Multi-point electric shock somatosensory equipment based on mixed reality technology

Abstract

The utility model relates to a multi-point electric shock somatosensory device based on a mixed reality technology, and aims to solve the technical problems that when a current electric shock somatosensory device is worn on a hand and then a wire is discharged, an exposed wire is easy to generate secondary harm when being operated on the palm, and the operation flexibility of the hand is influenced. Comprising a double-shoulder strap assembly used for wearing equipment in front of the chest of a user, an equipment bearing assembly detachably installed on the double-shoulder strap assembly and a multi-point motion sensing assembly arranged in the equipment bearing assembly and used for non-power-cut operation training, and the multi-point motion sensing assembly comprises an electric shock device. A Type-C charging interface and a power switch are arranged on the two sides of the electric shock device respectively, and a plurality of discharging interfaces are formed in the top of the electric shock device at equal intervals. The mode that the front chest is fixed is adopted, so that a wire is far away from the two hands, used for operation, of a user, and the flexibility of hand operation is improved; therefore, the problem of secondary harm caused by palm operation of the bare wire can be avoided.

Description

Technical Field

[0001] The utility model relates to the technical field of training equipment, and in particular to a multi-point electric touch somatosensory device based on mixed reality technology. Background Art

[0002] 10kV distribution network non-stop operation refers to a method of maintenance of line equipment through bypass operation and live operation, which can keep users from power outages or reduce power outages. It is a special job with strong technical requirements and high operational safety level. At present, my country's power supply enterprises' distribution network live operation is usually divided into two methods: direct operation and indirect operation. The direct operation method is that the operator uses insulated boom trucks, insulated platforms and other carrying tools, wears insulated gloves and directly contacts the live body to operate. When using this method, it is necessary to insulate and shield the live body or grounding body that does not meet the safety distance to achieve the purpose of the operation; and the indirect operation method is a method in which the operator uses insulated operating rods and other tools to indirectly contact the live body to operate. Regardless of the operation method, it is a high-risk work item, so the safety training of distribution network non-stop operation has always been a training work that power companies attach great importance to.

[0003] At present, in order to improve the safety of training, the traditional power vocational education and training methods cannot use actual operating equipment, so trainees lack a real sense of experience, and the training of trainees in theoretical knowledge is relatively strong, lacking good interactivity and practicality, and cannot be combined with actual problems. At present, with the development of virtual reality technology, virtual training has become a reality by introducing virtual reality technology into the non-stop operation of distribution network. In the process of using the distribution network non-stop VR training system, in addition to the conventional shaking experience, settlement experience and falling object impact experience, considering the high risk of electric shock in the actual non-stop operation process, the relevant content of electric shock sensation is also added.

[0004] The conventional practice in the prior art is to provide an additional electric shock sensory device, using a wearable palm electric shock sensory device as a supplementary sensory device for virtual training of non-stop power supply operations. However, the current electric shock sensory device needs to be discharged on the user's body surface through a wire and a conductive sticker. The exposed wire is easy to cause secondary hazards when operating with the palm, and also affects the flexibility of hand operation. In view of this, we propose a multi-point electric shock sensory device based on mixed reality technology. Utility Model Content

[0005] The purpose of the utility model is to overcome the deficiencies of the prior art, meet actual needs, and provide a multi-point electric shock somatosensory device based on mixed reality technology to solve the technical problem that the current electric shock somatosensory device is worn on the hand and then discharges the wires, and the exposed wires are prone to secondary hazards when operated by the palm, and also affect the flexibility of hand operation.

[0006] In order to achieve the purpose of the utility model, the technical solution adopted by the utility model is: designing a multi-point electric shock somatosensory device based on mixed reality technology, including a shoulder strap component for wearing the device on the chest of a user, a device receiving component detachably mounted on the shoulder strap component, and a multi-point somatosensory component provided in the device receiving component for non-stop operation training;

[0007] The multi-point somatosensory component includes an electric shock device, and a Type-C charging interface and a power switch are respectively arranged on both sides of the electric shock device, and a plurality of discharge interfaces are equidistantly arranged on the top of the electric shock device;

[0008] A control circuit board is provided in the defibrillator, and an LCD display is fixedly installed on one side of the defibrillator, a control button is provided on one side of the defibrillator, a wireless MCU module, an antenna communication module, a mode control module, a discharge module, a boost module and a power management module are provided on the control circuit board, and an external lithium battery is provided in the power management module;

[0009] The wireless MCU module is connected to an LCD display, an antenna communication module, a power management module, a mode control module and a boost module, and the mode control module is connected to the boost module. The mode control module is connected to a discharge module for discharging, and a plurality of the discharge interfaces are connected to the discharge module.

[0010] Preferably, the double-shoulder strap assembly comprises a chest strap and two shoulder straps sewn to one side of the chest strap, a buckle seat and a buckle head are respectively installed at both ends of the chest strap, and the buckle seat and the buckle head are plug-fitted.

[0011] Preferably, the equipment mounting assembly includes a mounting seat, a mounting cavity for movable setting of the multi-point somatosensory assembly is centrally provided on one side of the mounting seat, and an operating hole is centrally provided on the top of the mounting seat, cavity grooves are provided on both sides of the top of the mounting seat, and two movable cavities corresponding to the cavity grooves are symmetrically provided on both sides of the top of the mounting cavity, and a limit assembly for locking the electric shock device is provided in the cavity groove and the two movable cavities.

[0012] Preferably, the limiting assembly comprises an inner cylinder and a pressing cylinder;

[0013] The inner cylinder is fixedly arranged at the center of the bottom end of the cavity, and a groove is centrally provided at the top end of the inner cylinder, and a plurality of springs are equidistantly arranged in the groove;

[0014] The pressing cylinder is movably sleeved on the inner cylinder, and the pressing cylinder is fixedly connected to the plurality of springs. Pushing grooves are provided on both sides of the pressing cylinder, and a locking mechanism rotatably installed in the corresponding movable cavity is movably provided in the pushing groove.

[0015] Preferably, the locking mechanism includes a shaft rod, which is rotatably arranged in the movable cavity, and a curved arm is fixedly installed on the outer edge of the shaft rod, one end of the curved arm is movably arranged in the pushing groove, and the other end of the curved arm is constructed with a hanging key, and a plurality of hanging grooves corresponding to the hanging keys are symmetrically opened on both sides of the top of the electric shock device.

[0016] Preferably, a guide key is centrally constructed at the bottom end of the electric shock device, and a guide groove for slidingly setting the guide key is centrally opened at the bottom end of the installation cavity.

[0017] Preferably, a hanging seat for the chest strap to be passed through is centrally constructed on one side of the mounting seat away from the defibrillator, and two sockets for the corresponding shoulder straps to be plugged and fixed are symmetrically constructed on the top of one side of the mounting seat.

[0018] Compared with the prior art, the beneficial effects of the present invention are:

[0019] 1. The utility model completes the assembly of the multi-point somatosensory component and the wearing of the component on the chest of the user by providing a double-shoulder strap component with a device holding component, and connects the conductive sticker with a wire or a connector configured later to the discharge interface, so as to cooperate with the electric shock device for discharge, so that the wire is away from the hands of the user for operation, and the flexibility of hand operation is improved, so as to avoid the problem of secondary harm caused by the exposed wire due to palm operation.

[0020] 2. The utility model controls discharge through a wireless MCU module, a power management module, an antenna communication module, a module control module, and a boost module. It is connected to a computer through the antenna communication module and relies on mixed reality technology to interact with the training equipment. Therefore, when an electric shock error occurs during user training, the mode control module and the boost module can cooperate with the discharge module in the mixed reality body perception to adjust the discharge voltage, and cooperate with the conductive stickers and wires to discharge, so as to experience the mixed reality electric shock accident scene.

[0021] 3. The utility model drives the two locking mechanisms by means of a pressing cylinder in cooperation with an inner cylinder having a plurality of springs arranged therein, so that the crank arm rotates in the movable cavity, thereby pulling the mounting key out of the stun gun, thereby releasing the lock of the stun gun. In combination with the guide key arranged at the bottom of the stun gun, a three-point fixation of the stun gun is achieved, and the stun gun can be quickly disassembled and installed, thereby greatly improving the convenience during use. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0023] Figure 2 It is a schematic diagram of the disassembly of the utility model;

[0024] Figure 3 It is a cross-sectional view of the equipment receiving assembly in the utility model;

[0025] Figure 4 It is a partial structural schematic diagram of the equipment receiving assembly in the utility model in a cross-sectional state;

[0026] Figure 5 The utility model is a circuit diagram of the electric shock device.

[0027] In the figure: 1. shoulder strap assembly; 101. chest strap; 102. shoulder strap; 103. buckle seat; 104. buckle head; 2. equipment mounting assembly; 201. mounting seat; 202. inner cylinder; 203. pressing cylinder; 204. spring; 205. movable chamber; 206. shaft; 207. curved arm; 208. pushing groove; 209. mounting key; 210. mounting seat; 211. socket; 3. multi-point somatosensory assembly; 301. electric shock device; 302. guide key. DETAILED DESCRIPTION

[0028] The utility model is further described below in conjunction with the accompanying drawings and embodiments:

[0029] Embodiment 1: A multi-point electric touch somatosensory device based on mixed reality technology, see Figure 1 It includes a shoulder strap assembly 1 for wearing the device on the user's chest, a device holding assembly 2 detachably mounted on the shoulder strap assembly 1, and a multi-point somatosensory assembly 3 arranged in the device holding assembly 2 for non-stop operation training.

[0030] Further, to experience the mixed reality electric shock accident scene, see Figure 1 , Figure 3 , Figure 5The multi-point somatosensory component 3 includes a defibrillator 301, and the two sides of the defibrillator 301 are respectively provided with a Type-C charging interface and a power switch, and the top of the defibrillator 301 is equidistantly provided with a plurality of discharge interfaces, a control circuit board is provided in the defibrillator 301, and an LCD display is fixedly installed on one side of the defibrillator 301, and a control button is provided on one side of the defibrillator 301, and a wireless MCU module, an antenna communication module, a mode control module, a discharge module, a boost module and a power management module are provided on the control circuit board, and an external lithium battery is provided in the power management module, and the wireless MCU module is connected to the LCD display, the antenna communication module, the power management module, and the mode control module. The mode control module is connected to a mode control module and a boost module, and the mode control module is connected to the boost module. The mode control module is connected to a discharge module for discharging, and multiple discharge interfaces are connected to the discharge module. Discharge control is performed through a wireless MCU module, a power management module, an antenna communication module, a module control module, and a boost module. The computer is connected through the antenna communication module, and interactive communication is performed with the training equipment based on mixed reality technology. Therefore, when an electric shock error operation occurs during user training operations, the mode control module and the boost module can cooperate with the discharge module to adjust the discharge voltage in the mixed reality somatosensory, and cooperate with conductive stickers and wires for discharge, so as to experience the mixed reality electric shock accident scene.

[0031] Furthermore, to avoid the problem of secondary harm caused by hand operation of exposed wires, see Figure 1 , Figure 2 , Figure 3 The double shoulder strap assembly 1 includes a chest strap 101 and two shoulder straps 102 sewn on one side of the chest strap 101, and buckles 103 and buckles 104 are respectively installed at both ends of the chest strap 101, and the buckles 103 and the buckles 104 are plugged together. A hanging seat 210 for the chest strap 101 to pass through is centrally constructed on the side of the mounting seat 201 away from the electric shock device 301, and two sockets 211 for the corresponding shoulder straps 102 to be plugged and fixed are symmetrically constructed on the top of one side of the mounting seat 201. The multi-point somatosensory component is assembled and worn on the chest of the user through the double shoulder strap assembly provided with the equipment holding assembly 2, and the conductive sticker with a wire, i.e., a connector, which is configured later, is plugged into the discharge interface to cooperate with the electric shock device 301 for discharge, so that the wire is away from the user's hands used for operation, and the flexibility of hand operation is improved, so as to avoid the problem of secondary harm caused by palm operation of the exposed wire.

[0032] Further, in order to realize the quick disassembly and quick assembly of the electric shock device 301, see Figure 1 , Figure 3 , Figure 4The device receiving component 2 includes a mounting seat 201, a mounting cavity for the multi-point somatosensory component 3 to be movably arranged is provided in the center of one side of the mounting seat 201, and an operation hole is provided in the center of the top of the mounting seat 201, both sides of the top of the mounting seat 201 are provided with cavity grooves, and both sides of the top of the mounting cavity are symmetrically provided with two active cavities 205 connected to the corresponding cavity grooves, and the cavity groove and the two active cavities 205 are provided with a limit component for locking the electric shock device 301, and the limit component includes an inner cylinder 202 and a pressing cylinder 203, and the inner cylinder 20 2 is fixedly arranged at the center of the bottom end of the cavity, and a groove is opened in the center of the top end of the inner cylinder 202, and multiple springs 204 are arranged equidistantly in the groove, the pressing cylinder 203 is movably sleeved on the inner cylinder 202, and the pressing cylinder 203 is fixedly connected to the multiple springs 204, and pushing grooves 208 are opened on both sides of the pressing cylinder 203, and a locking mechanism rotatably installed in the corresponding active cavity 205 is movably arranged in the pushing groove 208, and the locking mechanism includes a shaft rod 206, and the shaft rod 206 is rotatably arranged in the active cavity 205, and the A crank arm 207 is fixedly mounted on the outer edge of the shaft 206, one end of the crank arm 207 is movably arranged in the pushing groove 208, and the other end of the crank arm 207 is configured with a mounting key 209, and a plurality of mounting grooves corresponding to the mounting keys 209 are symmetrically provided on both sides of the top of the electric shock device 301, and a guide key 302 is centrally configured at the bottom end of the electric shock device 301, and a guide groove for the guide key 302 to slide is centrally provided at the bottom end of the installation cavity, and the two locking mechanisms are realized by pressing the inner cylinder 202 with a plurality of springs 204 arranged therein to cooperate with the inner cylinder 203. The mechanism is driven by pressing the pressing cylinder 203 to push the two curved arms 207 arranged in the two pushing grooves 208 to move, so that the curved arms 207 rotate around the shaft 206, so that the end of the curved arm 207 with the hanging key 209 swings in the movable cavity 205, so that the hanging key 209 is pulled out from the two hanging grooves on the electric shock device 301, thereby releasing the lock of the electric shock device 301, and cooperating with the guide key 302 set at the bottom of the electric shock device 301, a three-point fixation of the electric shock device 301 is realized, and it can also be quickly disassembled and quickly installed, which greatly improves the convenience during use.

[0033] The embodiments of the present invention disclose preferred embodiments, but are not limited thereto. A person skilled in the art can easily understand the spirit of the present invention based on the above embodiments and make different extensions and changes. However, as long as they do not deviate from the spirit of the present invention, they are all within the protection scope of the present invention.

Claims

1. A multi-point electric touch somatosensory device based on mixed reality technology, characterized in that: It comprises a shoulder strap assembly (1) for wearing the device on the chest of a user, a device receiving assembly (2) detachably mounted on the shoulder strap assembly (1), and a multi-point somatosensory assembly (3) arranged in the device receiving assembly (2) for conducting non-stop operation training; The multi-point somatosensory component (3) comprises an electric shock device (301), a Type-C charging interface and a power switch are respectively arranged on two sides of the electric shock device (301), and a plurality of discharge interfaces are equidistantly arranged on the top of the electric shock device (301); A control circuit board is provided in the defibrillator (301), and an LCD display is fixedly mounted on one side of the defibrillator (301). A control button is provided on one side of the defibrillator (301). A wireless MCU module, an antenna communication module, a mode control module, a discharge module, a boost module and a power management module are provided on the control circuit board, and an external lithium battery is provided in the power management module; The wireless MCU module is connected to an LCD display, an antenna communication module, a power management module, a mode control module and a boost module, and the mode control module is connected to the boost module. The mode control module is connected to a discharge module for discharging, and a plurality of the discharge interfaces are connected to the discharge module.

2. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 1, characterized in that: The double-shoulder strap assembly (1) comprises a chest strap (101) and two shoulder straps (102) sewn to one side of the chest strap (101); a buckle seat (103) and a buckle head (104) are respectively installed at two ends of the chest strap (101); and the buckle seat (103) and the buckle head (104) are plugged into and matched with each other.

3. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 2, characterized in that: The device receiving assembly (2) comprises a mounting seat (201), a mounting cavity for movably mounting the multi-point body sensing assembly (3) is provided in the center of one side of the mounting seat (201), and an operation hole is provided in the center of the top of the mounting seat (201), a cavity groove is provided on both sides of the top of the mounting seat (201), and two movable cavities (205) connected to the corresponding cavity grooves are symmetrically provided on both sides of the top of the mounting cavity, and a limit assembly for locking the electric shock device (301) is provided in the cavity groove and the two movable cavities (205).

4. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 3, characterized in that: The limiting assembly comprises an inner cylinder (202) and a pressing cylinder (203); The inner cylinder (202) is fixedly arranged at the center of the bottom end of the cavity, and a groove is centrally provided at the top end of the inner cylinder (202), and a plurality of springs (204) are equidistantly arranged in the groove; The pressing cylinder (203) is movably sleeved on the inner cylinder (202), and the pressing cylinder (203) is fixedly connected to the plurality of springs (204). Pushing grooves (208) are provided on both sides of the pressing cylinder (203), and a locking mechanism rotatably installed in the corresponding movable cavity (205) is movably provided in the pushing groove (208).

5. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 4, characterized in that: The locking mechanism comprises a shaft (206), the shaft (206) being rotatably disposed in the movable cavity (205), and a crank arm (207) being fixedly mounted on the outer edge of the shaft (206), one end of the crank arm (207) being movably disposed in the pushing groove (208), and a mounting key (209) being configured at the other end of the crank arm (207), and a plurality of mounting grooves corresponding to the mounting keys (209) being inserted into the mounting grooves being symmetrically formed on both sides of the top end of the electric shock device (301).

6. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 5, characterized in that: A guide key (302) is centrally arranged at the bottom end of the electric shock device (301), and a guide groove for slidingly arranging the guide key (302) is centrally arranged at the bottom end of the installation cavity.

7. The multi-point electric touch somatosensory device based on mixed reality technology as claimed in claim 3, characterized in that: A hanging seat (210) for the chest strap (101) to be passed through is centrally constructed on one side of the mounting seat (201) away from the defibrillator (301), and two sockets (211) for corresponding shoulder straps (102) to be plugged and fixed are symmetrically constructed on the top of one side of the mounting seat (201).

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