Wearable device based on falling-down positioning alarm technology

Abstract

The invention discloses wearable equipment based on a fall-down positioning alarm technology, which takes a silica gel vest as a main body, is provided with a plurality of ventilation openings, and is matched with a ventilation piece on the inner side to ensure the wearing ventilation. A control piece is arranged on the outer side, a miniature gyroscope sensor can monitor the motion state of the human body in real time, a circuit board analyzes data, and when it is judged that the risk of falling down exists, the electromagnetic gas valve is controlled to be opened, gas in the metal gas bag is inflated into the vest and the head and neck gas curtain, and buffering protection is achieved. The equipment is further provided with a pressure sensor for monitoring falling impact force, a Beidou positioning module for determining the position, and a buzzer alarm for giving an alarm for timely rescue. In addition, the vital sign monitoring sensor at the chest position on the inner side can monitor vital signs in real time, and an alarm can be given in time when abnormity is found. The equipment can effectively prevent and relieve falling injury and guarantee the safety of a user.

Description

Technical Field

[0001] This invention relates to the field of smart wearable device technology, and more specifically to a wearable device based on fall location alarm technology. Background Technology

[0002] Falls are frequent in daily life, especially among the elderly, children, and those engaged in specific jobs or sports. Falls often cause varying degrees of injury, and in severe cases, can even be life-threatening. Traditional protective measures have many limitations. For example, most ordinary protective gear only provides simple physical protection and cannot provide warnings before a fall occurs, nor can it provide targeted protection based on the specific circumstances of the fall. Existing wearable devices also have shortcomings in fall protection. Some devices can only detect that a fall has occurred but cannot take effective cushioning measures to reduce the impact at the moment of the fall or before, and their protection of critical areas such as the head and neck is inadequate. Moreover, many devices lack positioning and alarm functions, and cannot promptly transmit location information to rescuers after a fall, leading to delays in rescue efforts. In addition, some devices, due to poor breathability, can cause discomfort to users during prolonged wear, affecting their normal use. Therefore, developing a wearable device with fall warning, comprehensive cushioning protection, accurate positioning and alarm functions, and good breathability is of significant practical importance. Summary of the Invention

[0003] In view of the shortcomings mentioned above, this paper provides a technical solution for a wearable device based on fall location alarm technology.

[0004] The vest includes a vest with a ventilation and breathable component on the inner back surface and a control component on the outer back surface. A head and neck air curtain is fixedly connected to the top of the vest, and several pressure sensors are fixedly fixed on the outer surface of the vest. Several vital sign monitoring sensors are fixedly fixed on the inner front chest area of ​​the vest.

[0005] The vest includes a silicone vest, two abdominal ventilation openings at the abdominal position of the silicone vest, and a back ventilation opening at the back position of the silicone vest, and waist ventilation openings are provided on both sides of the waist of the silicone vest.

[0006] The control unit includes a shell fixed to the back of the silicone vest and a metal airbag fixed to the right side of the inner cavity of the shell. A miniature gyroscope sensor and a battery are fixed to the left side of the inner cavity of the shell. A circuit board is fixed to the top of the battery. An electromagnetic valve is fixed to the side wall of the inner cavity of the shell. The air inlet of the electromagnetic valve is connected to an air supply pipe that penetrates the metal airbag. The exhaust end of the electromagnetic valve is connected to an exhaust pipe that penetrates the shell. The end of the exhaust pipe is connected to an air pipe that penetrates into the inside of the silicone vest.

[0007] The ventilation component includes several soft air channels arranged in a longitudinal and transverse pattern and a miniature air pump fixed on the outer surface of the outer shell. The air supply end of the miniature air pump is connected to an air delivery pipeline that penetrates into the inner cavity of the soft air channels.

[0008] In the above technical solution, preferably: the silicone vest has sleeve holes on the left and right sides for the arms to pass through, and the top of the silicone vest has a neckline for the head and neck to pass through.

[0009] In the above technical solution, preferably: the interior of the silicone vest and the head and neck air curtain are both hollow, and the interior spaces of the head and neck air curtain and the silicone vest are interconnected. The outer surface of the head and neck air curtain is provided with corrugations for expansion and contraction, which are used to expand upward and extend to protect the head and neck after the head and neck air curtain is inflated.

[0010] In the above technical solution, preferably: the pressure sensor is used to monitor the impact force after a fall, the vital signs monitoring sensor is non-contact, and the vital signs monitoring sensor is used to monitor the wearer's vital signs data.

[0011] In the above technical solution, preferably: an air nozzle is embedded and fixed on the bottom end face of the silicone vest, and the end of the air pipe away from the exhaust pipe is connected to the end port of the air nozzle.

[0012] In the above technical solution, preferably: an air injection nozzle is provided on the top surface of the metal airbag for inflating the metal airbag into the wall-mounted storage, and a pressure sensor is installed inside the metal airbag.

[0013] In the above technical solution, preferably: a Beidou positioning module is provided on the circuit board, and a buzzer alarm is also installed on the circuit board. The data transmission terminal of the micro gyroscope sensor is connected to the circuit board, which is used to control the opening and closing of the electromagnetic valve through the circuit board after the micro gyroscope sensor detects a risk of falling, and release the compressed air inside the metal airbag into the silicone vest, thereby realizing the expansion of the silicone vest and the head and neck air curtain to cushion the fall.

[0014] In the above technical solution, preferably, an interface for connecting the air supply pipe and the air pipe is provided on the back surface of the outer shell.

[0015] In the above technical solution, preferably, the outer surface of the micro air pump is fixedly connected to the top surface of the housing via a bracket.

[0016] In the above technical solution, preferably: the interior of the soft air groove is hollow, and the end face of the soft air groove facing the human body is provided with a plurality of fine holes for blowing air outward, so as to realize the breathable treatment of the skin of the human body wearing part.

[0017] As can be seen from the above technical solution, the wearable device based on fall location alarm technology provided by the present invention has the following beneficial effects compared with the prior art:

[0018] The vest features multiple ventilation openings, combined with breathable components, to achieve excellent breathability, enhance wearing comfort, and prevent stuffiness and discomfort. A miniature gyroscope sensor in the control unit monitors the wearer's posture and movement in real time. The circuit board analyzes the data and, upon detecting a risk of fall, controls the opening of an electromagnetic valve. This allows compressed air from the metal airbag to rapidly inflate the vest and head and neck air curtains, providing cushioning protection for the head, neck, and body, reducing fall injuries. A pressure sensor monitors the impact force experienced during a fall, providing data for subsequent analysis. A Beidou positioning module determines the wearer's location, and a buzzer alarm promptly sounds, facilitating rescue efforts. A vital signs monitoring sensor monitors vital signs in real time, triggering an alarm in case of abnormalities to ensure the wearer's safety. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the accompanying drawings used in the description of the embodiments of the present invention or the prior art will be briefly introduced and explained below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0020] Figure 1 A schematic diagram of the anti-fall vest mechanism;

[0021] Figure 2 An exploded view of the anti-fall vest mechanism;

[0022] Figure 3 This is a schematic diagram of a vest.

[0023] Figure 4 A schematic diagram of the control components;

[0024] Figure 5 This is a schematic diagram of a ventilation and air-permeable component.

[0025] Appendix Figure 1- Appendix Figure 5 The correspondence between the components is as follows:

[0026] 1. Vest component; 1-1. Silicone vest; 1-2. Abdominal ventilation opening; 1-3. Back ventilation opening; 1-4. Waist ventilation opening; 2. Control components; 2-1. Outer shell; 2-2. Air nozzle; 2-3. Air tube; 2-4. Miniature gyroscope sensor; 2-5. Circuit board; 2-6. Battery; 2-7. Exhaust pipe; 2-8. Electromagnetic valve; 2-9. Air supply pipe; 2-10. Injection nozzle; 2-11. Metal airbag; 3. Ventilation components; 3-1. Soft air tank; 3-2. Air supply line; 3-3. Miniature air pump; 4. Pressure sensor; 5. Head and neck air curtain; 6. Vital signs monitoring sensor. Detailed Implementation

[0027] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the embodiments described below are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention. In order to provide a clearer explanation and description of the technical solutions and implementation methods of the present invention, the following describes specific embodiments that implement the preferred technical solutions of the present invention.

[0028] Example 1: A wearable device based on fall location alarm technology includes a vest 1. The vest 1 is made of silicone 1-1. The silicone vest 1-1 has armholes on the left and right sides for the arms to pass through, and a neckline on the top for the head and neck to pass through. It has two abdominal ventilation openings 1-2, a back ventilation opening 1-3, and waist ventilation openings 1-4 on both sides. A ventilation component 3 is provided on the inner back surface of the vest 1. The ventilation component 3 consists of several soft air channels 3-1 arranged in a longitudinal and transverse manner and a miniature air pump 3-3 fixed to the outer surface of the outer shell 2-1. The soft air channels 3-1 are hollow inside, and multiple fine holes for blowing air are provided on the end facing the human body. The air supply end of the miniature air pump 3-3 is connected to an air supply pipe 3-2 that penetrates into the inner cavity of the soft air channels 3-1. The outer surface of the miniature air pump 3-3 is fixedly connected to the top surface of the outer shell 2-1 by a bracket.

[0029] A control component 2 is installed on the outer back surface of the vest component 1. The control component 2 includes a shell 2-1 fixed to the outer back position of the silicone vest 1-1. A metal airbag 2-11 is fixed to the right side of the inner cavity of the shell 2-1. An air inlet 2-10 is provided on the top surface of the metal airbag 2-11 for inflating and storing the air inside. A pressure sensor is installed inside. A miniature gyroscope sensor 2-4 and a battery 2-6 are fixed to the left side of the inner cavity of the shell 2-1. A circuit board 2-5 is fixed to the top of the battery 2-6. A Beidou positioning module and a buzzer alarm are installed on the circuit board 2-5. The data transmission end of the miniature gyroscope sensor 2-4 is connected to... Circuit board 2-5 is connected; an electromagnetic valve 2-8 is fixed on the inner wall of the outer shell 2-1. The air inlet of the electromagnetic valve 2-8 is connected to the air supply pipe 2-9 that passes through the metal airbag 2-11, and the exhaust end is connected to the exhaust pipe 2-7 that passes through the outer shell 2-1. The end of the exhaust pipe 2-7 is connected to the air pipe 2-3 that passes through the inside of the silicone vest 1-1. An air nozzle 2-2 is embedded and fixed on the bottom end face of the silicone vest 1-1. The end of the air pipe 2-3 away from the exhaust pipe 2-7 is connected to the end port of the air nozzle 2-2. An interface for connecting the air supply and exhaust pipe 2-7 and the air pipe 2-3 is provided on the back surface of the outer shell 2-1. A head and neck air curtain 5 is fixedly connected to the top of the vest piece 1. Both the silicone vest 1-1 and the head and neck air curtain 5 are hollow and their internal spaces are interconnected. The outer surface of the head and neck air curtain 5 is provided with corrugations for its expansion and contraction. Several pressure sensors 4 are fixed to the outer surface of the vest piece 1 to monitor the impact force after a fall. Several non-contact vital sign monitoring sensors 6 are fixed to the inner chest area of ​​the vest piece 1 to monitor the wearer's vital sign data. When the miniature gyroscope sensor 2-4 detects a risk of fall, the circuit board 2-5 controls the opening and closing of the electromagnetic valve 2-8 to release compressed air from the metal airbag 2-11 into the silicone vest 1-1, causing the silicone vest 1-1 and the head and neck air curtain 5 to expand and cushion the fall. At the same time, the circuit board 2-5 controls the Beidou positioning module to locate the position and triggers the buzzer alarm.

[0030] Example 2: A wearable device based on fall location alarm technology. The vest component 1 is also made of silicone and has armholes and a collar. It has ventilation openings 1-2 for the abdomen, 1-3 for the back, and 1-4 for the waist. A ventilation component 3 is located on the inner back surface of the vest component 1 and consists of a soft air channel 3-1 and a miniature air pump 3-3. The soft air channel 3-1 has fine pores for ventilation. The miniature air pump 3-3 supplies air to the soft air channel 3-1 through an air supply pipe 3-2 and is fixed to the top of the outer shell 2-1 by a bracket. A control component 2 is located on the outer back surface of the vest component 1. A metal airbag 2-11, a miniature gyroscope sensor 2-4, a battery 2-6, and a circuit board 2-5 are fixed inside the outer shell 2-1. The metal airbag 2-11 has an air injection nozzle 2-10 and a pressure sensor. The circuit board 2-5 has a Beidou positioning module and a buzzer alarm. The miniature gyroscope sensor 2-4 is connected to the circuit board 2-5. The electromagnetic valve 2-8 is fixed to the inner wall of the outer shell 2-1, and is connected to the metal airbag 2-11 via the air supply pipe 2-9. It communicates with the interior of the silicone vest 1-1 via the exhaust pipe 2-7 and the air pipe 2-3. The air pipe 2-3 connects to the air nozzle 2-2. The back of the outer shell 2-1 has a docking interface. The head and neck air curtain 5 is fixed to the top of the vest piece 1, communicating with the interior of the silicone vest 1-1 and featuring elastic corrugations. A pressure sensor 4 is fixed to the outer surface of the vest piece 1 to monitor impact force, and a non-contact vital signs monitoring sensor 6 is fixed to the inner chest area to monitor vital signs. During use, if the miniature gyroscope sensor 2-4 detects a risk of fall, the electromagnetic valve 2-8 is opened via the circuit board 2-5, allowing compressed air from the metal airbag 2-11 to enter the silicone vest 1-1, causing the silicone vest 1-1 and the head and neck air curtain 5 to expand and cushion the fall. Simultaneously, the Beidou positioning module locates the location and an alarm is triggered via a buzzer.

[0031] Example 3:

[0032] A wearable device based on fall detection and alarm technology includes a vest component 1 made of silicone 1-1. It has armholes on both sides for easy arm movement and a neckline at the top for head and neck passage. Two abdominal ventilation openings 1-2 are located in the abdominal area of ​​the silicone vest 1-1, a back ventilation opening 1-3 is located in the middle of the back, and two waist ventilation openings 1-4 are located on both sides of the waist to ensure breathability during wear. A ventilation component 3 is installed on the inner back surface of the vest component 1. The ventilation component 3 consists of multiple longitudinally and transversely arranged soft air channels 3-1 and a miniature air pump 3-3. The soft air channels 3-1 are hollow inside, and the side facing the body has multiple fine holes for blowing air outwards, enabling breathable treatment of the skin around the wearer. The miniature air pump 3-3 is fixed to the top surface of the outer shell 2-1 by a bracket. Its air supply end is connected to the air supply line 3-2, which extends into the inner cavity of the soft air tank 3-1 to provide airflow to the soft air tank 3-1.

[0033] A control component 2 is installed on the outer back surface of the vest 1. The outer shell 2-1 of the control component 2 is fixed to the outer back position of the silicone vest 1-1. A metal airbag 2-11 is fixed to the right side of the inner cavity of the outer shell 2-1. The top of the metal airbag 2-11 is equipped with an air injection nozzle 2-10, which can be used to inflate the metal airbag 2-11 and store it on a wall. At the same time, a pressure sensor is installed inside the metal airbag 2-11 to monitor the internal air pressure. A miniature gyroscope sensor 2-4 and a battery 2-6 are fixed to the left side of the inner cavity of the outer shell 2-1. A circuit board 2-5 is fixed to the top of the battery 2-6. The circuit board 2-5 integrates a Beidou positioning module and a buzzer alarm. The data transmission terminal of the miniature gyroscope sensor 2-4 is connected to the circuit board 2-5, which can transmit the monitored data to the circuit board 2-5. A solenoid valve 2-8 is fixed to the inner wall of the outer shell 2-1. The air inlet of the solenoid valve 2-8 is connected to an air supply pipe 2-9, which is connected to a metal airbag 2-11. The exhaust end of the solenoid valve 2-8 is connected to an exhaust pipe 2-7, which passes through the outer shell 2-1 and is connected to an air pipe 2-3 at its end. An air nozzle 2-2 is embedded and fixed to the bottom end face of the silicone vest 1-1. The end of the air pipe 2-3 away from the exhaust pipe 2-7 is connected to the end port of the air nozzle 2-2. The back surface of the outer shell 2-1 has an interface for the connection between the air supply and exhaust pipes 2-7 and the air pipe 2-3.

[0034] The top of the vest 1 is fixedly connected to the head and neck air curtain 5. Both the silicone vest 1-1 and the head and neck air curtain 5 are hollow inside, and their internal spaces are interconnected. The outer surface of the head and neck air curtain 5 has corrugations for expansion and contraction, allowing it to expand upwards and extend after inflation, providing protection for the head and neck. Multiple pressure sensors 4 are fixed to the outer surface of the vest 1 to monitor the impact force on the human body after a fall. Multiple non-contact vital sign monitoring sensors 6 are fixed to the inner chest area of ​​the vest 1 to monitor the wearer's vital sign data in real time. When the wearer is in a potentially fallable situation, the miniature gyroscope sensor 2-4 detects relevant data and transmits it to the circuit board 2-5. The circuit board 2-5, based on a preset program, determines that there is a risk of fall and controls the solenoid valve 2-8 to open. Compressed air from the metal airbag 2-11 enters the silicone vest 1-1 through the air supply pipe 2-9, solenoid valve 2-8, exhaust pipe 2-7, and air pipe 2-3, causing the silicone vest 1-1 and the head and neck air curtain 5 to rapidly inflate, providing cushioning against a fall. Simultaneously, the circuit board 2-5 controls the Beidou positioning module to determine the wearer's location and triggers a buzzer alarm to ensure timely assistance.

[0035] Based on the above-described preferred technical solution, the workflow of the technical solution is explained as follows: Vest 1 is made of silicone vest 1-1, with sleeve holes on both sides for easy arm passage and a neckline at the top for head and neck passage. Two abdominal ventilation openings 1-2 are opened in the abdominal area of ​​the silicone vest 1-1, a back ventilation opening 1-3 is opened in the middle of the back, and waist ventilation openings 1-4 are opened on both sides of the waist. These ventilation openings ensure the circulation of air between the human body and the outside environment when wearing the vest, thereby improving wearing comfort. A ventilation and breathable component 3 is installed on the inner back surface of the vest component 1. The ventilation and breathable component 3 consists of multiple longitudinally and transversely arranged soft air channels 3-1 and a micro air pump 3-3. The soft air channels 3-1 are hollow inside, and have multiple fine holes for blowing air outward on the side facing the human body. The micro air pump 3-3 is fixed to the top surface of the outer shell 2-1 in the control component 2 by a bracket. Its air supply end is connected to the air supply pipe 3-2, which runs through the inner cavity of the soft air channel 3-1. When the micro air pump 3-3 is started, it will deliver air through the air supply pipe 3-2 to the soft air channel 3-1, and then blow it out of the fine holes of the soft air channel 3-1 onto the skin of the wearer, thereby achieving breathability of the skin of the wearer and avoiding discomfort caused by stuffiness during prolonged wear.

[0036] A control component 2 is installed on the outer back surface of the vest 1. The outer shell 2-1 of the control component 2 is fixed to the outer back position of the silicone vest 1-1. A metal airbag 2-11 is fixed to the right side of the inner cavity of the outer shell 2-1. The top of the metal airbag 2-11 is equipped with an air injection nozzle 2-10. Before the device is used, air can be injected into the metal airbag 2-11 through the air injection nozzle 2-10 to put the metal airbag 2-11 into a wall-mounted storage state. At the same time, a pressure sensor is installed inside the metal airbag 2-11 to monitor the internal air pressure in real time and ensure that the metal airbag 2-11 can provide sufficient air pressure when needed. A miniature gyroscope sensor 2-4 and a battery 2-6 are fixed to the left side of the inner cavity of the outer shell 2-1. Battery 2-6 provides power to the entire device. Circuit board 2-5 is fixed to the top of battery 2-6. Circuit board 2-5 integrates a Beidou positioning module and a buzzer alarm. The data transmission terminal of the miniature gyroscope sensor 2-4 is connected to circuit board 2-5. During the wearer's daily activities, the miniature gyroscope sensor 2-4 monitors human posture and movement status in real time and transmits this data to circuit board 2-5. Circuit board 2-5 analyzes and processes this data according to a preset program. When it determines that the wearer is in a state where a fall is possible, such as abnormal tilting of the body posture, or a sudden change in movement speed and direction, which meets the preset fall risk conditions, the circuit board... 2-5 will trigger subsequent protection and alarm actions. A solenoid valve 2-8 is fixed to the inner wall of the outer shell 2-1. The air inlet of the solenoid valve 2-8 is connected to an air supply pipe 2-9, which is connected to a metal airbag 2-11. The exhaust end of the solenoid valve 2-8 is connected to an exhaust pipe 2-7, which passes through the outer shell 2-1 and is connected to an air pipe 2-3 at its end. An air nozzle 2-2 is embedded and fixed to the bottom surface of the silicone vest 1-1. The end of the air pipe 2-3 away from the exhaust pipe 2-7 is connected to the end port of the air nozzle 2-2. The back surface of the outer shell 2-1 has an interface for the air supply and exhaust pipes 2-7 to connect with the air pipe 2-3. When the circuit board 2-5 determines there is a risk of falling, it will control... When the electromagnetic valve 2-8 is opened, the compressed air inside the metal airbag 2-11 enters the silicone vest 1-1 through the air supply pipe 2-9, electromagnetic valve 2-8, exhaust pipe 2-7, and air pipe 2-3, causing the silicone vest 1-1 to expand rapidly. The top of the vest 1 is fixedly connected to the head and neck air curtain 5. Both the silicone vest 1-1 and the head and neck air curtain 5 are hollow, and their internal spaces are interconnected. When the silicone vest 1-1 is inflated, the head and neck air curtain 5 will also expand. The outer surface of the head and neck air curtain 5 is provided with corrugations for its expansion and contraction. After inflation, it can expand upwards and extend to protect the head and neck, reducing the impact force on the head and neck when falling.

[0037] Multiple pressure sensors 4 are fixed to the outer surface of the vest component 1. During a fall, the pressure sensors 4 monitor the impact force on the body in real time and transmit this data to the circuit board 2-5 for more detailed analysis and recording of the fall. At the same time, the circuit board 2-5 controls the Beidou positioning module to determine the wearer's current location information and stores it in the storage unit of the circuit board 2-5. Simultaneously, it triggers a buzzer alarm to attract the attention of those around and facilitate timely rescue. Multiple non-contact vital sign monitoring sensors 6 are fixed to the inner chest area of ​​the vest component 1. During the wearer's use of the device, the vital sign monitoring sensors 6 monitor the wearer's vital sign data, such as heart rate and respiratory rate, in real time and transmit this data to the circuit board 2-5. The circuit board 2-5 can analyze and process this vital sign data in real time. When abnormal vital signs are detected, the location can also be determined through the Beidou positioning module and an alarm can be triggered to facilitate timely rescue of the wearer.

[0038] This invention is not limited to the preferred embodiments described above. Anyone should understand that structural changes made under the guidance of this invention, and any technical solutions that are the same as or similar to this invention, fall within the protection scope of this invention. Finally, it should be noted that the structures, proportions, sizes, etc., illustrated in the accompanying drawings are only for illustrative purposes to aid those skilled in the art and are not intended to limit the implementation of this application. Therefore, they have no substantial technical significance. Any modifications to the structure, changes in proportions, or adjustments to size, without affecting the effects and objectives of this application, should still fall within the scope of the technical content disclosed in this application.

Claims

1. A wearable device based on fall positioning alarm technology, comprising a vest piece (1), characterized in that: The inner back surface of the vest (1) is provided with a ventilation and air permeation member (3), the outer back surface of the vest (1) is provided with a control member (2), the top of the vest (1) is fixedly connected with a head and neck air curtain (5), the outer surface of the vest (1) is fixedly provided with a plurality of pressure sensors (4), and the inner side of the front chest of the vest (1) is fixedly provided with a plurality of vital sign monitoring sensors (6). The vest (1) comprises a silica gel vest (1-1), two abdominal air permeation openings (1-2) formed in the abdominal position of the silica gel vest (1-1), and a back air permeation opening (1-3) formed in the back position of the silica gel vest (1-1), and the waist air permeation openings (1-4) are formed on both sides of the waist of the silica gel vest (1-1). The control member (2) comprises an outer shell (2-1) fixed to the outer back position of the silica gel vest (1-1), and a metal air bag (2-11) fixed to the right side of the inner cavity of the outer shell (2-1), a micro gyroscope sensor (2-4) and a battery (2-6) are fixed to the left side of the inner cavity of the outer shell (2-1), the top of the battery (2-6) is fixedly connected with a circuit board (2-5), an electromagnetic air valve (2-8) is fixedly connected to the side wall of the inner cavity of the outer shell (2-1), the air inlet end of the electromagnetic air valve (2-8) is connected with a gas supply pipe (2-9) penetrating the metal air bag (2-11), the air outlet end of the electromagnetic air valve (2-8) is connected with an air exhaust pipe (2-7) penetrating the outer shell (2-1), and the distal end of the air exhaust pipe (2-7) is connected with an air pipe (2-3) penetrating into the inside of the silica gel vest (1-1). The ventilation and air permeation member (3) comprises a plurality of soft air grooves (3-1) arranged longitudinally and transversely, and a micro air pump (3-3) fixed to the outer surface of the outer shell (2-1), and the air supply end of the micro air pump (3-3) is connected with a gas conveying pipeline (3-2) penetrating into the inner cavity of the soft air groove (3-1).

2. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The left and right sides of the silica gel vest (1-1) are provided with sleeve holes for the arms to pass through, and the top of the silica gel vest (1-1) is provided with a collar for the head and neck to pass through.

3. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The inside of the silica gel vest (1-1) and the head and neck air curtain (5) are both hollow, and the internal spaces of the head and neck air curtain (5) and the silica gel vest (1-1) are mutually penetrated, the outer surface of the head and neck air curtain (5) is provided with corrugations for its stretching and contraction, which is used for expanding upward after the head and neck air curtain (5) is inflated to protect the head and neck.

4. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The pressure sensor (4) is used for monitoring the impact force after falling, the vital sign monitoring sensor (6) is non-contact, and the vital sign monitoring sensor (6) is used for monitoring the vital sign data of the wearer.

5. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The bottom end surface of the silica gel vest (1-1) is inlaidly fixed with an air nozzle (2-2), and the end of the air pipe (2-3) away from the air exhaust pipe (2-7) is connected with the end port of the air nozzle (2-2).

6. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The top surface of the metal air bag (2-11) is provided with a gas injection end nozzle (2-10) for air charging wall hanging storage inside the metal air bag (2-11), and the inside of the metal air bag (2-11) is provided with an air pressure sensor.

7. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The circuit board (2-5) is provided with a Beidou positioning module, and a buzzer alarm is also installed on the circuit board (2-5). The data transmission end of the micro gyroscope sensor (2-4) is connected with the circuit board (2-5), which is used to control the opening and closing of the electromagnetic air valve (2-8) through the circuit board (2-5) when the micro gyroscope sensor (2-4) detects a risk of falling, and release the compressed air inside the metal air bag (2-11) to the inside of the silica gel vest (1-1), so as to realize the expansion of the silica gel vest (1-1) and the head and neck air curtain (5) to buffer the fall.

8. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The back surface of the shell (2-1) is provided with an interface for the air exhaust pipe (2-7) to be connected with the air pipe (2-3).

9. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The outer surface of the micro air pump (3-3) is fixedly connected with the top surface of the shell (2-1) through a support.

10. The wearable device based on fall positioning alarm technology according to claim 1, characterized in that: The inside of the soft air tank (3-1) is in a hollow state, and the end surface of the soft air tank (3-1) facing the human body is provided with a plurality of fine holes for blowing air outward, which is used to realize the air permeation treatment of the skin of the wearing part of the human body.

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