In the present invention, with the cooperation of the spinal detection installation adjustment component, the micro-guide rod, the flexible hinge, the first adjustment rotating clamp and the second adjustment rotating clamp are used to facilitate the overall close fit and adapt to the spinal curves of different individuals, thereby ensuring the correct position of the subsequent attached flexible sensor and the bioadhesive patch. Secondly, the elastic rod drives the attached flexible sensor to attach to the user's back by rotating the rotating joint, connecting the reinforced insulating frame and the anchor joint support arm, and the bioadhesive patch is adhered to both sides of the back. The electrical signal processor is responsible for processing the electrical signals collected from the sidebands of the active elastic electrode line, such as electrocardiogram or electromyogram signals, to ensure signal quality and reduce noise interference, and then the collected data is sequentially transmitted to the first secondary processor and the second secondary processor, so that it is responsible for the preliminary processing of a part of the physiological signals, such as filtering, amplification or digitization, and then the processed data is sent back to the central control adjustment processor, or in the feedback processor. Under the combination, the detection of the overall structure is monitored and adjusted, and the feedback data is synchronously transmitted to the central control adjustment processor, so that the overall device can monitor the user's joint health, blood flow, muscle vibration and other physiological data, forming a real-time monitoring of the user's physiological condition, environmental adaptability, and movement status, and intelligently analyze and warn according to the monitoring results. Advanced monitoring operations take intervention measures when necessary. Then, when the elderly or patients encounter health emergencies outside, such as heart attack, stroke, severe hypoglycemia or fall, they can respond quickly based on the overall real-time to ensure signal quality, reduce interference, and intelligently analyze the collected data to predict potential health risks (such as signs of heart attack and stroke). The generated data is sent to the medical staff's smart terminal or smart watch through the signal base station or wirelessly, and a vibration warning or alarm is formed to improve the efficiency of treatment and reduce the risk of life-threatening dangers.

[0018] 2. In the present invention, the knee pad biological electrode sheet is placed at the user's leg joint under the cooperation of the monitoring patch, the knee pad biological electrode sheet and the nursing detection patch, and the heat dissipation connector and the auxiliary heat dissipation connector. Then, the ultrasonic detection sensor is used to detect the inside of the joint, such as evaluating the damage degree of the meniscus soft tissue, the condition of the synovial fluid or the condition of the bone wear, so as to detect the variables generated during the user's movement in real time and transmit them to the central control adjustment processor, and simultaneously prompt the user or help the user to use the ultrasonic control connector to make the ultrasonic coupling generator on the side of the knee pad biological electrode sheet perform ultrasonic treatment on the joint. Then, synchronously under the cooperation of the heat dissipation connector and the auxiliary heat dissipation connector, the heat sink, the radiator or the structural member with thermal conductivity is used to absorb and dissipate the heat generated during the user's movement or body walking, so as to ensure the user's suitable temperature and improve the comfort of use. The ultrasonic control connector can form a signal control for the operation of the ultrasonic detection sensor. In the process of wearing the whole device on the elderly or patients, the rotating connector is used to drive the elastic patch ring, so that the elastic patch ring is elastically adjusted according to the circumference of the user's leg, which is convenient for The elastic patch loop is fixed on the user's leg side, and the annular venous detector embedded in the elastic patch loop is used to transmit the blood flow data during exercise and walking to the central control adjustment processor in sync with the monitoring patch. With the cooperation of the rotating connector and the side connector, the care detection patch can be used to perform comprehensive detection on the user's leg side, such as leg nodules, muscle acidosis and leg nerves. The elastic patch loop and the rotating connector are connected by a connecting rod to protect the calf forearm, and the rotating rod and the monitoring patch can be driven to form active adjustment by adjusting the elastic rubber ring. The rotating rod can be used to drive the monitoring patch to install the entire device on the side surface of the calf arm, and the vibration sensor inside the monitoring patch detects the muscle oscillation of the leg when walking, and transmits the data to the central control adjustment processor in real time for processing and analysis, so that when the elderly or patients are walking during recuperation, the pressure and wear of the meniscus inside the joint can be monitored in real time, and treatment can be provided. In the event of a fall, an early warning message can be issued remotely, so that medical staff or accompanying family members can respond in time, or send out calls for help to people around them, so that timely assistance can be obtained even without actively asking for help.

[0019] 3. In the present invention, by cooperating with the electric guide rod and the micro guide rod, when the user is walking, the motion receiving sensor and the photoelectric sensor can be used to make the spine detection installation adjustment component fit the user's back and detect in real time according to the swing amplitude of the waist and the adjustment of the dorsal muscles or bones. Then, with the cooperation of the information receiver, it is convenient to receive, filter and convert and amplify the real-time monitoring data of the ultrasonic detection sensor, the ultrasonic coupling generator, the annular vein detector and the vibration sensor, so that the signal data can be better transmitted to the central control adjustment processor. In addition, with the cooperation of the coccygeal connecting belt, it is convenient to enable the logic controller and the predictive controller to control the movement sequence, adjustment control, etc. of the overall structure according to preset rules and algorithms to ensure the accurate execution of the action, and enable the predictive controller to predict and optimize the next action strategy based on the current state and changes in the external environment under the regulation of the logic controller, thereby improving the response speed and efficiency of the overall structure, reducing unnecessary energy consumption or wear, and making the overall action synchronously adjusted to ensure the consistency of the overall device. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a structural schematic diagram of the main view in a wearable Internet of Things device for monitoring and alarming of the present invention;

[0021] Figure 2 It is a schematic structural diagram of a wearable Internet of Things device for monitoring and alarming in a side view of the present invention;

[0022] Figure 3 It is a partial structural schematic diagram of the main body of a wearable Internet of Things device for monitoring and alarming of the present invention;

[0023] Figure 4 It is a schematic diagram of the installation position structure of a rotating connector, an elastic collar and a connecting guard rod in a wearable Internet of Things device for monitoring alarm of the present invention;

[0024] Figure 5 This is a schematic diagram of the installation position structure of a spine detection installation adjustment component in a wearable Internet of Things device for monitoring and alarming of the present invention;

[0025] Figure 6 It is a structural schematic diagram of a spine detection installation and adjustment component in a wearable Internet of Things device for monitoring and alarming of the present invention;

[0026] Figure 7 A wearable Internet of Things device for monitoring and alarming of the present invention Figure 6 A schematic diagram of the enlarged structure at point A;

[0027] Figure 8 It is a partial structural schematic diagram of a spine detection installation and adjustment component in a wearable Internet of Things device for monitoring and alarming of the present invention;

[0028] Fig. 9 The present invention is a schematic diagram of the system structure of a main body in a wearable Internet of Things device for monitoring and alarming.

[0029] In the figure: 1. Central control adjustment processor; 2. Back sweat-absorbing patch attachment; 3. Installation slot; 4. Elastic side straps; 5. Crotch connection piece; 6. Rotation joint; 7. Coccyx connection strap; 8. Logic controller; 9. Elastic sweat-absorbing belt; 10. Heat dissipation connector; 11. Information receiver; 12. Auxiliary heat dissipation connector; 13. Knee pad bioelectrode pad; 14. Nursing detection patch; 15. Ultrasonic control connector; 16. Rotation connector; 17. Elastic patch ring; 18. Connecting guard rod; 19. Adjusting elastic rubber ring; 20. Rotation rod; 21. Monitoring patch; 22. Feedback processor; 23. Spine detection installation adjustment component; 230. Micro guide rod; 231, flexible hinge; 232, first adjustment clamp; 233, second adjustment clamp; 234, movable telescopic member; 235, movable elastic electrode line side band; 236, bioadhesive patch; 237, electrical signal processor; 238, first secondary processor; 239, rotating swivel joint; 2390, elastic rod; 2391, attached flexible sensor; 2392, anchor arm; 2393, second primary processor; 2394, connecting reinforced insulating frame; 24, redundant structure; 25, plastic sleeve; 26, electric guide rod; 27, connecting elastic sheet; 28, motion receiving sensor; 29, side connection. DETAILED DESCRIPTION

[0030] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. 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.

[0031] Reference Figure 1-Figure 9As shown: A wearable Internet of Things device for monitoring alarm, including a central control adjustment processor 1, feedback processors 22 are installed at both ends of the top of the central control adjustment processor 1, and the top of the feedback processor 22 is electrically connected to the spine detection installation adjustment component 23 through a line; the spine detection installation adjustment component 23 includes a micro guide rod 230, the top of the micro guide rod 230 is fastened with a flexible hinge 231, and the top of the flexible hinge 231 is respectively installed with a first adjustment rotating clamp 232 and a second adjustment rotating clamp 233, the first adjustment The internal rotation of the rotating clamp 232 is connected to the movable telescopic member 234, the internal mounting connection member of the second adjusting rotating clamp 233, the side end of the movable telescopic member 234 is connected to the side of the connecting member, the connecting member and the side end of the movable telescopic member 234 are connected to the first secondary processor 238, the left and right ends of the first secondary processor 238 are electrically connected to the electric signal processor 237, the left and right ends of the first secondary processor 238 are symmetrically connected to the movable elastic electrode line side band 235, and the side end of the movable elastic electrode line side band 235 is connected to the side end of the movable telescopic member 234. A bioadhesive patch 236 is disposed, an elastic rod 2390 is installed on the side end of the first secondary processor 238, an attached flexible sensor 2391 is installed on the side end of the elastic rod 2390, a rotating joint 239 is installed on the top of the first secondary processor 238, the internal rotation of the rotating joint 239 is connected to a reinforced insulating frame 2394, a motion controller is installed on the side end of the rotating joint 239, the internal part of the reinforced insulating frame 2394 is connected to the movable telescopic member 234, and the reinforced insulating frame 2394 is connected to the movable telescopic member 234. An anchor arm 2392 is internally connected and a second primary processor 2393 is installed on the side end of the anchor arm 2392. Both ends of the outside of the second primary processor 2393 are connected to the movable elastic electrode line band 235, the bioadhesive patch 236, the elastic rod 2390 and the attached flexible sensor 2391 in sequence. The second primary processor 2393 and the first secondary processor 238 form a two-section type and have the same structure. The second primary processor 2393 and the first secondary processor 238 are both connected to the feedback circuit 22.

[0032] according to Figure 1 , Figure 3 , Figure 3 and Figure 5As shown, a back sweat-absorbing sticker attachment 2 is installed at the side end of the central control adjustment processor 1, a mounting groove 3 is provided on the surface of the back sweat-absorbing sticker attachment 2, an external axial flow fan is installed inside the mounting groove 3, and elastic side straps 4 are symmetrically connected to the left and right side ends of the back sweat-absorbing sticker attachment 2, and the side ends of the elastic side straps 4 are connected to the crotch connecting piece 5, and the outer peripheral side of the crotch connecting piece 5 is connected to the rotating joint 6, and the side end of the rotating joint 6 is connected to the elastic sweat-absorbing belt 9, so that the back sweat-absorbing sticker attachment 2 is directly in contact with the user's back to absorb sweat. , keep dry, improve comfort, and at the same time have ergonomics so that it can fit closely to the back, and the mounting groove 3 is located on the back sweat-absorbing patch attachment 2, so that the embedded axial fan can enhance air circulation when worn, accelerate sweat evaporation, and further improve air permeability and cooling effect. At the same time, with the cooperation of elastic side straps 4, crotch connecting piece 5, rotating joint 6 and elastic sweat-absorbing belt 9, it can be flexibly adjusted to ensure stable wearing without causing uncomfortable pressure to the user. It can flexibly rotate with the user's body movement to increase the freedom and comfort of wearing.

[0033] according to Figure 1 , Figure 3 , Figure 3 and Figure 5 As shown, a coccyx connecting belt 7 is installed inside the rotating joint 6, and a logic controller 8 and a prediction controller are installed on the sides of the coccyx connecting belt 7. With the cooperation of the coccyx connecting belt 7, the logic controller 8 and the prediction controller can control the movement sequence and adjustment control of the overall structure according to preset rules and algorithms to ensure the accurate execution of the action, and enable the prediction controller to predict and optimize the next action strategy based on the current state and changes in the external environment under the regulation of the logic controller 8, thereby improving the response speed and efficiency of the overall structure, reducing unnecessary energy consumption or wear, and making the overall action synchronously adjusted to ensure the consistency of the overall device.

[0034] according to Figure 2 and Figure 3 As shown, a redundant structure 24 is installed inside the side end of the central control adjustment processor 1, a plastic sleeve 25 is installed on the back surface of the central control adjustment processor 1, and an electric guide rod 26 is installed inside the plastic sleeve 25. With the cooperation of the redundant structure 24, redundant processing of the data of the central control adjustment processor 1 is facilitated to ensure the energy efficiency of the data processing of the overall device.

[0035] according to Figure 2As shown, the top of the electric guide rod 26 is embedded in the micro guide rod 230, the bottom of the plastic sleeve 25 is installed with a connecting elastic plate 27, and the bottom of the connecting elastic plate 27 is respectively installed with a motion receiving sensor 28 and a photoelectric sensor. With the cooperation of the electric guide rod 26 and the micro guide rod 230, when the user is walking, the motion receiving sensor 28 and the photoelectric sensor can be used to enable the spine detection installation adjustment component 23 to fit the user's back and detect in real time according to the swing amplitude of the waist and the adjustment of the dorsal vertebrae muscles or bones.

[0036] according to Figure 1-Figure 4 As shown, the bottom of the elastic sweat-absorbent belt 9 is connected to a heat dissipation connector 10, and an information receiver 11 is installed on the inner side of the heat dissipation connector 10. Under the action of the elastic sweat-absorbent belt 9, the overall lower limb structure can be installed according to the user's thigh length. Then, with the cooperation of the information receiver 11, the real-time monitoring data of the ultrasonic detection sensor, the ultrasonic coupling generator, the annular vein detector and the vibration sensor can be received, filtered, converted and amplified, so that the signal data can be better transmitted to the central control adjustment processor 1.

[0037] according to Figure 1-Figure 4 As shown, the side end of the heat dissipation connector 10 is connected to a knee pad biological electrode sheet 13, an ultrasonic detection sensor is installed inside the knee pad biological electrode sheet 13, and the side end of the knee pad biological electrode sheet 13 is connected to an auxiliary heat dissipation connector 12. With the cooperation of the heat dissipation connector 10 and the auxiliary heat dissipation connector 12, the knee pad biological electrode sheet 13 is placed at the user's leg joint, and then the ultrasonic detection sensor is used to perform internal detection of the joint, such as evaluating the degree of damage to the meniscus soft tissue, the condition of the synovial fluid or the condition of bone wear, so as to facilitate real-time detection of variables generated during the user's exercise, and transmit them to the central control adjustment processor 1, and simultaneously prompt the user or help the user to control the connector 15 through the ultrasonic wave, so that the ultrasonic coupling generator on the side of the knee pad biological electrode sheet 13 can perform ultrasonic treatment on the joint.

[0038] according to Figure 1 , Figure 2 and Figure 4 As shown, a nursing detection patch 14 is installed at the bottom of the heat dissipation connector 10, an ultrasonic control connector 15 is installed at the top front end of one side of the nursing detection patch 14, and a rotating connector 16 is installed at the bottom of the front end of one side of the nursing detection patch 14. Synchronously, with the cooperation of the heat dissipation connector 10 and the auxiliary heat dissipation connector 12, a heat sink, a radiator or a structural member with thermal conductivity is used to absorb and dissipate the heat generated by the user during exercise or walking, thereby ensuring the user's suitable temperature and improving the comfort of use. The ultrasonic control connector 15 can also form a signal control for the operation of the ultrasonic detection sensor.

[0039] according to Figure 1-Figure 4 As shown, the side end of the rotating connector 16 is fastened with an elastic patch ring 17, an annular venous detector is installed inside the elastic patch ring 17, a connecting guard rod 18 is fastened to the bottom of the rotating connector 16, and a side connector 29 is installed on the side of the elastic patch ring 17, and the side connector 29 is connected to the back end of the nursing detection patch 14. In the process of wearing the whole device on the elderly or patients, the rotating connector 16 is used to drive the elastic patch ring 17, so that the elastic patch ring 17 is elastically adjusted according to the circumference of the user's leg, so that the elastic patch ring 17 is fixed to the user's leg. At the same time, the annular venous detector embedded in the elastic patch ring 17 is used to cooperate with the monitoring patch 21 to synchronously transmit data of blood flow during walking to the central control adjustment processor 1, and the rotating connector 16 and the side connector 29 cooperate to facilitate the nursing detection patch 14 to form a comprehensive detection around the user's leg, such as leg nodules, muscle acidosis and leg nerves.

[0040] according to Figure 1 , Figure 2 and Figure 4 As shown, an adjustable elastic rubber ring 19 is installed at the bottom of the connecting guard bar 18, and a rotating rod 20 is installed at the side end of the adjusting elastic rubber ring 19. A monitoring patch 21 is hinged on the side end of the rotating rod 20. The connecting guard bar 18 is used to connect the elastic patch ring 17 and the rotating connector 16 to protect the calf forearm. By adjusting the elastic rubber ring 19, the rotating rod 20 and the monitoring patch 21 can be driven to form a movable adjustment. Then, the rotating rod 20 can drive the monitoring patch 21 to install the entire device on the side end surface of the calf arm, and the vibration sensor inside the monitoring patch 21 detects the muscle oscillation of the leg walking, and transmits the data to the central control adjustment processor 1 in real time for processing and analysis.

[0041] When the overall device is in use, by using the central control adjustment processor 1 as the core, it receives data from the motion receiving sensor 28, the photoelectric sensor, the ultrasonic detection sensor, the annular vein detector, the vibration sensor and the attached flexible sensor 2391 in sequence, and processes it with the cooperation of the information receiver 11, the electrical signal processor 237, the first secondary processor 238 and the second primary processor 2393. The redundant structure 24 ensures that the key components of the system are backed up to enhance stability.

[0042] The wiring diagram of the central control adjustment processor 1, logic controller 8, information receiver 11, feedback processor 22, first secondary processor 238, electrical signal processor 237, attached flexible sensor 2391, second primary processor 2393, motion receiving sensor 28, photoelectric sensor, ultrasonic detection sensor, annular vein detector and vibration sensor in the present invention is common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use. Therefore, the control method and wiring arrangement of the central control adjustment processor 1, logic controller 8, information receiver 11, feedback processor 22, first secondary processor 238, electrical signal processor 237, attached flexible sensor 2391, second primary processor 2393, motion receiving sensor 28, photoelectric sensor, ultrasonic detection sensor, annular vein detector and vibration sensor will no longer be explained in detail.

[0043] The method of use and working principle of the device are as follows: first, during monitoring work, the back sweat-absorbing patch attachment 2 is directly in contact with the user's back to absorb sweat, keep dry, and improve comfort. At the same time, it is ergonomic so that it can fit closely to the back. The mounting groove 3 is located on the back sweat-absorbing patch attachment 2, so that the embedded axial flow fan can enhance air circulation when worn, accelerate sweat evaporation, and further improve air permeability and cooling effect. At the same time, with the cooperation of the elastic side straps 4, the crotch connecting piece 5, the rotating joint 6 and the elastic sweat-absorbing belt 9, it can be flexibly adjusted to ensure stable wearing without causing discomfort and oppression to the user. It can be flexibly rotated with the user's body movement to increase the freedom and comfort of wearing. At the same time, the heat dissipation connector 10 and the auxiliary heat dissipation connector 12 In cooperation, the knee pad biological electrode sheet 13 is placed at the user's leg joint, and then an ultrasonic detection sensor is used to detect the inside of the joint, such as evaluating the degree of damage to the meniscus soft tissue, the condition of the synovial fluid or the condition of bone wear, so as to detect the variables generated during the user's exercise in real time and transmit them to the central control adjustment processor 1, and simultaneously prompt the user or help the user to use the ultrasonic control connector 15 to make the ultrasonic coupling generator on the side of the knee pad biological electrode sheet 13 perform ultrasonic treatment on the joint, and then synchronously cooperate with the heat dissipation connector 10 and the auxiliary heat dissipation connector 12, through the heat sink, radiator or a structural member with thermal conductivity, to absorb and dissipate the heat generated when the user moves or walks The heat generated during the process can ensure the appropriate temperature for the user and improve the comfort of use. The ultrasonic control connector 15 can form a signal control for the operation of the ultrasonic detection sensor. When the entire device is worn on the elderly or patients, the rotating connector 16 is used to drive the elastic patch ring 17, so that the elastic patch ring 17 is elastically adjusted according to the circumference of the user's leg, so that the elastic patch ring 17 is fixed to the side of the user's leg. At the same time, the annular vein detector embedded in the elastic patch ring 17 is used to cooperate with the blood flow condition during exercise and walking, and the monitoring patch 21 synchronously transmits the data to the central control adjustment processor 1. Under the cooperation of the rotating connector 16 and the side connector 29, it is convenient to make the nursing detection patch 14 in use The user's leg periphery is comprehensively tested, such as leg nodules, muscle acidosis and leg nerves, etc. The connecting guard rod 18 is used to connect the elastic patch ring 17 and the rotating connector 16 to protect the calf forearm, and by adjusting the elastic rubber ring 19, the rotating rod 20 and the monitoring patch 21 can be driven to form a movable adjustment. Then, the rotating rod 20 can drive the monitoring patch 21 to install the entire device on the side surface of the calf arm, and the vibration sensor inside the monitoring patch 21 detects the muscle oscillation of the leg walking, and transmits the data to the central control adjustment processor 1 for processing and analysis in real time. With the cooperation of the electric guide rod 26 and the micro guide rod 230, when the user is walking, it can adjust the waist according to the swing amplitude and the back vertebrae muscle or bone adjustment.The motion receiving sensor 28 and the photoelectric sensor are used to enable the spine detection installation adjustment component 23 to fit the user's back and detect in real time. Then, with the cooperation of the information receiver 11, it is convenient to receive, filter and convert the real-time monitoring data of the ultrasonic detection sensor, the ultrasonic coupling generator, the annular vein detector and the vibration sensor to amplify, so that the signal data can be better transmitted to the central control adjustment processor 1, and with the cooperation of the coccygeal connection belt 7, it is convenient for the logic controller 8 and the prediction controller to control the movement sequence, adjustment control, etc. of the overall structure according to the preset rules and algorithms to ensure the accurate execution of the action, and enable the prediction controller to predict the changes in the current state and the external environment based on the regulation of the logic controller 8. The following action strategy is measured and optimized, the response speed and efficiency of the overall structure are improved, unnecessary energy consumption or wear is reduced, the overall action is adjusted synchronously, and the consistency of the overall device is guaranteed. Then, the micro guide rod 230, the flexible hinge 231, the first adjustment clamp 232 and the second adjustment clamp 233 are used to facilitate the overall body to be able to fit tightly and adapt to the spinal curves of different individuals, ensuring the correct position of the subsequent attached flexible sensor 2391 and the bioadhesive patch 236. Secondly, the elastic rod 2390 drives the attached flexible sensor 2391 to attach to the user's back by rotating the rotating joint 239, connecting the reinforced insulating frame 2394 and the anchor arm 2392, and making the bioadhesive patch 236 adhere to the back. On both sides, the electrical signal processor 237 is used to process the electrical signals collected from the active elastic electrode line sideband 235, such as electrocardiogram or electromyogram signals, to ensure signal quality and reduce noise interference, and then the collected data is sequentially transmitted to the first secondary processor 238 and the second secondary processor 2393, so that they are responsible for the preliminary processing of a part of the physiological signals, such as filtering, amplification or digitization, and then the processed data is sent back to the central control adjustment processor 1, or with the cooperation of the feedback processor 22, the detection of the overall structure is monitored and adjusted, and the feedback data is synchronously transmitted to the central control adjustment processor 1, so that the overall device can monitor the user's joint health, blood flow, muscle vibration and other physiological data, forming a real-time monitoring of the user. It can monitor the physiological condition, environmental adaptability, and movement status of the elderly and patients, and conduct intelligent analysis, early warning, and take intervention measures when necessary based on the monitoring results. When an elderly person or patient encounters a health emergency outside, such as a heart attack, stroke, severe hypoglycemia, or a fall, it can respond quickly based on the overall real-time to ensure signal quality, reduce interference, and conduct intelligent analysis of the collected data. It can predict potential health risks (such as signs of heart attack and stroke), and send the generated data to the medical staff's smart terminal or smart watch through a signal base station or wirelessly, and generate a vibration early warning or alarm to improve the efficiency of treatment and reduce the risk to life. In addition, it can also be used when the elderly or patients are walking during recuperation.The pressure and wear of the meniscus inside the joint are monitored in real time, and treatment is provided. When a fall occurs, an early warning message can be sent remotely, allowing medical staff or accompanying family members to respond in time, or to send a cry for help to people around them, so that timely assistance can be obtained even without active help.

[0044] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A wearable IoT device for monitoring and alarming, Features: It comprises a central control adjustment processor (1), feedback processors (22) are installed at both ends of the top of the central control adjustment processor (1), and the top of the feedback processor (22) is electrically connected to a ridge detection installation adjustment component (23) via a line; The spine detection installation adjustment component (23) comprises a micro guide rod (230), the top of the micro guide rod (230) is fastened with a flexible hinge (231), the top of the flexible hinge (231) is respectively installed with a first adjustment rotating clamp (232) and a second adjustment rotating clamp (233), the first adjustment rotating clamp (232) is internally rotatably connected with a movable telescopic member (234), the second adjustment rotating clamp (233) is internally installed with a connecting member, the side end of the movable telescopic member (234) is connected to the side of the connecting member, and the connecting member is The side ends of the movable telescopic member (234) and the movable telescopic member (234) are connected to a first secondary processor (238); the left and right ends of the outside of the first secondary processor (238) are electrically connected to an electric signal processor (237); the left and right ends of the first secondary processor (238) are symmetrically connected to movable elastic electrode line side bands (235); the side ends of the movable elastic electrode line side bands (235) are connected to a bioadhesive patch (236); the side ends of the first secondary processor (238) are installed with an elastic rod (2390); the elastic rod (2390) The side end of the first secondary processor (238) is provided with an attached flexible sensor (2391), the top of the first secondary processor (238) is provided with a rotating joint (239), the interior of the rotating joint (239) is rotatably connected to a connecting reinforced insulating frame (2394), a motion controller is provided with a side end of the rotating joint (239), the interior of the connecting reinforced insulating frame (2394) is connected to a movable telescopic member (234), the interior of the connecting reinforced insulating frame (2394) is connected to an anchoring arm (2392), and the anchoring arm (2392) is provided. A second primary processor (2393) is installed at the side end of the sensor (2392), and both ends of the outside of the second primary processor (2393) are connected to the movable elastic electrode line band (235), the bioadhesive patch (236), the elastic rod (2390) and the attached flexible sensor (2391) in sequence. The second primary processor (2393) and the first secondary processor (238) form a two-stage structure with the same structure. The second primary processor (2393) and the first secondary processor (238) are both connected to the feedback processor (22); A back sweat-absorbing patch attachment (2) is installed at the side end of the central control adjustment processor (1), a mounting groove (3) is provided on the surface of the back sweat-absorbing patch attachment (2), an external axial flow fan is installed inside the mounting groove (3), and elastic side straps (4) are symmetrically connected to the left and right side ends of the back sweat-absorbing patch attachment (2), the side ends of the elastic side straps (4) are connected to the crotch connecting piece (5), the outer peripheral side of the crotch connecting piece (5) is connected to the rotating joint (6), and the side end of the rotating joint (6) is connected to the elastic sweat-absorbing belt (9); The bottom of the elastic sweat-absorbing belt (9) is connected to a heat dissipation connector (10), and an information receiver (11) is installed on the inner side of the heat dissipation connector (10); A nursing detection patch (14) is installed at the bottom of the heat dissipation connector (10), an ultrasonic control connector (15) is installed at the front end of one side of the top of the nursing detection patch (14), and a rotating connector (16) is installed at the bottom of the front end of one side of the nursing detection patch (14); The side end of the rotating connecting member (16) is fastened to an elastic patch ring (17), an annular vein detector is installed inside the elastic patch ring (17), the bottom of the rotating connecting member (16) is fastened to a connecting guard rod (18), the side of the elastic patch ring (17) is installed with a side connection member (29), and the side connection member (29) is connected to the back end of the nursing detection patch (14).

2. The wearable Internet of Things device for monitoring and alarming according to claim 1, Features: A coccyx connection belt (7) is installed inside the rotating joint (6), and a logic controller (8) and a prediction controller are respectively installed on the sides of the coccyx connection belt (7).

3. The wearable Internet of Things device for monitoring and alarming according to claim 1, Features: A redundant structure (24) is installed inside the side end of the central control adjustment processor (1), a plastic sleeve (25) is installed on the back surface of the central control adjustment processor (1), and an electric guide rod (26) is installed inside the plastic sleeve (25).

4. The wearable Internet of Things device for monitoring and alarming according to claim 3, Features: The top of the electric guide rod (26) is embedded in the micro guide rod (230), and the bottom of the plastic sleeve (25) is installed with a connecting elastic plate (27). The bottom of the connecting elastic plate (27) is respectively installed with an action receiving sensor (28) and a photoelectric sensor.

5. The wearable Internet of Things device for monitoring and alarming according to claim 1, Features: The side end of the heat dissipation connector (10) is connected to a knee pad biological electrode sheet (13), an ultrasonic detection sensor is installed inside the knee pad biological electrode sheet (13), and the side end of the knee pad biological electrode sheet (13) is connected to a secondary heat dissipation connector (12).

6. The wearable Internet of Things device for monitoring and alarming according to claim 1, Features: An adjusting elastic rubber ring (19) is installed at the bottom of the connecting guard rod (18), a rotating rod (20) is installed at the side end of the adjusting elastic rubber ring (19), and a monitoring patch (21) is hingedly connected to the side end of the rotating rod (20).

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