Auxiliary tool for outdoor distribution network

Abstract

The utility model provides an auxiliary tool for an outdoor distribution network, which relates to the technical field of safety protection of the outdoor distribution network and comprises an insulating safety helmet, a safety monitoring block is mounted at the top end of a helmet body of the insulating safety helmet, and a human body infrared sensor and a micro motor are mounted in the bottom end face of the safety monitoring block in an embedded manner. A state feedback key is fixedly installed on the edge of the top end face of the safety monitoring block, the state of a worker is detected and judged once every thirty minutes, when the worker is in an accident state and cannot call for help, a message can be remotely sent to a monitoring center at the first time in cooperation with timing feedback of a second timing module, and the safety of the worker is guaranteed. According to the insulating safety helmet, the information can be sent to the monitoring center, so that a worker in the monitoring center can timely know the information, the state of the worker can be judged through telephone communication and the like, and the problems that the existing insulating safety helmet detects and judges the state of the worker, and when the worker has an accident and cannot call for help, the insulating safety helmet cannot play a corresponding help-seeking role are solved.

Description

Technical Field

[0001] This utility model relates to the field of outdoor power distribution network safety protection technology, and in particular to auxiliary tools for outdoor power distribution networks. Background Technology

[0002] When working on outdoor power distribution networks, workers need to wear insulated safety helmets, insulated gloves, and other auxiliary tools to avoid electric shock and other injuries. However, current insulated safety helmets only provide head protection and cannot detect or assess the worker's condition. When an accident occurs, such as when a worker is unable to move or is unconscious, and is unable to call for help, the insulated safety helmet cannot provide the corresponding distress signal, which is a deficiency. Utility Model Content

[0003] In view of this, the purpose of this utility model is to provide an auxiliary tool for outdoor power distribution, which solves the problem that existing insulated safety helmets cannot detect and determine the condition of workers, and cannot play a corresponding rescue function when workers are unable to call for help in the event of an accident.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: an auxiliary tool for outdoor power distribution network, including an insulated safety helmet (1), wherein a safety monitoring block (101) is installed on the top of the helmet body of the insulated safety helmet (1), and the bottom end of the safety monitoring block (101) is located at the top of the wearing cavity of the helmet body of the insulated safety helmet (1), and a microcontroller (1015) is provided inside the safety monitoring block (101); a human infrared sensor (106) and a micro motor (107) are embedded in the bottom surface of the safety monitoring block (101), and both the human infrared sensor (106) and the micro motor (107) are electrically connected to the microcontroller (1015); a set of status feedback buttons (105) are fixedly installed on the edge of the top surface of the safety monitoring block (101), the status feedback buttons (105) are tactile switches, and the status feedback buttons (105) are electrically connected to the microcontroller (1015).

[0005] In a preferred embodiment, a threaded groove (108) is provided at the center of the top surface of the safety monitoring block (101). A set of power switches (109) is fixedly installed on the bottom surface of the inner end of the threaded groove (108). The power switches (109) are tactile switches with the button end facing upward. The power switches (109) are electrically connected to the microcontroller (1015).

[0006] In a preferred embodiment, a stud (3) is rotatably installed inside the threaded groove (108), the height of the stud (3) being half the depth of the threaded groove (108); an elliptical groove (301) is provided at the axial part of the top surface of the stud (3), and an insert (2) matching its structural size is inserted into the groove (301), and a hexagonal torsion opening (201) is provided at the axial part of the insert (2).

[0007] In a preferred embodiment, the safety monitoring block (101) is equipped with a storage battery (1010), and a power display (103) and a charging port (104) are installed on the side end face of the safety monitoring block (101). The power display (103) and the charging port (104) are both electrically connected to the storage battery (1010). A buzzer (102) is also installed on the top surface of the safety monitoring block (101), and the buzzer (102) is electrically connected to the microcontroller (1015).

[0008] In a preferred embodiment, the security monitoring block (101) is further provided with a first timing module (1011), a second timing module (1012) and a 5G module (1013), and the first timing module (1011), the second timing module (1012) and the 5G module (1013) are all electrically connected to the microcontroller (1015), and the 5G module (1013) is wirelessly connected to the monitoring center (1014).

[0009] In a preferred embodiment, the timing value of the first timing module (1011) is thirty minutes; when the timing value of the first timing module (1011) is reached, the first timing module (1011) sends a feedback signal to the microcontroller (1015), and the microcontroller (1015) controls the micro motor (107) and the second timing module (1012) to start; when the status feedback button (105) is in the pressed start state, the status feedback button (105) sends a feedback signal to the microcontroller (1015), and the microcontroller (1015) controls the micro motor (107) and the second timing module (1012) to turn off; the timing value of the second timing module (1012) is one minute; when the timing value of the second timing module (1012) is reached, the second timing module (1012) sends a feedback signal to the microcontroller (1015), and the microcontroller (1015) controls the 5G module (1013) to wirelessly send a message to the monitoring center (1014), and simultaneously controls the buzzer (102) to start.

[0010] Compared with the prior art, this utility model has the following beneficial effects: This application is worn on the head of the worker, and on the basis of protecting the worker's head, it detects and judges the worker's status every thirty minutes. It reminds the worker through the vibration generated by the micro motor. When the worker is in a normal state, the worker can press the status feedback button to realize the safety feedback of the detection and judgment. When the worker is in an accident and cannot call for help, it can send a message to the monitoring center remotely in conjunction with the timing feedback of the second timing module, so that the staff in the monitoring center can be informed of the message in time. The worker's status can be determined through telephone communication, etc. If the communication fails, it can be temporarily determined that an accident has occurred, and personnel can be dispatched to rescue in time. In addition, this application also controls the buzzer to be activated at the same time as remotely sending messages, so that the buzzer can sound out for help in place of the worker. Attached Figure Description

[0011] Figure 1 A schematic diagram of the top isometric structure of this application is shown;

[0012] Figure 2 A schematic diagram of the bottom isometric structure of this application is shown;

[0013] Figure 3 This diagram illustrates the structure of the insert and stud in the disassembled state of this application.

[0014] Figure 4 This application shows Figure 3 A magnified view of the structure at point A in the middle;

[0015] Figure 5 This paper shows a partial enlarged cross-sectional view of the threaded groove portion of the present application.

[0016] Figure 6 A system block diagram of this application is shown;

[0017] List of reference numerals

[0018] 1. Insulated safety helmet; 101. Safety monitoring block; 102. Buzzer; 103. Power indicator; 104. Charging port; 105. Status feedback button; 106. Human infrared sensor; 107. Micro motor; 108. Threaded groove; 109. Power switch; 1010. Battery; 1011. First timing module; 1012. Second timing module; 1013. 5G module; 1014. Monitoring center; 1015. Microcontroller; 2. Insert; 201. Twisting opening; 3. Stud; 301. Slot. Detailed Implementation

[0019] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0020] It should be noted that the following detailed descriptions are illustrative and intended to provide further explanation of this application. Unless otherwise specified, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application pertains.

[0021] It should be noted that the terminology used herein is for the purpose of describing particular implementations only and is not intended to limit the exemplary implementations according to this application; as used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise; furthermore, it should be understood that when the terms “comprising” and / or “including” are used in this specification, they indicate the presence of features, steps, operations, devices, components and / or combinations thereof.

[0022] Example: Please refer to Figures 1 to 6 :

[0023] This application proposes an auxiliary tool for outdoor power distribution networks, including: an insulated safety helmet 1, with a safety monitoring block 101 installed at the top of the helmet body, and the bottom of the safety monitoring block 101 located at the top of the wearing cavity of the helmet body; a microcontroller 1015 is installed inside the safety monitoring block 101; a human infrared sensor 106 and a micro motor 107 are embedded in the bottom surface of the safety monitoring block 101, and both the human infrared sensor 106 and the micro motor 107 are electrically connected to the microcontroller 1015; a set of status feedback buttons 105 are fixedly installed on the edge of the top surface of the safety monitoring block 101, the status feedback buttons 105 are tactile switches, and the status feedback buttons 105 are connected to the microcontroller 1015. The device 1015 is electrically connected; a threaded groove 108 is provided at the center of the top surface of the safety monitoring block 101, and a set of power switches 109 are fixedly installed on the bottom surface of the inner end of the threaded groove 108. The power switches 109 are tactile switches, and the button end of the power switches 109 faces upward. The power switches 109 are electrically connected to the microcontroller 1015; a stud 3 is rotatably installed inside the threaded groove 108, and the height of the stud 3 is half the depth of the threaded groove 108; an elliptical groove 301 is provided at the axial center of the top surface of the stud 3, and an insert 2 that matches its structural dimensions is inserted into the groove 301. A hexagonal torsion opening 201 is provided at the axial center of the insert 2.

[0024] In this embodiment, a storage battery 1010 is installed inside the safety monitoring block 101, which provides independent power supply. A power display 103 and a charging port 104 are installed on the side end face of the safety monitoring block 101. Both the power display 103 and the charging port 104 are electrically connected to the storage battery 1010. Therefore, the power display 103 displays the remaining power of the storage battery 1010, and when the power of the storage battery 1010 is insufficient, it can also be charged through the charging port 104. A buzzer 102 is also installed on the top surface of the safety monitoring block 101, and the buzzer 102 is electrically connected to the microcontroller 1015.

[0025] In this embodiment, the security monitoring block 101 is further equipped with a first timing module 1011, a second timing module 1012, and a 5G module 1013. All three modules are electrically connected to the microcontroller 1015, and the 5G module 1013 is wirelessly connected to the monitoring center 1014. The timing value of the first timing module 1011 is thirty minutes. When the timing value of the first timing module 1011 is reached, the first timing module 1011 sends a feedback signal to the microcontroller 1015, which then controls the micro motor 1. 07. The second timing module 1012 is activated; when the status feedback button 105 is in the pressed start state, the status feedback button 105 sends a feedback signal to the microcontroller 1015, and the microcontroller 1015 controls the micro motor 107 and the second timing module 1012 to turn off; the timing value of the second timing module 1012 is one minute; when the timing value of the second timing module 1012 is reached, the second timing module 1012 sends a feedback signal to the microcontroller 1015, and the microcontroller 1015 controls the 5G module 1013 to wirelessly send a message to the monitoring center 1014, and at the same time controls the buzzer 102 to start.

[0026] The working principle of this embodiment:

[0027] Before staff in monitoring center 1014 go outdoors to work on the power distribution network, they insert the insert 2 into the slot 301 and use an Allen wrench in conjunction with the turning hole 201 to rotate the stud 3 downwards along the threaded groove 108, so that the stud 3 presses against the button end of the power switch 109, thereby activating this application. The insert 2 remains in monitoring center 1014. Due to the elliptical groove structure of the slot 301, the stud 3 cannot be rotated along the threaded groove 108 with common tools without the cooperation of the insert 2, thus preventing staff from turning off this application when working on the power distribution network outdoors.

[0028] After this application is initiated, the infrared signal of the staff is sensed in real time by the human infrared sensor 106. When the staff removes the insulating safety helmet 1, the human infrared sensor 106 can no longer sense the staff's infrared signal. The feedback signal is then sent to the microcontroller 1015. The microcontroller 1015 controls the 5G module 1013 to wirelessly send a message to the monitoring center 1014 so that the staff in the monitoring center 1014 can communicate with them by phone in a timely manner to understand the specific situation.

[0029] After this application is started, the timing value of the first timing module 1011 is reached every thirty minutes, and it sends a feedback signal to the microcontroller 1015. The microcontroller 1015 controls the micro motor 107 and the second timing module 1012 to start. Because the insulated safety helmet 1 is worn on the worker's head, the vibration generated when the micro motor 107 starts can be felt by the worker. When the worker is in a normal state, he / she can press the status feedback button 105. The status feedback button 105 sends a feedback signal to the microcontroller 1015, and the microcontroller 1015 controls the micro motor 107 and the second timing module 1012 to turn off. When the worker is in an emergency... Therefore, in situations such as being unable to move or being unconscious, when unable to call for help, the second timing module 1012 sends a feedback signal to the microcontroller 1015 when the timing value is reached. The microcontroller 1015 then controls the 5G module 1013 to wirelessly send a message to the monitoring center 1014, so that staff in the monitoring center 1014 can communicate with the person by phone to understand the specific situation. If the phone communication fails, it can be temporarily determined that an accident has occurred and that rescue personnel need to be dispatched in time. This application also controls the buzzer 102 to be activated at the same time, so that the high-decibel buzzer of the buzzer 102 can replace the staff in calling for help.

Claims

1. Auxiliary tool for outdoor distribution network, comprising an insulating safety cap (1), characterized in that, The top end of the insulating safety cap (1) is provided with a safety monitoring block (101), and the bottom end of the safety monitoring block (101) is located at the top of the cap body wearing cavity of the insulating safety cap (1), and the inside of the safety monitoring block (101) is provided with a microcontroller (1015); the bottom end face of the safety monitoring block (101) is inlaid with a human body infrared sensor (106) and a micro motor (107), and the human body infrared sensor (106) and the micro motor (107) are electrically connected with the microcontroller (1015); a group of state feedback buttons (105) are fixedly installed on the edge part of the top end face of the safety monitoring block (101), the state feedback buttons (105) adopt a light touch switch, and the state feedback buttons (105) are electrically connected with the microcontroller (1015).

2. The outdoor wiring auxiliary tool according to claim 1, wherein A threaded groove (108) is formed in the center part of the top end face of the safety monitoring block (101), a group of power switches (109) are fixedly installed on the inner end bottom surface of the threaded groove (108), the power switches (109) adopt a light touch switch, the button end of the power switches (109) faces upward, and the power switches (109) are electrically connected with the microcontroller (1015).

3. The outdoor wiring auxiliary tool according to claim 2, wherein A threaded groove (108) is formed in the center part of the top end face of the safety monitoring block (101), a group of power switches (109) are fixedly installed on the inner end bottom surface of the threaded groove (108), the power switches (109) adopt a light touch switch, the button end of the power switches (109) faces upward, and the power switches (109) are electrically connected with the microcontroller (1015).

4. The outdoor wiring auxiliary tool according to claim 3, wherein The inside of the safety monitoring block (101) is provided with a battery (1010), and the side end face of the safety monitoring block (101) is provided with an electric quantity display (103) and a charging socket (104), and the electric quantity display (103) and the charging socket (104) are electrically connected with the battery (1010); the top end face of the safety monitoring block (101) is further provided with a buzzer (102), and the buzzer (102) is electrically connected with the microcontroller (1015).

5. The outdoor wiring auxiliary tool according to claim 4, wherein The inside of the safety monitoring block (101) is further provided with a first timing module (1011), a second timing module (1012) and a 5G module (1013), and the first timing module (1011), the second timing module (1012) and the 5G module (1013) are electrically connected with the microcontroller (1015), and the 5G module (1013) is wirelessly connected with a monitoring center (1014).

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