Wearable experience device for simulating symptoms of diabetes complicated with coronary heart disease

Abstract

The utility model relates to the technical field of medical science popularization experience equipment, in particular to wearable experience equipment for simulating symptoms of diabetes complicated with coronary heart disease. The wearable experience equipment comprises a main body end and a control end. According to the utility model, the wearable experience main body structure, the detachable counterweight module, the palpitation simulation module, the air bag extrusion simulation module, the pain simulation module and the control end are arranged, so that related symptoms of diabetes complicated by coronary heart disease, such as angina pectoris, myocardial infarction and arrhythmia, can be simulated; the symptom simulation parts can be divided according to the human body structure area, so that symptom simulation corresponding to different parts is realized, and real illness symptom experience is provided for an experiencer; by arranging the first emergency braking button and the second emergency braking button, safety braking measures are taken, and life health and safety of an experiencer in the experiencing process can be guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of medical science popularization experience equipment, in particular to a wearable experience equipment for simulating the symptoms of diabetes complicated with coronary heart disease. Background Technique

[0002] Diabetes has become one of the three major chronic non-communicable diseases threatening the health of humans globally, and the cardiovascular and cerebrovascular complications caused by it rank first in the mortality rate of chronic diseases. Among the vascular lesions of diabetes, macrovascular lesions cause coronary heart disease, cerebrovascular disease and peripheral vascular disease. Among them, coronary heart disease is one of the main risk factors for macrovascular lesions in diabetes.

[0003] In the prior art, there are devices that can simulate the symptoms of diabetes complicated with coronary heart disease. For example, CN204130045U discloses a vest for simulating the symptoms of diabetes combined with coronary heart disease. Two opposite pockets are arranged near the bottom of the front of the vest, and counterweight bags are placed in the pockets, with each counterweight bag weighing 0.2 - 2 kilograms. At least one elastic band is arranged horizontally above the back of the vest, with the elastic band being 5 - 30 centimeters long and 1 - 6 centimeters high. This vest can simulate the symptoms of diabetes combined with coronary heart disease. By wearing the vest and matching it with heavy objects, it can simulate the angina pectoris symptoms of coronary heart disease. By configuring heavy objects inside the clothing, it can simulate the chest compression symptoms during the attack of angina pectoris of coronary heart disease. By using the elastic band on the back of the clothing, it can simulate the symptoms of the compression feeling radiating to the back during the attack of angina pectoris of coronary heart disease, enabling the educated person to personally experience the feelings of the symptoms and improving the understanding of the symptoms of diabetes combined with coronary heart disease. However, during the wearing and experiencing process, using the vest with heavy objects to simulate the symptoms of coronary heart disease, angina pectoris, chest compression, and radiation to the back has a large difference from the actual experience of coronary heart disease symptoms. Therefore, there are certain limitations in its symptom simulation. At the same time, the used vest is a vest without an adjustment function, which has certain requirements for the body shape of the experiencer and has a narrow application range. Moreover, the overall experience initiative of the experience vest is relatively high, and almost all experience steps require manual adjustment, resulting in the limitations of a cumbersome experience process and poor experience effect. CN113393745B discloses a diabetes complication experience system and method. The experience system includes a doctor terminal, a user terminal, and an external image acquisition device. The doctor terminal controls the user terminal to execute a preset program. The user terminal includes a head-mounted device, at least one sensor, and at least one actuator. The head-mounted device drives the actuator to work based on at least one sensor value. The external image acquisition device collects the feedback actions or posture adjustments made by the user due to the operation of the actuator. The doctor terminal adjusts the preset program of the user terminal according to the analyzed feedback action or posture adjustment information. It has advantages such as immersive experience and more realistic simulation scenarios. However, this experience system only discloses the method for experiencing diabetes and coronary heart disease complications. For example, the first action can be implemented as squeezing the chest of the experiencer, making the experiencer feel the stuffy feeling of coronary heart disease. The second action can be implemented as reducing and / or increasing the squeezing force. The third action can be implemented as reducing and / or increasing the force at some positions. But it does not disclose the technical solution for implementing the foregoing simulation method through a specific structure. Therefore, there are certain limitations in its symptom simulation structure. CN112687172B discloses a diabetes complication experience teaching aid. The experience teaching aid includes a visual experience structure, an upper body experience structure, and a lower body experience structure. The visual experience structure includes VR glasses. It also includes a head experience structure, a hand experience structure, a foot experience structure. The glove structure and the sock body are both in a five-finger separated style. Third electrode patches are arranged at the five-finger ends and other parts of the hand experience structure and the foot experience structure.Glove structure, the sock body has airbags that can be slightly inflated, enabling the user to feel sensations such as numbness at the fingertips, a feeling of stepping on cotton, etc. It can provide users with real symptoms of the disease, thus playing a role in diabetes prevention and teaching. During the experience process, the device releases microcurrents through the upper body experience structure to let the user feel the radiating electrode stabbing pain from the chest through the shoulders to the back, and the setting of the airbag structure is used to achieve the pressurizing function on the body, so that the user can experience symptoms such as chest tightness after getting diabetes. That is, this technical solution only discloses the experience of the symptoms of diabetes complications and does not mention coronary heart disease and its symptoms. Therefore, the simulation of the comparison diseases is not comprehensive. At the same time, a large number of airbags, electrodes and other electromechanical structures are provided in the device to act on the human body, and its function only simulates chest tightness and radiating stabbing pain. The technical solution of using the release of microcurrents to simulate stabbing pain has certain safety risks.

[0004] To this end, the present utility model provides a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease. The device is composed of a main body end and a control end. The main body end is composed of an airbag extrusion simulation module, a pain simulation module and a palpitation and flustered simulation module. By remotely controlling the airbag extrusion simulation module and the pain simulation module at different parts to simulate different diseases. Compared with the existing devices for experiencing the symptoms of coronary heart disease, it can perform wearable simulation experiences for different coronary heart diseases (including angina pectoris, myocardial infarction and arrhythmia), and has safety braking measures to ensure the life and health safety of the experiencer during the experience process. Summary of the utility model

[0005] Based on this, in view of the above technical problems, the present utility model provides a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease.

[0006] In order to achieve the above object, the technical solution of the present utility model is as follows:

[0007] According to the first aspect of the present utility model, there is provided a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease. The wearable experience device is used to simulate the symptoms of diabetes complicated with coronary heart disease and includes:

[0008] The main body end, the main body end includes a wearing experience main body structure, a detachable counterweight module arranged at the rear end of the wearing experience main body structure corresponding to the back position for simulating the heavy and drooping feeling of the upper body during an illness attack, a palpitation and flustered feeling simulation module arranged on the inner surface of the wearing experience main body structure corresponding to the left side of the upper end of the sternum for simulating the symptoms of palpitation and flustered feeling, an airbag extrusion simulation module arranged inside the wearing experience main body structure corresponding to the front side of the sternum, both sides of the chest, the left shoulder position, the upper abdomen position, the upper back position, both sides of the scapula, the front abdominal circumference position, the lower back position, and both sides of the lower back for simulating a sense of compression, and a pain simulation module arranged on the inner surface of the wearing experience main body structure corresponding to both sides of the chest, above the sternum, the left shoulder position, the upper abdomen position, and the upper back position for simulating pain;

[0009] The control end, the control end includes an electrical component module arranged on the back of the wearing experience main body structure and a remote control module detachably connected to the electrical component module. The remote control module includes an experience end for the experiencer to control and a remote control end for the caregiver to control. The experience end is electrically connected to the electrical component module. The remote control end is detachably connected to the experience end, and the remote control end and the experience end are electrically connected through a magnetic charging structure. The electrical component module is also electrically connected to the palpitation and flustered feeling simulation module and the pain simulation module respectively.

[0010] In some alternative implementation manners of some embodiments, the wearing experience main body structure includes a front piece and a rear piece. The left end surface of the top of the front piece and the left end surface of the top of the rear piece are fixedly connected through a left shoulder piece. The right end surface of the top of the front piece and the right end surface of the top of the rear piece are detachably connected through a right shoulder adjustable connection part. The left end surface of the lower side of the front piece and the left end surface of the lower side of the rear piece are fixedly connected through a left waist piece. The right end surface of the lower side of the front piece and the right end surface of the lower side of the rear piece are detachably connected through a right waist adjustable connection part.

[0011] In some alternative implementation manners of some embodiments, both the right shoulder adjustable connection part and the right waist adjustable connection part include an elastic body and a detachable connection body fixedly connected to the elastic body. The detachable connection manner of the detachable connection body is snap connection or Velcro connection.

[0012] In some alternative implementation manners of some embodiments, a back plate is fixedly installed at the position corresponding to the back of the rear piece. A plurality of first slots are formed on the back plate. The detachable counterweight module is in plug-in fit with the first slots.

[0013] In some alternative implementation manners of some embodiments, the palpitation and flustered simulation module includes a mounting base, a motor, a rotating shaft, an eccentric wheel, a first return spring, and a vibration block. The mounting base is disposed on the inner surface of the front piece. The mounting base is provided with a mounting cavity at a position corresponding to the left side of the upper end of the sternum. The motor and the first return spring are both fixedly mounted in the mounting cavity. One end of the rotating shaft is connected to the output shaft end of the motor, and the other end is connected to the eccentric wheel. The top end of the vibration block is fixedly connected to the first return spring, and the top end of the vibration block abuts against the eccentric wheel and reciprocates along the length direction of the mounting cavity as the eccentric wheel rotates.

[0014] In some alternative implementation manners of some embodiments, the airbag extrusion simulation module includes a sternum anterior airbag disposed inside the front piece and corresponding to the anterior side of the sternum, a chest anterior bilateral airbag assembly disposed inside the front piece and corresponding to both sides of the chest, a left shoulder airbag disposed inside the left shoulder piece and corresponding to the left shoulder, an upper abdomen airbag disposed inside the front piece and corresponding to the upper abdomen, an upper back airbag disposed inside the rear piece and corresponding to the upper part of the back, a scapula bilateral airbag assembly disposed inside the rear piece and corresponding to both sides of the scapula, a front abdominal circumference airbag disposed inside the front piece and corresponding to the front abdominal circumference, a lower back airbag disposed inside the rear piece and corresponding to the lower back, and a lower back bilateral airbag assembly disposed inside the rear piece and corresponding to both sides of the lower back.

[0015] The pain simulation module includes an upper chest bilateral simulation pain part corresponding to both sides of the chest on the inner surface of the front piece, an upper sternum simulation pain part corresponding to the upper part of the sternum on the inner surface of the front piece, a left shoulder simulation pain part corresponding to the left shoulder on the inner surface of the left shoulder piece, an upper abdomen simulation pain part corresponding to the upper abdomen on the inner surface of the front piece, and an upper back simulation pain part corresponding to the upper back on the inner surface of the rear piece.

[0016] In some alternative implementation manners of some embodiments, each of the upper chest bilateral simulation pain part, the upper sternum simulation pain part, the left shoulder simulation pain part, the upper abdomen simulation pain part, and the upper back simulation pain part is one of a pressing protrusion or an electrode sheet group.

[0017] In some alternative implementation manners of some embodiments, the electrical component module includes a housing, a control module, a first power module, an inflation and exhaust module, and a pulse generator disposed inside the housing. The pulse generator is electrically connected to an electrode sheet group, and the electrode sheet group includes a positive electrode sheet and a negative electrode sheet that are adapted to each other. The inflation and exhaust module includes multiple groups of inflation and exhaust units. The anterior sternal airbag, the anterior chest bilateral airbag assembly, the left shoulder airbag, the upper abdominal airbag, the upper back airbag, the bilateral scapular airbag assembly, the anterior abdominal circumference airbag, the posterior lumbar airbag, and the bilateral posterior lumbar airbag assembly are respectively communicated with a group of inflation and exhaust units through connecting pipes. Each group of the inflation and exhaust units includes an air pump and a gas valve communicated with the air pump. The first power module, the inflation and exhaust module, and the pulse generator are respectively electrically connected to the control module.

[0018] In some alternative implementation manners of some embodiments, a first placement groove for placing an experience end and a second placement groove for placing a remote control end are formed on the housing. The first placement groove and the second placement groove are communicated with each other. Elastic buckles are respectively disposed at the top and bottom of the connection between the first placement groove and the second placement groove. The experience end includes an experience end handle, a first sliding groove disposed on the left side of the experience end handle, and a function buckle slidably connected to the top end of the experience end handle. The magnetic charging structure includes a magnetically connected magnetic charging module and a magnetic power supply module. The magnetic charging module is disposed inside the first sliding groove. A second sliding groove is formed at the top end of the experience end handle. A fixing member is fixedly connected to the second sliding groove. The function buckle is slidably connected to the second sliding groove, and an avoidance groove is formed at a position corresponding to the fixing member. A second return spring is disposed in the avoidance groove. One end of the second return spring is fixedly connected to the function buckle, and the other end is fixedly connected to the fixing member. A first emergency braking button is disposed on the experience end handle. A first circuit board module is disposed inside the experience end handle. The first circuit board module is respectively electrically connected to the first emergency braking button, the magnetic charging module, and the control module.

[0019] In some alternative implementation manners of some embodiments, the remote control end includes a remote control end handle, a first slider disposed on the left side of the remote control end handle, and a second slot disposed on the top end of the remote control end handle. The first slider is slidably engaged with the first chute. An inner cavity is formed on one side of the first slider corresponding to the magnetic charging module, and the magnetic power supply module is fixedly installed inside the inner cavity. The position of the functional buckle corresponds to the position of the second slot and is inserted and matched with the second slot under the elastic action of the second return spring. The remote control end handle is provided with a second emergency brake button, an indicator light, an angina symptom simulation button, a myocardial infarction symptom simulation button, and an arrhythmia symptom simulation button. The remote control end handle is internally provided with a second circuit board module and a second power module. The second circuit board module is electrically connected to the second emergency brake button, the indicator light, the angina symptom simulation button, the myocardial infarction symptom simulation button, the arrhythmia symptom simulation button, the magnetic power supply module, the second power module, and the control module respectively.

[0020] The advantages and beneficial effects of the present utility model are as follows: The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease provided by the present utility model can be used to simulate the related symptoms of diabetes complicated with coronary heart disease including angina pectoris, myocardial infarction, and arrhythmia, as well as the heavy and drooping feeling of the upper body during an attack through the coordinated action of the wearable experience main body structure, the detachable counterweight module, the palpitation and flustered simulation module, the airbag extrusion simulation module, the pain simulation module, and the control end. The symptom simulation parts can be divided according to the human body structure area, realizing the symptom simulation corresponding to different parts, providing a real disease symptom experience for the experiencer, so that the experiencer can have a personal experience and understanding of the related symptoms and impacts of diabetes complicated with coronary heart disease; by setting the first emergency brake button and the second emergency brake button, there are safety braking measures, which can ensure the life and health safety of the experiencer during the experience process; by setting the adjustable connecting parts at the right shoulder and the right waist, the structure is simple and convenient to wear, and it is suitable for people of various body types; by the detachable connection between the electrical component module and the remote control module, it is convenient for storage; by setting the pressing protrusions or the electrode plate groups, it can realize the simulation of pain by the point pressure method or the simulation of pain by the electric current stimulation method, and can be adjusted and set targeted and flexibly according to the actual production needs to meet the requirements of different actual productions. Description of the Drawings

[0021] Figure 1 The front view of the wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease;

[0022] Figure 2 The rear view of the wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease;

[0023] Figure 3Side view of a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease;

[0024] Figure 4 Schematic structural diagram of the back plate;

[0025] Figure 5 Schematic structural diagram after the detachable counterweight module is assembled and installed;

[0026] Figure 6 Schematic structural diagram of the palpitation simulation module;

[0027] Figure 7 Front view of the distribution of the airbag extrusion simulation module;

[0028] Figure 8 Rear view of the distribution of the airbag extrusion simulation module;

[0029] Figure 9 Front view of the distribution of the pain simulation module;

[0030] Figure 10 Rear view of the distribution of the pain simulation module;

[0031] Figure 11 Schematic diagram of the working state of the pressing protrusion;

[0032] Figure 12 Schematic diagram of the working state of the electrode plate group;

[0033] Figure 13 Exploded view of the control end;

[0034] Figure 14 Schematic structural diagram of the control end;

[0035] Figure 15 Schematic structural diagram of the inflation and exhaust module;

[0036] Figure 16 Schematic structural diagram before the experience end handle and the remote control end handle are assembled and installed;

[0037] Figure 17 Schematic structural diagram after the experience end handle and the remote control end handle are assembled and installed;

[0038] Figure 18 Exploded view of the experience end handle and the remote control end handle;

[0039] Figure 19 Schematic diagram of the internal structure after the experience end handle and the remote control end handle are assembled and installed.

[0040] Reference numerals: front cutting piece 1, right shoulder adjustable connecting part 2, right waist adjustable connecting part 3, rear cutting piece 4, back plate 5, detachable counterweight module 6, electrical component module 7, remote control module 8, elastic body 9, detachable connecting body 10, first slot 11, T-shaped plug 12, mounting seat 13, motor 14, rotating shaft 15, eccentric wheel 16, first return spring 17, vibration block 18, mounting cavity 19, presternal airbag 20, bilateral chest airbag assembly 21, left shoulder airbag 22, upper abdominal airbag 23, anterior abdominal circumference airbag 24, upper back airbag 25, bilateral scapular airbag assembly 26, lower back airbag 27, bilateral lower back airbag assembly 28, bilateral upper chest simulated pain part 29, upper sternum simulated pain part 30, left shoulder simulated pain part 31, upper abdominal simulated pain part 32, upper back simulated pain part 33, pressing protrusion 34, positive electrode plate 35, negative electrode plate 36, housing 37, first placement groove 38, second placement groove 39, elastic buckle 40, remote control module 41, first power module 42, inflation and exhaust module 43, pulse generator 44, control module 45, air pump 46, air valve 47, function buckle 48, experience end handle 49, first emergency brake button 50, remote control end handle 51, second emergency brake button 52, indicator light 53, angina symptom simulation button 54, myocardial infarction symptom simulation button 55, arrhythmia symptom simulation button 56, first chute 57, first slider 58, first circuit board module 59, second circuit board module 60, second power module 61, second chute 62, fixing part 63, second return spring 64, avoidance groove 65, second slot 66, magnetic charging module 67, magnetic power supply module 68. Detailed implementation manners

[0041] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative work shall fall within the protection scope of the present invention.

[0042] In the description of the present invention, it should be understood that the orientation or positional relationship indicated by the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc. is based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the present invention.

[0043] In addition, in the description of the present utility model, the meaning of "a plurality of" is two or more, unless otherwise clearly and specifically defined.

[0044] Please refer to Figure 1-3 As shown, the purpose of this embodiment is to provide a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease. This wearable experience device is used to simulate the symptoms of diabetes complicated with coronary heart disease and includes a main body end and a control end.

[0045] In this embodiment, the main body end includes a wearable experience main body structure, a detachable counterweight module 6 disposed at the rear end of the wearable experience main body structure corresponding to the back position for simulating the heavy and drooping feeling of the upper body during an attack, a palpitation simulation module disposed on the inner surface of the wearable experience main body structure corresponding to the left side of the upper end of the sternum for simulating the symptoms of palpitation and flusteredness, an airbag extrusion simulation module disposed inside the wearable experience main body structure corresponding to the front side of the sternum, both sides of the chest, the left shoulder position, the upper abdomen position, the upper back position, both sides of the scapula, the front abdominal circumference position, the lower back position, and both sides of the lower back for simulating a sense of compression, and a pain simulation module disposed on the inner surface of the wearable experience main body structure corresponding to both sides of the chest, above the sternum, the left shoulder position, the upper abdomen position, and the upper back for simulating pain.

[0046] Furthermore, please refer to Figure 1-3 As shown, the wearable experience main body structure related to the present utility model includes a front cut piece 1 and a rear cut piece 4. The left end surface of the top of the front cut piece 1 and the left end surface of the top of the rear cut piece 4 are fixedly connected through a left shoulder cut piece. The right end surface of the top of the front cut piece 1 and the right end surface of the top of the rear cut piece 4 are detachably connected through a right shoulder adjustable connecting part 2. The left end surface of the lower side of the front cut piece 1 and the left end surface of the lower side of the rear cut piece 4 are fixedly connected through a left waist cut piece. The right end surface of the lower side of the front cut piece 1 and the right end surface of the lower side of the rear cut piece 4 are detachably connected through a right waist adjustable connecting part 3.

[0047] Among them, the wearable experience main body structure related to the present utility model is composed of a front cut piece 1, a rear cut piece 4, a left shoulder cut piece, a right shoulder adjustable connecting part 2, a left waist cut piece, and a right waist adjustable connecting part 3. Its structure is similar to a wearable vest, but the difference from a traditional wearable vest is that the lengths of the right shoulder adjustable connecting part 2 and the right waist adjustable connecting part 3 related to the present utility model are both adjustable. It not only has a simple structure but also can be suitable for people of various body types, with a wide range of applications. In addition, since the simulation of the symptoms of diabetes complicated with coronary heart disease mostly occurs on the left side, the right shoulder adjustable connecting part 2 and the right waist adjustable connecting part 3 of the present utility model are both arranged on the right side of the body. At the same time, single-sided adjustment is convenient for wearing.

[0048] Specifically, the adjustable connecting part 2 on the right shoulder and the adjustable connecting part 3 on the right waist involved in the present utility model both include an elastic body 9 and a detachable connecting body 10 fixedly connected to the elastic body 9. The detachable connection method of the detachable connecting body 10 is snap connection or Velcro connection.

[0049] Furthermore, the adjustable connecting part 2 on the right shoulder involved in the present utility model is detachably connected to the front piece 1 from the rear piece 4 passing over the right shoulder, and the adjustable connecting part 3 on the right waist is detachably connected to the front piece 1 from the rear piece 4 passing through the armpit (i.e., the inner side of the right arm). The adjustable design enables the wearable experience device of the present utility model to better fit the human body, thereby adapting to experiencers of different body types.

[0050] Among them, please refer to Figure 3 As shown, the elastic body 9 involved in the present utility model can adopt an elastic nylon band or an adjustable buckle nylon band, and the detachable connecting body 10 can adopt one of a schoolbag buckle, an aircraft buckle or Velcro. When connecting, one end of the elastic nylon band or the adjustable buckle nylon band is fixedly connected to the top right end surface of the rear piece 4 or the lower right end surface of the side of the rear piece 4, and the other end is connected to the detachable connecting body 10. The end of the detachable connecting body 10 far from the elastic nylon band or the adjustable buckle nylon band is detachably connected to the top right end surface of the rear piece 4 or the lower right end surface of the side of the front piece 1. If the detachable connecting body 10 is a schoolbag buckle or an aircraft buckle, both structures include a snap and a socket, that is, the snap can be fixedly connected to one end of the elastic nylon band or the adjustable buckle nylon band, and then the socket is fixedly connected to the top right end surface of the rear piece 4 or the lower right end surface of the side of the front piece 1 to realize the snap connection between the snap and the socket; if the detachable connecting body 10 is Velcro, the structure includes a Velcro rough surface and a Velcro hook surface, that is, the Velcro rough surface is fixedly connected to one end of the elastic nylon band or the adjustable buckle nylon band, and then the Velcro hook surface is fixedly connected to the top right end surface of the rear piece 4 or the lower right end surface of the side of the front piece 1 to realize the Velcro connection between the Velcro rough surface and the Velcro hook surface.

[0051] Furthermore, please refer to Figure 4-5 As shown, a back plate 5 is fixedly installed at the position corresponding to the back on the rear piece 4 involved in the present utility model, and a plurality of first slots 11 are opened on the back plate 5. The detachable counterweight module 6 is in plug-in fit with the first slots 11.

[0052] Specifically, the detachable counterweight module 6 is provided with a matching T-shaped plug 12 at the position corresponding to the first slots 11. During use, the caregiver can use the detachable counterweight module 6 as needed according to the patient's physical condition to simulate the heaviness and sagging feeling of the upper body during an illness attack.

[0053] Furthermore, please refer to Figure 6As shown in the figure, the palpitation and flustered simulation module of the present utility model includes a mounting base 13, a motor 14, a rotating shaft 15, an eccentric wheel 16, a first return spring 17 and a vibration block 18. The mounting base 13 is arranged on the inner surface of the front piece 1. The mounting base 13 is provided with a mounting cavity 19 at a position corresponding to the left side of the upper end of the sternum. The motor 14 and the first return spring 17 are both fixedly installed in the mounting cavity 19. One end of the rotating shaft 15 is connected to the output shaft end of the motor 14, and the other end is connected to the eccentric wheel 16. The top end of the vibration block 18 is fixedly connected to the first return spring 17, and the top end of the vibration block 18 is in abutting cooperation with the eccentric wheel 16 and reciprocates along the length direction of the mounting cavity 19 as the eccentric wheel 16 rotates.

[0054] Specifically, the palpitation and flustered simulation module of the present utility model is composed of a mounting base 13, a motor 14, a rotating shaft 15, an eccentric wheel 16, a first return spring 17 and a vibration block 18. Among them, driven by the motor 14, the eccentric wheel 16 can be driven to rotate through the rotating shaft 15, and under the elastic action of the first return spring 17, the vibration block 18 can reciprocate along the length direction of the mounting cavity 19 under the rotation of the eccentric wheel 16 to simulate the symptoms of palpitation and flustered.

[0055] Further, please refer to Figure 7-8 As shown in the figure, the airbag extrusion simulation modules of the present utility model are distributed in the front piece 1, the rear piece 4 and the left shoulder piece. Among them, the airbag extrusion simulation module includes a presternal airbag 20 arranged inside the front piece 1 and corresponding to the front side of the sternum, a bilateral precordial airbag assembly 21 arranged inside the front piece 1 and corresponding to both sides of the chest, a left shoulder airbag 22 arranged inside the left shoulder piece and corresponding to the left shoulder, an upper abdominal airbag 23 arranged inside the front piece 1 and corresponding to the upper abdomen, an upper back airbag 25 arranged inside the rear piece 4 and corresponding to the upper part of the back, a bilateral scapular airbag assembly 26 arranged inside the rear piece 4 and corresponding to both sides of the scapula, a front abdominal circumference airbag 24 arranged inside the front piece 1 and corresponding to the front abdominal circumference, a posterior lumbar airbag 27 arranged inside the rear piece 4 and corresponding to the posterior waist, and a bilateral posterior lumbar airbag assembly 28 arranged inside the rear piece 4 and corresponding to both sides of the posterior waist.

[0056] Among them, the working principle of each part of the airbag is as follows: when the main structure of this wearing experience is in the working state, the corresponding part of the airbag is controlled by the control module 45 to inflate and expand, and then squeeze the human body to generate pressure, so as to simulate the dyspnea and the sense of oppression on the upper body during the onset of the disease.

[0057] Further, please refer to Figure 9-10As shown in the figure, the pain simulation module of the present utility model includes upper chest bilateral simulation pain parts 29 located on the inner surface of the front piece 1 and corresponding to both sides of the chest in front, upper sternum simulation pain part 30 located on the inner surface of the front piece 1 and corresponding to the position above the sternum, left shoulder simulation pain part 31 located on the inner surface of the left shoulder piece and corresponding to the left shoulder position, upper abdomen simulation pain part 32 located on the inner surface of the front piece 1 and corresponding to the upper abdomen position, and upper back simulation pain part 33 located on the inner surface of the rear piece 4 and corresponding to the upper back position.

[0058] It should be understood that the pain simulation module, under the extrusion of the airbag at the corresponding part, jointly generates a pain simulation effect to simulate a squeezing feeling and a pain feeling.

[0059] Furthermore, the upper chest bilateral simulation pain part 29, upper sternum simulation pain part 30, left shoulder simulation pain part 31, upper abdomen simulation pain part 32, and upper back simulation pain part 33 of the present utility model are all one of the pressing protrusions 34 or the electrode sheet group.

[0060] Specifically, please refer to Figure 11-12 As shown in the figure, there are two pain simulation implementation schemes of the present utility model, which are to simulate pain by means of point physical pressure or releasing current in contact with the human body. Specifically, the point physical pressure to simulate pain is generated by multiple pressing protrusions 34. During the process of the airbag expanding and pressing on the human body, the pressing protrusions 34 (i.e., point physical pressure) are used to generate a pain feeling; the current stimulation to simulate pain is to use the electrode sheet group to contact the skin, and under the action of the electrical frequency pulse, it plays an effect of stimulating and simulating pain.

[0061] Furthermore, the electrode sheet group of the present utility model includes a positive electrode sheet 35 and a negative electrode sheet 36 that are adapted to each other.

[0062] Furthermore, please refer to Figure 13-15 As shown in the figure, the electrical component module 7 of the present utility model includes a housing 37, a control module 45, a first power module 42, an inflation and exhaust module 43, and a pulse generator 44 arranged inside the housing 37. The pulse generator 44 is electrically connected to the electrode sheet group. The inflation and exhaust module 43 includes multiple groups of inflation and exhaust units. The front sternum airbag 20, chest bilateral airbag assembly 21, left shoulder airbag 22, upper abdomen airbag 23, upper back airbag 25, scapula bilateral airbag assembly 26, front abdominal circumference airbag 24, rear waist airbag 27, and rear waist bilateral airbag assembly 28 are respectively communicated with a group of inflation and exhaust units through connecting pipes. Each group of inflation and exhaust units includes an air pump 46 and an air valve 47 connected to the air pump 46. The first power module 42, the inflation and exhaust module 43, and the pulse generator 44 are respectively electrically connected to the control module 45.

[0063] Specifically, the inflation and exhaust module 43 is composed of multiple groups of inflation and exhaust units, each group of inflation and exhaust units includes an air pump 46 and an air valve 47 connected to the air pump 46, and the airbag extrusion simulation module in each part corresponds to a group of independent inflation and exhaust units, so that the airbag extrusion simulation module in each part can work independently.

[0064] Specifically, the first power module 42 is used to provide electrical energy to all electrical components involved in the main body end.

[0065] Specifically, the control module 45 is used to receive the control signal sent by the remote control module 418, and control the corresponding palpitation simulation module and / or the airbag compression simulation module and / or the pain simulation module and / or the inflation and exhaust unit and / or the pulse generator 44 to work according to the control signal.

[0066] Furthermore, the shell 37 involved in the utility model is provided with a first placement groove 38 for placing the experience end and a second placement groove 39 for placing the remote control end. The first placement groove 38 and the second placement groove 39 are connected to each other, and elastic buckles 40 are respectively provided at the top and bottom of the connection between the first placement groove 38 and the second placement groove 39.

[0067] Specifically, by setting the first placement groove 38 and the second placement groove 39, after the experience-end handle 49 and the remote-control-end handle 51 are spliced and assembled, they can be respectively stored in the first placement groove 38 and the second placement groove 39. At the same time, when storing, it is necessary to use fingers to bend the elastic buckles 40 at the top and bottom of the connection upward and downward respectively, so that the experience-end handle 49 and the remote-control-end handle 51 can be smoothly stored in the first placement groove 38 and the second placement groove 39, and then release the elastic buckle 40. By utilizing the elastic effect of the elastic buckle 40, the experience-end handle 49 and the remote-control-end handle 51 can be limited and fixed in the first placement groove 38 and the second placement groove 39 for easy storage.

[0068] For further information, see Figure 16-19As shown in the figure, the experience terminal involved in the present utility model includes an experience terminal handle 49, a first chute 57 provided on the left side of the experience terminal handle 49, and a function buckle 48 slidably connected to the top end of the experience terminal handle 49. The magnetic charging structure includes a magnetically connected magnetic charging module 67 and a magnetic power supply module 68. The magnetic charging module 67 is arranged inside the first chute 57. A second chute 62 is provided at the top end of the experience terminal handle 49. A fixing member 63 is fixedly connected to the second chute 62. The function buckle 48 is slidably connected to the second chute 62, and an avoidance groove 65 is provided corresponding to the position of the fixing member 63. A second return spring 64 is arranged in the avoidance groove 65. One end of the second return spring 64 is fixedly connected to the function buckle 48, and the other end is fixedly connected to the fixing member 63. A first emergency braking button 50 is provided on the experience terminal handle 49. A first circuit board module 59 is built into the experience terminal handle 49. The first circuit board module 59 is electrically connected to the first emergency braking button 50, the magnetic charging module 67, and the control module 45 respectively; The remote control terminal includes a remote control terminal handle 51, a first slider 58 provided on the left side of the remote control terminal handle 51, and a second slot 66 provided at the top end of the remote control terminal handle 51. The first slider 58 is slidably matched with the first chute 57. An inner cavity is provided on one side of the first slider 58 corresponding to the magnetic charging module 67. The magnetic power supply module 68 is fixedly installed inside the inner cavity. The position of the function buckle 48 corresponds to the position of the second slot 66, and is inserted and matched with the second slot 66 under the elastic action of the second return spring 64. A second emergency braking button 52, an indicator light 53, an angina symptom simulation button 54, a myocardial infarction symptom simulation button 55, and an arrhythmia symptom simulation button 56 are provided on the remote control terminal handle 51. A second circuit board module 60 and a second power supply module 61 are built into the remote control terminal handle 51. The second circuit board module 60 is electrically connected to the second emergency braking button 52, the indicator light 53, the angina symptom simulation button 54, the myocardial infarction symptom simulation button 55, the arrhythmia symptom simulation button 56, the magnetic power supply module 68, the second power supply module 61, and the control module 45 respectively.

[0069] Specifically, by setting the first sliding groove 57 and the first slider 58, the experience end handle 49 and the remote control end handle 51 can be assembled by sliding them up and down, and by the synergistic effect of the function buckle 48, the fixing member 63, the second return spring 64, the second sliding groove 62 and the second slot 66, the experience end handle 49 and the remote control end handle 51 can be inserted and limited in the left and right directions. Among them, the function buckle 48 is in an L-shaped structure. Before assembly, the second return spring 64 is in a natural elongation state. During assembly, by sliding the function buckle 48 to the right, the second return spring 64 is in a compressed state at this time. After the experience end handle 49 and the remote control end handle 51 are assembled by sliding them up and down, release the function buckle 48. At this time, due to the elastic action of the second return spring 64, it can squeeze the function buckle 48, so that the function buckle 48 returns to its initial position, and then the function buckle 48 can be inserted into the second slot 66 to realize the left and right limit of the experience end handle 49 and the remote control end handle 51. In addition, by setting the magnetic charging module 67 and the magnetic power supply module 68, after the experience end handle 49 and the remote control end handle 51 are assembled by sliding them up and down, it can ensure that the positions of the magnetic charging module 67 and the magnetic power supply module 68 correspond to each other. The two are magnetically connected to realize the function of the remote control end handle 51 supplying power to the experience end handle 49. At the same time, both the magnetic charging module 67 and the magnetic power supply module 68 are existing technologies. Among them, the magnetic charging module 67 is composed of a housing and a wireless charging transmitting coil arranged inside the housing, which is used to wirelessly charge the experience end handle 49. The magnetic power supply module 68 is composed of a housing and a wireless charging coil arranged inside the housing, and the wireless charging coil is electrically connected to the second power module 61 to realize the charging function. The housings involved in the magnetic charging module 67 and the magnetic power supply module 68 are both made of magnetic materials to facilitate the magnetic connection between the two.

[0070] Specifically, the experience end handle 49 of the present utility model is a handle used by the experiencer, mainly a safety handle for the experiencer to perform emergency braking by themselves. Among them, by setting the first emergency braking button 50, when the physical condition of the experiencer is good and they can independently control the remote control module 418, the experiencer needs to hold the experience end handle 49 and press the first emergency braking button 50 until the experience ends before the experience starts. If the experiencer encounters an emergency during the experience or feels unwell during the experience and needs to stop the operation of the wearable experience device, the operation of the wearable experience device can be stopped by releasing the first emergency braking button 50. Its working principle is mainly as follows: The first emergency braking button 50 on the experience end handle 49 is equivalent to the main switch of the entire wearable experience device. When the first emergency braking button 50 is pressed and held without releasing, the wearable experience device is powered on and operates normally. When the first emergency braking button 50 is released, the wearable experience device is powered off and stops operating, and the inflation and exhaust module 43 is activated to exhaust and depressurize the airbag in the wearable experience device to the rated air pressure range. If the airbag in the wearable experience device is already within the rated air pressure range, the inflation and exhaust module 43 will not be activated.

[0071] Specifically, the remote control end handle 51 of the present utility model is a control handle for controlling the wearable experience device. Buttons for simulating related symptoms are provided on the remote control end handle 51, mainly including an angina pectoris symptom simulation button 54, a myocardial infarction symptom simulation button 55, and an arrhythmia symptom simulation button 56. The remote control end handle 51 transmits control signals to the component module (i.e., the control module 45) in a remote control manner, and the control module 45 controls the corresponding palpitation simulation module and / or airbag extrusion simulation module and / or pain simulation module and / or inflation and exhaust unit and / or pulse generator 44 to work for symptom simulation. When in use, the caregiver or the experiencer holds the remote control end handle 51. When the caregiver ensures that the experiencer is in a normal experience state, the symptom simulation button can be pressed. If during the experience, the caregiver observes that the experiencer shows discomfort, the operation of the wearable experience device can be paused by pressing the second emergency braking button. At the same time, the control module 45 controls the inflation and exhaust unit to work to exhaust and depressurize the airbag extrusion simulation module in the main structure of the wearable experience body until the rated air pressure range. If the airbag in the wearable experience device is already within the rated air pressure range, the inflation and exhaust module 43 will not be activated.

[0072] Furthermore, the working principles of the first emergency braking button 50 and the second emergency braking button 52 involved in the present utility model are different. Among them, after the first emergency braking button 50 is released, the wearable experience device can be powered off and stopped operating, and the inflation and exhaust module 43 can be activated. While after the second emergency braking button 52 is pressed, the wearable experience device can be temporarily stopped and the inflation and exhaust module 43 can be activated.

[0073] Furthermore, the present utility model has made certain improvements in the experience structure of diabetes complicated with coronary heart disease symptoms, and added a design for ensuring the experience safety of the experiencer. Emergency stop buttons are provided on both the experience end handle 49 and the remote control end handle 51. The body end is connected to the experience end handle 49 by wire control. In case of emergency, the experiencer or the caregiver can release the first emergency brake button 50 to stop the operation of the wearable experience device, so as to ensure the life and health safety of the experiencer during the experience to the greatest extent.

[0074] The working principle of the wearable experience device for simulating diabetes complicated with coronary heart disease symptoms provided by the present utility model:

[0075] The experiencer wears the wearable experience main structure with the assistance of the caregiver;

[0076] Before the experience starts, the caregiver installs the detachable counterweight module 6 on the back plate 5 according to the physical condition and actual needs of the experiencer to simulate the heavy and sagging feeling of the upper body during the onset of the disease; and according to the physical condition of the experiencer, judges whether the experiencer can independently control the remote control module 418. If the physical condition of the experiencer is good and the experiencer can independently control the remote control module 418, the experience end handle 49 and the remote control end handle 51 are assembled into the remote control module 418, and the experiencer controls the remote control module 418 to experience the symptoms of diabetes complicated with coronary heart disease; if the physical condition of the experiencer is restricted and the experiencer cannot independently control the remote control module 418, the experience end handle 49 and the remote control end handle 51 are assembled into the remote control module 418, and the caregiver controls the remote control module 418 to experience the symptoms of diabetes complicated with coronary heart disease for the experiencer;

[0077] When the physical condition of the experiencer is good and the experiencer can independently control the remote control module 418, the experiencer holds the experience end handle 49 and presses the first emergency brake button 50 until the experience ends before the experience starts. If the experiencer encounters an emergency during the experience or feels unwell during the experience and needs to stop the operation of the wearable experience device, the experiencer releases the first emergency brake button 50 to stop the operation of the wearable experience device; and the experiencer presses the angina symptom simulation button 54 or the myocardial infarction symptom simulation button 55 or the arrhythmia symptom simulation button 56 on the remote control end handle 51 to simulate the symptoms of diabetes complicated with coronary heart disease.

[0078] When the physical condition of the experiencer is restricted and they cannot independently control the remote control module 418, the caregiver holds the handle 49 of the experience end and presses and holds the first emergency braking button 50 until the end of the experience. If the experiencer encounters an emergency during the experience or feels unwell during the experience and needs to stop the operation of the wearable experience device, they release the first emergency braking button 50 to stop the operation of the wearable experience device; and the caregiver presses the angina symptom simulation button 54 or myocardial infarction symptom simulation button 55 or arrhythmia symptom simulation button 56 on the remote control handle 51 to simulate the symptoms of diabetes complicated with coronary heart disease;

[0079] Among them, when the angina symptom simulation button 54 is pressed, the control module 45 controls the inflation and pressurization of the anterior sternal airbag 20, the bilateral chest airbag assembly 21, the left shoulder airbag 22, the upper abdominal airbag 23, the upper back airbag 25, the bilateral scapular airbag assembly 26, the anterior abdominal circumference airbag 24, the lower back airbag 27, and the bilateral lower back airbag assembly 28 respectively, and the palpitation simulation module vibrates to simulate the angina symptoms;

[0080] When the myocardial infarction symptom simulation button 55 is pressed, the control module 45 controls the inflation and pressurization of the anterior sternal airbag 20, the bilateral chest airbag assembly 21, the anterior abdominal circumference airbag 24, the upper back airbag 25, and the bilateral scapular airbag assembly 26 respectively to simulate the myocardial infarction symptoms;

[0081] When the arrhythmia symptom simulation button 56 is pressed, the control module 45 controls the inflation and pressurization of the upper back airbag 25, the anterior abdominal circumference airbag 24, and the bilateral scapular airbag assembly 26 respectively, and the palpitation simulation module vibrates to simulate the arrhythmia symptoms;

[0082] If during the experience, the caregiver observes that the experiencer shows discomfort, they press the second emergency braking button to pause the operation of the wearable experience device. At the same time, the control module 45 controls the inflation and exhaust unit to work to exhaust and depressurize the airbag extrusion simulation module in the wearable experience main structure until the rated air pressure range;

[0083] When the experience ends, the experiencer or the caregiver releases the first emergency braking button 50 and takes off the wearable experience main structure.

[0084] Specifically, there are two implementation schemes for the experience method involved in the present utility model, namely, the physical condition of the experiencer is good and can independently control the remote control module 418, and the physical condition of the experiencer has limitations and cannot independently control the remote control module 418. Specifically, when the physical condition of the experiencer is good and can independently control the remote control module 418, the experiencer can independently control the remote control module 418 by hand to simulate relevant symptoms. When the physical condition of the experiencer has limitations and cannot independently control the remote control module 418, the caregiver can dominate the control of the remote control module 418 by hand to simulate relevant symptoms for the experiencer.

[0085] In summary, the present utility model provides a wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease. The device is composed of a main body end and a control end. The main body end is composed of an airbag extrusion simulation module, a pain simulation module, and a palpitation and flustered simulation module. Different parts of the airbag extrusion simulation module and the pain simulation module are remotely controlled to simulate different diseases. Compared with the existing devices for experiencing coronary heart disease symptoms, it can perform wearable simulation experiences for different coronary heart disease conditions (including angina pectoris, myocardial infarction, and arrhythmia), and has safety braking measures to ensure the life and health safety of the experiencer during the experience process.

[0086] Obviously, those skilled in the art should understand that the above implementation manners of each step of the present utility model can be implemented in a different manner from the present utility model. The simulation method and experimental equipment include but are not limited to the above description. In some cases, the above steps of the present utility model can be executed in a different order from here, and the steps shown or described above can be executed separately. Therefore, the present utility model is not limited to any specific combination of hardware and software.

[0087] The above content is a further detailed description of the present utility model in combination with specific implementation manners, and it cannot be determined that the specific implementation of the present utility model is only limited to these descriptions. For those of ordinary skill in the technical field to which the present utility model belongs, without departing from the concept of the present utility model, several simple deductions or substitutions can still be made, which should all be regarded as belonging to the protection scope of the present utility model.

Claims

1. A wearable experience device simulating the symptoms of diabetes complicated with coronary heart disease, characterized in that The wearable experience device is used to simulate the symptoms of diabetes complicated with coronary heart disease, including: A main body end, which includes a wearable experience main body structure, a detachable counterweight module arranged at the rear end of the wearable experience main body structure corresponding to the back position for simulating the heavy and sagging feeling of the upper body during an attack, a palpitation and flustered feeling simulation module arranged on the inner surface of the wearable experience main body structure corresponding to the left side of the upper end of the sternum for simulating the symptoms of palpitation and flustered feeling, an airbag extrusion simulation module arranged inside the wearable experience main body structure corresponding to the front side of the sternum, both sides of the chest, the left shoulder position, the upper abdomen position, the upper back position, both sides of the scapula, the front abdominal circumference position, the lower back position, and both sides of the lower back for simulating a sense of compression, and a pain simulation module arranged on the inner surface of the wearable experience main body structure corresponding to both sides of the chest, above the sternum, the left shoulder position, the upper abdomen position, and the upper back for simulating pain; A control end, which includes an electrical component module arranged on the back of the wearable experience main body structure and a remote control module detachably connected to the electrical component module. The remote control module includes an experience end for the experiencer to control and a remote control end for the caregiver to control. The experience end is electrically connected to the electrical component module. The remote control end is detachably connected to the experience end, and the remote control end and the experience end are electrically connected through a magnetic charging structure. The electrical component module is also electrically connected to the palpitation and flustered feeling simulation module and the pain simulation module respectively.

2. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 1, wherein The wearable experience main body structure includes a front cut piece and a rear cut piece. The left end surface of the top of the front cut piece and the left end surface of the top of the rear cut piece are fixedly connected through a left shoulder cut piece. The right end surface of the top of the front cut piece and the right end surface of the top of the rear cut piece are detachably connected through a right shoulder adjustable connection part. The left end surface of the lower side of the front cut piece and the left end surface of the lower side of the rear cut piece are fixedly connected through a left waist cut piece. The right end surface of the lower side of the front cut piece and the right end surface of the lower side of the rear cut piece are detachably connected through a right waist adjustable connection part.

3. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 2, characterized in that, Both the right shoulder adjustable connection part and the right waist adjustable connection part include an elastic body and a detachable connection body fixedly connected to the elastic body. The detachable connection method of the detachable connection body is snap connection or Velcro connection.

4. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 2, wherein A back plate is fixedly installed at the position corresponding to the back of the rear cut piece, and a plurality of first slots are opened on the back plate. The detachable counterweight module is in plug-in fit with the first slots.

5. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 2, wherein The palpitation and flustered feeling simulation module includes a mounting seat, a motor, a rotating shaft, an eccentric wheel, a first return spring, and a vibration block. The mounting seat is arranged on the inner surface of the front cut piece. An installation cavity is opened at the position corresponding to the left side of the upper end of the sternum on the mounting seat. The motor and the first return spring are both fixedly installed in the installation cavity. One end of the rotating shaft is connected to the output shaft end of the motor, and the other end is connected to the eccentric wheel. The top end of the vibration block is fixedly connected to the first return spring, and the top end of the vibration block is in contact with and abuts against the eccentric wheel, and reciprocates along the length direction of the installation cavity as the eccentric wheel rotates.

6. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 2, characterized in that, The airbag extrusion simulation module includes an anterior sternal airbag disposed inside the anterior cut piece and corresponding to the anterior side of the sternum, a bilateral anterior chest airbag assembly disposed inside the anterior cut piece and corresponding to both sides of the anterior chest, a left shoulder airbag disposed inside the left shoulder cut piece and corresponding to the left shoulder, an upper abdomen airbag disposed inside the anterior cut piece and corresponding to the upper abdomen, an upper back airbag disposed inside the posterior cut piece and corresponding to the upper back, a bilateral scapular airbag assembly disposed inside the posterior cut piece and corresponding to both sides of the scapulae, an anterior abdominal circumference airbag disposed inside the anterior cut piece and corresponding to the anterior abdominal circumference, a posterior waist airbag disposed inside the posterior cut piece and corresponding to the posterior waist, and a bilateral posterior waist airbag assembly disposed inside the posterior cut piece and corresponding to both sides of the posterior waist; The pain simulation module includes an upper bilateral anterior chest pain simulation part disposed on the inner surface of the anterior cut piece and corresponding to both sides of the anterior chest, an upper sternal pain simulation part disposed on the inner surface of the anterior cut piece and corresponding to the upper side of the sternum, a left shoulder pain simulation part disposed on the inner surface of the left shoulder cut piece and corresponding to the left shoulder, an upper abdomen pain simulation part disposed on the inner surface of the anterior cut piece and corresponding to the upper abdomen, and an upper back pain simulation part disposed on the inner surface of the posterior cut piece and corresponding to the upper back.

7. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 6, wherein, The upper bilateral anterior chest pain simulation part, the upper sternal pain simulation part, the left shoulder pain simulation part, the upper abdomen pain simulation part, and the upper back pain simulation part are each one of a pressing protrusion or an electrode sheet group.

8. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 7, characterized in that, The electrical component module includes a housing, a control module, a first power module, an inflation and exhaust module, and a pulse generator disposed inside the housing. The pulse generator is electrically connected to the electrode sheet group. The electrode sheet group includes a positive electrode sheet and a negative electrode sheet that are adapted to each other. The inflation and exhaust module includes multiple groups of inflation and exhaust units. The anterior sternal airbag, the bilateral anterior chest airbag assembly, the left shoulder airbag, the upper abdomen airbag, the upper back airbag, the bilateral scapular airbag assembly, the anterior abdominal circumference airbag, the posterior waist airbag, and the bilateral posterior waist airbag assembly are respectively communicated with a group of inflation and exhaust units through connecting pipes. Each group of inflation and exhaust units includes an air pump and an air valve communicated with the air pump. The first power module, the inflation and exhaust module, and the pulse generator are respectively electrically connected to the control module.

9. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 8, characterized in that, The shell is provided with a first placement slot for placing the experience end and a second placement slot for placing the remote control end, the first placement slot and the second placement slot are connected, and elastic buckles are respectively provided at the top and bottom of the connection between the first placement slot and the second placement slot, the experience end includes an experience end handle, a first slide slot arranged on the left side of the experience end handle, and a functional buckle slidably connected to the top of the experience end handle, the magnetic charging structure includes a magnetic charging module and a magnetic power supply module connected by magnetic attraction, the magnetic charging module is arranged on the inner side of the first slide slot, the top of the experience end handle is provided with a second slide slot, a fixing piece is fixedly connected to the second slide slot, the functional buckle is slidably connected to the second slide slot, and an avoidance slot is provided at the position corresponding to the fixing piece, a second return spring is provided in the avoidance slot, one end of the second return spring is fixedly connected to the functional buckle, and the other end is fixedly connected to the fixing piece, a first emergency brake button is provided on the experience end handle, and a first circuit board module is built in the experience end handle, and the first circuit board module is electrically connected to the first emergency brake button, the magnetic charging module, and the control module respectively.

10. The wearable experience device for simulating the symptoms of diabetes complicated with coronary heart disease according to claim 9, wherein, The remote control end includes a remote control end handle, a first slider arranged on the left side of the remote control end handle, and a second slot arranged on the top of the remote control end handle, the first slider is slidably matched with the first slide slot, an inner cavity is opened on the side of the first slider corresponding to the magnetic charging module, the magnetic power supply module is fixedly installed inside the inner cavity, the position of the functional buckle corresponds to the position of the second slot, and is plugged and matched with the second slot due to the elastic action of the second return spring, the remote control end handle is provided with a second emergency brake button, an indicator light, an angina symptom simulation button, a myocardial infarction symptom simulation button and an arrhythmia symptom simulation button, the remote control end handle is built-in with a second circuit board module and a second power supply module, and the second circuit board module is electrically connected to the second emergency brake button, the indicator light, the angina symptom simulation button, the myocardial infarction symptom simulation button, the arrhythmia symptom simulation button, the magnetic power supply module, the second power supply module, and the control module respectively.

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