CN111833685A - A wearable electric shock somatosensory system - Google Patents

Abstract

The invention relates to a wearable electric shock somatosensory system, which belongs to the technical field of power safety training equipment. It includes an electric shock unit and a virtual control unit; the electric shock unit includes a wearable electric shock device and an adjustment component, the wearable electric shock device and the adjustment component are electrically connected by connecting wires, and the wearer's electric shock body sense is adjusted through the adjustment component; the The virtual control unit includes a VR device, a host computer and a connection module; the VR device is electromechanically connected to the host computer, and the host computer is used to generate a power device control scene and send it to the VR device; the user uses the VR device to Perform simulated control of the power equipment, generate control behavior data and send it to the upper computer, and the upper computer judges whether the operation behavior is compliant according to the control behavior data. The present invention is easy to operate, adapts to various training contents currently being carried out, and is a good supplement to the somatosensory equipment in the VR training process of uninterrupted operation.

Description

A wearable electric shock somatosensory system

technical field

The invention relates to a wearable electric shock somatosensory system, which belongs to the technical field of power safety training equipment.

Background technique

The traditional electric power vocational education and training methods cannot be carried out using actual operating equipment. The trainees lack a sense of real experience. The training in theoretical knowledge is relatively intensive, lacks good interaction and practice, and cannot be combined with practical problems. The theory of relevant employees Although the level is high, it lacks the professional ability to integrate theory with practice, resulting in poor results in the process of solving practical problems. How to overcome various constraints such as site, equipment, time and space, and seek a safe and effective training method has been the direction explored by electric power vocational education and training for many years.

The introduction of virtual reality technology makes the virtual training of distribution network uninterrupted operation a reality. Virtual reality, also known as VR technology, is the ultimate application form of multimedia technology. The crystallization of the rapid development of scientific fields such as science, mainly relies on the development of a number of key technologies such as three-dimensional real-time graphic display, three-dimensional positioning and tracking, tactile and olfactory sensing technology, artificial intelligence technology, high-speed computing and parallel computing technology, and human behavior research. develop. The materials constructed through the VR virtual environment are all derived from the real uninterrupted operation site. 3D modeling is used to build a safety tool room. In the operation site, the insulated bucket truck can be freely controlled. Cabinets, mobile boxes and vehicles, etc., are all restored to the VR scene one by one. Combined with high-end interactive equipment for motion capture and 3D stereoscopic display technology, it provides trainers with a virtual environment that is completely consistent with the real environment. Human-computer interaction equipment interacts with all objects in the scene, experience real-time physical feedback, and perform various experimental operations.

Traditional electric power vocational education and training methods lack real experience, language or course training cannot effectively make employees understand and digest, and the training effect is poor. The real body sense can achieve the effect of deep memory, so it is in urgent need of improvement.

SUMMARY OF THE INVENTION

In order to overcome the shortcomings of the traditional electric power vocational education and training effect, the lack of electric shock body sense, etc., the present invention provides a wearable electric shock body sense system. Improve the level of operation, promote the improvement of power supply reliability, and reduce the safety hazards of uninterrupted operation.

In order to achieve the above object, the present invention adopts the following technical solutions:

Technical solution one:

A wearable electric shock somatosensory system includes an electric shock unit and a virtual control unit; the electric shock unit includes a wearable electric shock device for feeling electric shock and an adjustment component providing multiple electric shock induction gears, the wearable electric shock device and all The adjustment component is electrically connected through a connecting wire, and the wearer's electric shock body is adjusted through the adjustment component; the virtual control unit includes a VR device, a host computer and a connection module; the VR device is electromechanically connected to the host computer, and the host computer uses In generating a power equipment control scene and sending it to the VR equipment; the user performs simulated control of the power equipment through the VR equipment, generates control behavior data and sends it to the host computer, and the host computer judges the operation behavior according to the control behavior data. Whether it is compliant; the connection module is used to electrically connect the wearable electric shock device and the upper computer, and the upper computer sends a control signal to the electric shock unit through the connection module to trigger the action of the electric shock unit.

Further, the virtual control unit further includes a wireless receiving module that is electrically connected to a host and a wireless transmitting device that is communicatively connected to the wireless receiving module, and the wireless transmitting device is also electrically connected to the VR device; the connection The module specifically includes a single-chip microcomputer and a relay switch, the single-chip microcomputer is electrically and mechanically connected to the upper position, and the single-chip microcomputer is electrically connected to the wearable electric shock device through the relay switch.

Further, the adjustment assembly includes a main unit, a control panel and an adjustment knob arranged on the main unit, the control panel is provided with a number of control buttons with different gears; the main unit is internally provided with the control buttons. A circuit board adjusted in cooperation with the adjustment knob, and a battery slot is also provided on the host.

Further, an electrode socket and an indicator light for prompting the gear state of the adjustment component are provided on the circuit board, and the indicator light and the control button are arranged in a one-to-one correspondence; The lampshade that matches the above indicator light.

Further, the control buttons include a power button "Power", a button "Tap" for feeling a slight electric shock, a weak vibration button "Vibrating", a strong vibration button "Massage", an automatic mode button "Auto" and a speed button "Speed". ".

Further, the wearable electric shock device is a pair of electric shock gloves.

Technical solution two:

An operation method of a wearable palm electric shock somatosensory device, the method is realized based on the wearable electric shock somatosensory system described in the scheme 1, and the specific steps are as follows:

Before simulating the control of the power equipment, first adjust the adjustment components to the required gear;

Trainers use VR equipment to simulate and control power equipment;

When the trainer does not comply with the regulations, the VR equipment transmits the non-compliance signal through the wireless transmitting device;

The wireless receiving module connected with the upper electromechanical receives the operation non-compliance signal transmitted by the wireless transmitting device, and transmits it to the single-chip microcomputer;

After receiving the operation non-compliance signal, the single-chip microcomputer sends a control signal to the adjustment component through the relay switch, and the adjustment component outputs the voltage to the wearable electric shock device;

Trainers feel safe currents through wearable electrocution devices.

Compared with the prior art, the present invention has the following features and beneficial effects: the present invention has a simple structure, is suitable for various training contents currently being carried out, and is a good supplement for somatosensory equipment in the VR training process of uninterrupted operation; Under the premise of the premise, it can provide multiple gears and automatically adjust the current size, so that students can feel the risk of electric shock caused by operation errors, effectively solve the fundamental problems of traditional electric power vocational education and training methods such as lack of real experience, and have high promotion value; In a specific teaching operation link, the electric shock is triggered by software control, which makes people feel electric shock, which can solve the problem that the existing somatosensory equipment does not have electric shock and somatosensory, resulting in poor training effect.

Description of drawings

1 is a schematic diagram of a wearable electric shock somatosensory system of the present invention;

2 is a schematic diagram of the use of a wearable electric shock somatosensory system of the present invention;

Fig. 3 is the schematic diagram of the electric shock unit of the present invention;

Fig. 4 is the schematic diagram of the adjustment assembly of the present invention;

Fig. 5 is the schematic diagram of the element surface of the circuit board of the present invention;

FIG. 6 is a schematic diagram of the main unit of the present invention after being disassembled.

7 is a schematic flowchart of an operation method of a wearable palm electric shock somatosensory device according to the present invention.

The reference numerals are: 100, electric shock unit; 101, wearable electric shock device; 102, connecting wire; 103, adjustment component; 1031, host; 1032, control panel; 1033, adjustment knob; 1034, lampshade; 1035, control button ;1036, battery slot; 104, circuit board; 1041, electrode socket; 1042, indicator light; 200, virtual control unit; 201, VR insulated bucket truck; 202, single chip computer; 203, wireless receiving module; 204, wireless transmitting device .

Detailed ways

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention.

Example 1

As shown in FIGS. 1 to 6 , the wearable electric shock somatosensory system of this embodiment includes an electric shock unit 100 and a virtual control unit 200 ; the electric shock unit 100 includes a wearable electric shock device 101 for feeling electric shock and provides a plurality of electric shock induction gears The adjustment component 103 of the wearable electric shock device 101 and the adjustment component 103 are electrically connected through the connecting wire 102, and the wearer's electric shock somatosensory is adjusted through the adjustment component 103; the virtual control unit 200 includes a VR device, a host computer and a connection module; the VR device and the host computer Electromechanical connection, the host computer is used to generate the control scene of the power equipment and send it to the VR device; the user simulates the control of the power equipment through the VR device, generates the control behavior data and sends it to the host computer, and the host computer judges whether the operation behavior is suitable according to the control behavior data. The connection module is used to electrically connect the wearable electric shock device 101 and the upper computer, and the upper computer sends a control signal to the electric shock unit 100 through the connection module to trigger the action of the electric shock unit 100 .

Embodiment 2

Further, the virtual control unit 200 also includes a wireless receiving module 203 connected to the upper electromechanical device and a wireless transmitting device 204 that is communicatively connected to the wireless receiving module 203. The wireless transmitting device 204 is also electrically connected to the VR equipment; the connection module specifically includes a single-chip microcomputer 202. And a relay switch, the single chip 202 is electrically connected with the upper position, and the single chip 202 is electrically connected with the wearable electric shock device 101 through the relay switch.

Further, the adjustment assembly 103 includes a host 1031, a control panel 1032 and an adjustment knob 1033 disposed on the host 1031, and the control panel 1032 is provided with several control buttons 1035 with different gears; the host 1031 is internally provided with control buttons 1035 and The adjustment knob 1033 cooperates with the adjusted circuit board 104 , and the host 1031 is also provided with a battery slot 1036 .

Further, the circuit board 104 is provided with an electrode socket 1041 and an indicator light 1042 for prompting the gear state of the adjustment component 103 , and the indicator light 1042 and the control button 1035 are arranged in one-to-one correspondence; Matching shade 1034.

Further, the control buttons 1035 include a power button "Power", a button "Tap" for feeling a slight electric shock, a weak vibration button "Vibrating", a strong vibration button "Massage", an automatic mode button "Auto" and a speed button "Speed" .

Further, the wearable electric shock device 101 is a pair of electric shock gloves.

Embodiment 3

As shown in Figure 7, an operation method of a wearable electric shock somatosensory device is implemented based on a wearable electric shock somatosensory system, and the specific steps are as follows:

Before simulating the control of the power equipment, firstly adjust the adjustment component 103 to the required gear;

Trainers use VR equipment to simulate and control power equipment;

When the trainer does not comply with the regulations, the VR device transmits the non-compliance signal through the wireless transmitting device 204;

The wireless receiving module 203 connected with the upper electromechanical receives the operation non-compliance signal transmitted by the wireless transmitting device 204, and transmits it to the single-chip microcomputer 202;

After receiving the operation non-compliance signal, the single-chip microcomputer 202 sends a control signal to the adjustment component 103 through the relay switch, and the adjustment component 103 outputs a voltage to the wearable electric shock device 101;

The trainer feels the current within a safe range through the wearable electric shock device 101 .

Obviously, the described embodiments are only some, but not all, embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

Claims (7)

1. The utility model provides a system is felt to wearing formula electric shock body which characterized in that:

comprises an electric shock unit (100) and a virtual control unit (200);

the electric shock unit (100) comprises a wearable electric shock device (101) for sensing an electric shock and an adjusting component (103) for providing a plurality of electric shock sensing gears, wherein the wearable electric shock device (101) and the adjusting component (103) are electrically connected through a connecting wire (102), and the electric shock body feeling of a wearer is adjusted through the adjusting component (103);

the virtual control unit (200) comprises VR equipment, an upper computer and a connection module; the VR equipment is electrically connected with the upper computer, and the upper computer is used for generating an electric power equipment control scene and sending the electric power equipment control scene to the VR equipment; a user carries out power equipment simulation operation through the VR equipment, generates operation behavior data and sends the operation behavior data to an upper computer, and the upper computer judges whether operation behaviors are in compliance or not according to the operation behavior data; the connecting module is used for electrically connecting the wearable electric shock equipment (101) and an upper computer, and the upper computer sends a control signal to the electric shock unit (100) through the connecting module so as to trigger the electric shock unit (100) to act.

2. The wearable electric shock somatosensory system according to claim 1, wherein: the virtual control unit (200) further comprises a wireless receiving module (203) electrically connected with an upper computer and a wireless transmitting device (204) in communication connection with the wireless receiving module (203), wherein the wireless transmitting device (204) is further electrically connected with the VR equipment; the connecting module specifically comprises a single chip microcomputer (202) and a relay switch, the single chip microcomputer (202) is electrically connected with the upper computer, and the single chip microcomputer (202) is electrically connected with the wearable electric shock equipment (101) through the relay switch.

3. The wearable electric shock somatosensory system according to claim 1, wherein: the adjusting component (103) comprises a host (1031), and a control panel (1032) and an adjusting knob (1033) which are arranged on the host (1031), wherein a plurality of control buttons (1035) with different gears are arranged on the control panel (1032); the host (1031) is internally provided with a circuit board (104) which is matched with the control button (1035) and the adjusting knob (1033) for adjustment, and the host (1031) is also provided with a battery slot (1036).

4. The wearable electric shock somatosensory system according to claim 3, wherein: the circuit board (104) is provided with an electrode socket (1041) and an indicator light (1042) for prompting the gear state of the adjusting component (103), and the indicator light (1042) and the control button (1035) are arranged in a one-to-one correspondence manner; the main machine (1031) is provided with a lampshade (1034) matched with the indicator lamp (1042).

5. The wearable electric shock somatosensory system according to claim 3, wherein: the control buttons (1035) include a Power button 'Power', a button 'Tap' for sensing a slight shock, a weak vibration button 'vibration', a strong vibration button 'mask', an automatic mode button 'Auto', and a Speed button 'Speed'.

6. The wearable electric shock somatosensory system according to claim 1, wherein: the wearable electric shock device (101) is a pair of electric shock gloves.

7. An operation method of a wearable electric shock somatosensory device is realized based on the wearable electric shock somatosensory system of claim 2 or 3, and comprises the following specific steps:

before the power equipment is simulated and controlled, the adjusting component (103) is adjusted to a required gear;

training personnel to perform power equipment simulation control through VR equipment;

when the trainee is not in compliance, the VR device transmits an out-of-compliance signal via the wireless transmitting device (204);

a wireless receiving module (203) electrically connected with the upper computer receives the operation non-compliance signal transmitted by the wireless transmitting device (204) and transmits the operation non-compliance signal to the singlechip (202);

the single chip microcomputer (202) sends a control signal to the adjusting component (103) through the relay switch after receiving the operation non-compliance signal, and the adjusting component (103) outputs voltage to the wearable electric shock equipment (101);

the training personnel sense the current within the safe range through the wearable electric shock equipment (101).

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