Personnel climbing operation safety monitoring system

Abstract

The utility model provides a personnel climbing operation safety monitoring system, which comprises a display terminal, a data processor, a data acquisition master station, data acquisition substations, a monitoring device and an alarm, the data acquisition substations are uniformly arranged in a construction area, and the data acquisition substations are in communication connection with the data acquisition master station. A plurality of monitoring devices are arranged, each monitoring device is of an arm winding type and is provided with an empty shell structure, and a positioning module, a heart rate measuring module, a body temperature detecting module, a human body sensing module, an elevation module and a signal transmitting module are arranged in each empty shell structure. The positioning module, the heart rate measurement module, the body temperature detection module, the human body induction module and the elevation module are respectively in communication connection with the corresponding data acquisition substations through the signal transmitting module. Various health indexes of the climbing operation personnel are monitored, the spatial position of the construction personnel is positioned, the health indexes of the construction personnel are conveniently managed and checked, an alarm is automatically given when abnormity occurs, and rescue treatment is carried out at the first time.

Description

Technical Field

[0001] The utility model relates to a safety monitoring system, in particular to a safety monitoring system for personnel climbing operations. Background Art

[0002] Aerial work usually refers to work at height, which refers to work performed by people at a height with a certain position as a reference. According to this regulation, the scope of high-altitude work in the field of construction engineering is quite wide. According to industry regulations, high-altitude work is work performed at a height of 2m or more from the falling height reference plane where there is a possibility of falling. Aerial work involves a wide range, especially scaffolding projects during the construction period of construction projects and curtain wall projects in decoration and renovation projects. Due to the nature of the work, there are a large number of high-altitude workers on the construction site.

[0003] With the acceleration of the national urbanization process, a large number of people are needed to participate in the construction of construction projects, municipal public works and other fields. Due to the particularity of the nature of construction work, the construction workers on the project site are generally 50 years old and above, and there are very few young people. People aged 50 and above also generally have some basic diseases, such as hypertension, hyperlipidemia and other symptoms. When elderly workers enter the construction site, due to the limitations of the working environment and personal body, the physical health of elderly construction workers cannot be effectively monitored, especially when performing high-altitude operations on scaffolding, the safety status and physical stability of the operators cannot be mastered, especially in high-temperature weather in summer, the high temperature outdoors makes the physical stability of high-altitude operators more tested. Some construction workers with hypertension symptoms are more prone to high-altitude falls in high-temperature environments. High-altitude falls not only pose a serious threat to the life safety of construction workers, but also bring human and economic losses to project construction units.

[0004] At present, there is no technology in China to monitor the physical health status and spatial position of workers working at heights in real time. The health status of workers working at heights urgently needs to be monitored, so the existing technology needs to be further improved. Summary of the invention

[0005] In view of the above-mentioned deficiencies in the prior art, the purpose of the utility model is to provide a safety monitoring system for personnel working at heights, so as to solve the problem that the health status and spatial position of personnel working at heights cannot be monitored.

[0006] In order to solve the above problems, the utility model adopts the following technical solutions.

[0007] A safety monitoring system for personnel working at heights, comprising a display terminal, a data processor, a data acquisition main station, a data acquisition substation and a monitoring device, characterized in that the data acquisition substations are evenly arranged in a construction area, and are communicatively connected to the data acquisition main station; there are multiple monitoring devices, which are equal to the number of construction workers, and the monitoring devices can be worn on arms, and the monitoring devices have a hollow shell structure; a positioning module, a heart rate measurement module, a body temperature detection module, a human body sensing module, an altitude module and a signal transmission module are provided in the hollow shell structure, and the positioning module, the heart rate measurement module, the body temperature detection module, the human body sensing module and the altitude module are communicatively connected to the corresponding data acquisition substations through the signal transmission module.

[0008] Preferably, there are multiple data acquisition substations, the number of groups of monitoring devices is equal to the number of on-site workers, and the monitoring devices in the same operating area are communicatively connected to the corresponding data acquisition substations.

[0009] Preferably, each module is fixed on the hollow shell structure in an inlaid manner, and the hollow shell structure is provided with an arm wrapping belt.

[0010] Preferably, a wifi network is also included, and the communication between each information collection module and the data collection substation is achieved through the wifi network, and the communication between the data collection substation and the data collection main station is also achieved through the wifi network.

[0011] Preferably, the monitoring device also includes a signal receiving module and an alarm, which are arranged on the outside of the empty shell structure, the alarm is electrically connected to the signal transmitting module, and the communication between the signal transmitting module and the data acquisition substation is achieved through a wifi network.

[0012] Preferably, the elevation module can be connected to the ground reference data acquisition substation for communication, and can calculate the working height of the workers in the construction area, so as to ensure key monitoring and safety inspection of the construction workers in the super-high working area.

[0013] By adopting the above technical scheme, the beneficial technical effects of the utility model are: the utility model has a clever structure, can monitor the health indicators of workers performing high-altitude operations, can quickly locate the spatial position of personnel in large-space construction areas, and can promptly alarm when the health indicators of workers performing high-altitude operations are abnormal, so as to provide rescue as soon as possible.

[0014] Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by technicians in this technical field within the essential scope of the present invention should also fall within the protection scope of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 The utility model is a schematic diagram of the structural principle of a safety monitoring system for climbing operations.

[0016] Figure 2 The utility model is a structural schematic diagram of a safety monitoring system for climbing operations.

[0017] In the figure: 1-display terminal, 2-data processor, 3-data acquisition center, 4-data acquisition substation, 5-monitoring device, 6-alarm. DETAILED DESCRIPTION

[0018] The utility model is described in detail below in conjunction with the accompanying drawings.

[0019] Combination Figure 1 and Figure 2 A safety monitoring system for personnel climbing operations includes a display terminal 1, a data processor 2, a data acquisition main station 3, a data acquisition substation 4, a monitoring device 5, and an alarm 6. The display terminal 1 is installed in the office area of ​​the construction site, which is convenient for management personnel to grasp the health status and spatial position of personnel in real time. The data processor 2 is transmitted to the display terminal 1 through an optical fiber. The data acquisition substation 4 is communicated with the data acquisition main station 3, which specifically includes various data information collected by the monitoring device 5 worn on each construction worker. The data acquisition main station 3 is set in the middle of the construction area. The data acquisition main station 3 is communicated with the data processor 2 through a data line, and the data information received from the data acquisition substation 4 is summarized and transmitted to the data processor 2. The data acquisition substations 4 are evenly arranged in the construction area, and the data acquisition substations 4 are communicated with the data acquisition main station 3.

[0020] The monitoring device group includes a plurality of monitoring devices 5, and the monitoring device 5 has a hollow shell structure 51. The hollow shell structure 51 includes an inner and outer layer structure, the inner layer is made of fiber material, and the outer layer is made of fiberboard. The inner and outer layers are fixed and bonded together. A thin-walled silicone layer is provided at the bottom of the inner layer, and the thin-walled silicone layer seals the bottom of the inner shell. There are multiple data acquisition substations 4, and the number of groups of the monitoring devices 5 is equal to the number of data acquisition substations 4 and corresponds one to one. Each monitoring device 5 in the same group is connected to the corresponding data acquisition substations 4 in communication.

[0021] The hollow shell structure 51 has a body temperature detection module 511, a heart rate measurement module 512, a positioning module 513, an altitude module 514, a human body sensing module 515 and a signal transmission module 517. Each module is fixed on the hollow shell structure 51 in an inlaid manner. An armband is arranged on one side of the hollow shell structure 51. The armband crosses the hollow shell 51. One end of the armband is provided with a sticky fleece and the other end is provided with a hook and loop. The monitoring device 5 is fixed to the inner side of the upper arm or forearm of the construction worker through the armband. The thin-walled silicone layer is in direct contact with the skin. Touch to ensure that the body temperature detection module 511, the heart rate measurement module 512, the positioning module 513, and the human body sensing module 515 can perform data detection on the human body. The function of the human body sensing module 515 is to detect the labor intensity of the construction workers to determine their fatigue state under continuous working conditions. The body temperature detection module 511, the heart rate measurement module 512, the positioning module 513, the altitude module 514, and the human body sensing module 515 are respectively connected to the corresponding data acquisition substation 4 through the signal transmission module 517.

[0022] A safety monitoring system for personnel climbing work also includes a WiFi network, which is evenly distributed in the construction area. The communication between each signal transmission module 517 and the data acquisition substation 4 is realized through the WiFi network, and the communication between the data acquisition substation 4 and the data acquisition main station 3 is also realized through the WiFi network. The monitoring device 5 also includes a signal receiving module 516, an alarm 6 and a power module, and the power module supplies power to each electrical component of the monitoring device 5. The signal receiving module 516 and the alarm 6 are arranged on the housing 51, and the alarm 6 is electrically connected to the signal transmission module 517. The communication between the signal transmission module 517 and the data acquisition substation 4 is realized through the WiFi network.

[0023] The data processor 2 and the data acquisition station 3, the data acquisition station 3 and the data acquisition substation 4, and the data acquisition substation 4 and the monitoring device 5 are all connected by two-way communication. When the data processor 2 analyzes and finds that there is a problem with the health index of a construction worker, it will send a signal to the monitoring device 5 wrapped around the arm of the construction worker. The signal receiving module 516 receives the signal and transmits it to the alarm 6. The alarm 6 sends an alarm to remind the climbing workers. The altitude module 514 can calculate the working height of the workers according to the benchmark of the ground data acquisition substation 4, and combine the plane position of the workers displayed by the positioning module 513 to effectively locate the spatial position of the construction workers. When the climbing workers are in an emergency, the position of the personnel can be determined in time and rescue can be carried out at the first time. The outer wall of the monitoring device 5 winding belt is attached with a thin-walled solar panel, which can provide power for the system.

[0024] Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples.

[0025] Changes, modifications, additions or substitutions made by technicians in this technical field within the essential scope of the present utility model should also fall within the protection scope of the present utility model.

Claims

1. A personnel climbing work safety monitoring system, comprising a display terminal, a data processor, a data acquisition station, a data acquisition substation and a monitoring device, characterized in that: The data collection substations are evenly arranged in the construction area, and are communicatively connected to the data collection main station; there are multiple monitoring devices, which can be wrapped around the arm, and have an empty shell structure; a positioning module, a heart rate measurement module, a body temperature detection module, a human body sensing module, an altitude module and a signal transmission module are arranged in the empty shell, and the positioning module, the heart rate measurement module, the body temperature detection module, the human body sensing module and the altitude module are communicatively connected to the corresponding data collection substations through the signal transmission modules respectively.

2. A personnel climbing work safety monitoring system according to claim 1, characterized in that: There are multiple data collection substations, and the number of the monitoring devices is multiple, which is equal to the number of construction workers. The monitoring devices in the area can be connected to the data collection substations for communication.

3. A personnel climbing work safety monitoring system according to claim 1, characterized in that: The modules are all fixed on the hollow shell structure in an inlaid manner, and the shell is provided with an armband which can be wrapped around the arm.

4. A personnel climbing work safety monitoring system according to claim 1, characterized in that: It also includes a WiFi network. The communication between each signal transmission module and the data acquisition substation is achieved through the WiFi network, and the communication between the data acquisition substation and the data acquisition main station is also achieved through the WiFi network.

5. A personnel climbing work safety monitoring system according to claim 4, characterized in that: The monitoring device also includes a signal receiving module and an alarm; the signal receiving module and the alarm are arranged on the outside of the empty shell, the alarm is electrically connected to the signal transmitting module, and the communication between the signal transmitting module and the data acquisition substation is realized through a WiFi network.

Images