Municipal engineering construction safety control method and system
A systematic safety control method and system for municipal engineering construction uses environmental and equipment monitoring to improve the accuracy and timeliness of hazard detection, addressing the limitations of manual inspections by providing comprehensive and reliable safety assessments.
Patent Information
- Application Number
- CN202411236710.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-04
- Publication Date
- 2024-12-27
AI Technical Summary
Traditional municipal engineering construction safety monitoring relies heavily on manual inspections, which are prone to human errors, omissions, and misjudgments, failing to timely detect potential hazards due to the neglect of environmental and equipment status changes, leading to accidents and project delays.
A comprehensive safety control method and system that includes environmental and equipment monitoring, analysis, and hazard assessment using sensors and cameras to gather data on temperature, humidity, noise, dust, moisture, equipment operation, and surrounding conditions, followed by a systematic analysis to determine safety hazard levels and issue timely warnings.
Enhances the accuracy and timeliness of safety hazard detection, reducing human error and promptly addressing potential dangers, thereby minimizing accidents and ensuring smooth project progression.
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Figure CN119204670A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of municipal engineering construction safety, and in particular to a municipal engineering construction safety control method and system. Background Art
[0002] Municipal engineering construction is an important part of urban construction, but due to its complex construction environment and diverse operation types, construction safety faces many challenges. In municipal engineering construction, accidents such as collapse, electric shock, and falling from height are common safety hazards. If they are not discovered and effectively controlled in time, they may cause casualties and property losses, seriously affecting the progress of the project and social stability. Therefore, it is of great significance to monitor the safety hazards of municipal engineering construction and carry out corresponding early warning control.
[0003] Traditional monitoring of safety hazards in municipal engineering construction often relies on manual inspections, that is, workers observe and record various safety indicators at the construction site, and take appropriate measures in a timely manner if abnormalities are found. However, this method is easily affected by human factors, such as the experience, responsibility and fatigue of the workers, resulting in inaccurate and incomplete monitoring results, and prone to omissions and misjudgments, resulting in safety hazards not being discovered and handled in a timely manner.
[0004] Traditional monitoring of safety hazards in municipal engineering construction usually only focuses on surface phenomena such as whether the construction personnel's operations are in compliance with regulations, which is prone to certain errors and is not conducive to timely warning of safety hazards. At the same time, it ignores the monitoring and analysis of the operating status of construction equipment, changes in the construction environment, and surrounding environmental conditions, resulting in the inability to timely discover potential safety hazards in municipal engineering construction, and thus it is difficult to implement effective prevention and control measures, resulting in safety accidents and causing huge losses to the smooth progress of municipal engineering.
[0005] In order to solve the above defects, a technical solution is now provided. Summary of the invention
[0006] The purpose of the present invention is to provide a municipal engineering construction safety control method and system to solve the problems raised in the above background.
[0007] The purpose of the present invention can be achieved through the following technical solutions:
[0008] The first aspect of the present invention provides a municipal engineering construction safety control method, comprising the following steps:
[0009] S1. Construction site environmental monitoring: Monitor the environment of the municipal engineering construction site corresponding to the current monitoring period to obtain the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period.
[0010] As a further improvement of the present invention, the environment of the municipal engineering construction site corresponding to the current monitoring period is monitored, and the specific monitoring steps are as follows:
[0011] The temperature sensor is used to monitor the temperature of the municipal engineering construction site at each monitoring time point in the current monitoring period. At the same time, the humidity sensor is used to monitor the humidity of the municipal engineering construction site at each monitoring time point in the current monitoring period. The temperature wd of the municipal engineering construction site at each monitoring time point in the current monitoring period is obtained. i and humidity sd i , i represents the number of each monitoring time point, i=1,2,...,n, n represents the total number of monitoring time point numbers;
[0012] The noise decibel value of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a sound level meter, and the dust concentration of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a laser dust detector to obtain the noise decibel value of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period. i and dust concentration nd i ;
[0013] The detection points are evenly distributed on the ground of the construction site, and the moisture content of each detection point corresponding to each monitoring time point in the current monitoring period on the ground of the construction site is detected by a moisture detector to obtain the ground moisture content corresponding to each detection point at each monitoring time point in the current monitoring period on the construction site. j represents the number of each detection point, j = 1, 2, ..., m, m represents the total number of detection point numbers;
[0014] The intelligent camera is used to collect images of the construction site ground corresponding to each monitoring time point in the current monitoring period, and the images of the construction site corresponding to each monitoring time point in the current monitoring period are obtained, and the number of waterlogged areas and the total waterlogged area in the images corresponding to each monitoring time point are extracted from them as the number of waterlogged areas N at each monitoring time point in the municipal engineering construction site corresponding to the current monitoring period. i and the water accumulation area S i ;
[0015] Thus, the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0016] S2. Construction site environmental analysis: Analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period.
[0017] As a further improvement of the present invention, the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period is analyzed, and the specific analysis steps are as follows:
[0018] Based on the temperature and humidity of each monitoring time point in the current monitoring period at the municipal engineering construction site, the temperature change evaluation index and humidity change evaluation index of the municipal engineering construction site corresponding to the current monitoring period are analyzed respectively;
[0019] Based on the noise decibel value and dust concentration at each monitoring time point in the current monitoring period at the municipal engineering construction site, the noise change assessment index and dust concentration change assessment index of the municipal engineering construction site corresponding to the current monitoring period are analyzed respectively;
[0020] Based on the ground moisture content at each detection point at each monitoring time point in the current monitoring period at the construction site and the number and area of waterlogged areas at each monitoring time point, the ground moisture content assessment index of the municipal engineering construction site corresponding to the current monitoring period is analyzed;
[0021] Based on this, a comprehensive analysis is conducted to determine the on-site environmental hazard assessment index for the municipal engineering construction site corresponding to the current monitoring period.
[0022] S3. Construction equipment operation monitoring: monitor the operation status of each construction equipment at the municipal engineering construction site corresponding to the current monitoring period, and obtain the operation status parameters of each construction equipment at the municipal engineering construction site corresponding to the current monitoring period.
[0023] As a further improvement of the present invention, the operation status of each construction equipment in the current monitoring period at the municipal engineering construction site is monitored, and the specific monitoring method is as follows:
[0024] Obtain the records of historical work corresponding to each construction equipment at the municipal engineering construction site, and obtain the continuous working time of each construction equipment corresponding to each historical work from it, calculate the average value, and obtain the average continuous working time corresponding to each construction equipment, recorded as f represents the number of each construction equipment, f = 1, 2, ..., g, g represents the total number of construction equipment numbers, and the corresponding service life of each construction equipment is obtained and maintenance intervals
[0025] The images of the key components of each construction equipment at the construction site are collected by the intelligent camera, and the total number of wear, total wear area, total aging number and total aging area of the key components of each construction equipment are obtained, and they are marked as
[0026] Thus, the operating status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0027] S4. Construction equipment operation analysis: Analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period to obtain the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period.
[0028] As a further improvement of the present invention, the construction equipment operation status evaluation index corresponding to the current monitoring period at the municipal engineering construction site is analyzed, and the specific analysis method is as follows:
[0029] Comprehensively analyze the average continuous working time, service life and maintenance interval of each construction equipment to obtain the work impact index of each construction equipment;
[0030] A comprehensive analysis is conducted on the total number of wear, total wear area, total number of aging, and total aging area of the key components corresponding to each construction equipment to obtain the key component status assessment index corresponding to each construction equipment. Based on this comprehensive analysis, the construction equipment operation status assessment index corresponding to the current monitoring period at the municipal engineering construction site is obtained.
[0031] S5. Monitoring of the surrounding environment of the construction site: monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding environment parameters of the municipal engineering construction site corresponding to the current monitoring period.
[0032] As a further improvement of the present invention, the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period is monitored, and the specific monitoring method is as follows:
[0033] The surrounding images of the municipal engineering construction site corresponding to the current monitoring period are collected by the camera to obtain the surrounding images of the municipal engineering construction site corresponding to the current monitoring period, and the contours of the existing objects are extracted from them, wherein the existing objects include but are not limited to: buildings, roads, and electric poles, thereby obtaining the contours of various objects in the municipal engineering construction site corresponding to the current monitoring period;
[0034] Match the contours of each object at the municipal engineering construction site corresponding to the current monitoring period with the contours corresponding to each illegal item stored in the database. If the contour of an object successfully matches the contours corresponding to each illegal item stored in the database, the object is recorded as an illegal item, where the illegal items include but are not limited to: illegal structures, piled objects occupying the road, and flammable and explosive items, thereby obtaining the illegal items at the municipal engineering construction site corresponding to the current monitoring period;
[0035] The distance between each illegal item and the construction site is obtained from the surrounding image of the municipal engineering construction site corresponding to the current monitoring period, and recorded as the marking distance, thereby obtaining the marking distance of each illegal item in the municipal engineering construction site corresponding to the current monitoring period, k represents the number of each illegal item, k = 1, 2, ..., l;
[0036] Thus, the surrounding environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0037] S6. Analysis of the surrounding environment of the construction site: Analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period.
[0038] As a further improvement of the present invention, the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period is analyzed, and the specific analysis method is as follows:
[0039] A comparative analysis is conducted on the marked distance of each illegal item in the current monitoring period at the municipal engineering construction site with the set safety distance to obtain the safety assessment index of each illegal item in the current monitoring period at the municipal engineering construction site. A comprehensive analysis is then conducted to obtain the surrounding hidden danger assessment index of the municipal engineering construction site in the current monitoring period.
[0040] S7. Construction hazard level analysis: Analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period to obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
[0041] As a further improvement of the present invention, the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period is analyzed, and the specific analysis steps are as follows:
[0042] Comprehensively analyze the on-site environmental hazard assessment index, construction equipment operation status assessment index, and surrounding hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period;
[0043] The safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period is matched with the safety hazard assessment coefficient threshold corresponding to each set safety hazard level to obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
[0044] S8. Execution: Execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
[0045] The second aspect of the present invention provides a municipal engineering construction safety control system, including: a construction site environment monitoring module, a construction site environment analysis module, a construction equipment operation monitoring module, a construction equipment operation analysis module, a construction surrounding environment monitoring module, a construction surrounding environment analysis module, a construction hazard level analysis module, an execution terminal and a database.
[0046] The construction site environment monitoring module is used to monitor the environment of the municipal engineering construction site corresponding to the current monitoring period and obtain the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period;
[0047] The construction site environmental analysis module is used to analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period;
[0048] The construction equipment operation monitoring module is used to monitor the operation status of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period, and obtain the operation status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period;
[0049] The construction equipment operation analysis module is used to analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period;
[0050] The construction surrounding environment monitoring module is used to monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding environment parameters of the municipal engineering construction site corresponding to the current monitoring period;
[0051] The construction surrounding environment analysis module is used to analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period;
[0052] The construction hazard level analysis module is used to analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period, and obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period;
[0053] An execution terminal is used to execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period;
[0054] A database is used to store the profiles corresponding to each illegal item.
[0055] Beneficial effects of the present invention:
[0056] The present invention effectively identifies the changes in the on-site environment caused by changes in construction conditions by monitoring and analyzing the temperature changes, humidity changes, noise changes, dust concentration changes, ground moisture content and water accumulation status corresponding to the municipal engineering construction site, and provides strong data support for the subsequent analysis of the level of construction safety hazards.
[0057] The present invention monitors and analyzes the operating status of construction equipment corresponding to the municipal engineering construction site, and monitors and analyzes the surrounding environment corresponding to the construction site. On the one hand, it can promptly discover abnormal operation of construction equipment and implement corresponding processing, thereby avoiding hidden dangers of construction accidents caused by equipment failure, and to a certain extent improving the accuracy and effectiveness of construction safety hazard monitoring; on the other hand, it avoids the subjectivity and error of manual monitoring, improves the accuracy of safety hazard monitoring results, and is conducive to timely early warning of construction safety hazards.
[0058] The present invention obtains the corresponding safety hazard level of the construction site by comprehensively analyzing the on-site environmental hazards, construction equipment hazards, and surrounding environmental hazards corresponding to the municipal engineering construction site, and makes corresponding early warnings. On the one hand, it makes up for the shortcomings of the construction safety early warning analysis results in the current technology, making the construction safety hazard analysis results more comprehensive, reliable and referenceable; on the other hand, it greatly improves the timeliness of response to potential safety hazards on the construction site, while minimizing the incidence of construction accidents, providing reliable guarantee for the smooth construction of municipal engineering. BRIEF DESCRIPTION OF THE DRAWINGS
[0059] The present invention will be further described below in conjunction with the accompanying drawings.
[0060] Figure 1 It is a flow chart of the method of the present invention.
[0061] Figure 2 It is a system block diagram of the present invention. DETAILED DESCRIPTION
[0062] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0063] See also Figure 1 As shown, the present invention is a municipal engineering construction safety control method, comprising the following steps:
[0064] S1. Construction site environmental monitoring: Monitor the environment of the municipal engineering construction site during the current monitoring period. The specific monitoring steps are as follows:
[0065] The temperature sensor is used to monitor the temperature of the municipal engineering construction site at each monitoring time point in the current monitoring period. At the same time, the humidity sensor is used to monitor the humidity of the municipal engineering construction site at each monitoring time point in the current monitoring period. The temperature wd of the municipal engineering construction site at each monitoring time point in the current monitoring period is obtained. i and humidity sd i , i represents the number of each monitoring time point, i=1,2,...,n, n represents the total number of monitoring time point numbers;
[0066] The noise decibel value of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a sound level meter, and the dust concentration of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a laser dust detector to obtain the noise decibel value of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period. i and dust concentration nd i ;
[0067] The detection points are evenly distributed on the ground of the construction site, and the moisture content of each detection point corresponding to each monitoring time point in the current monitoring period on the ground of the construction site is detected by a moisture detector to obtain the ground moisture content corresponding to each detection point at each monitoring time point in the current monitoring period on the construction site. j represents the number of each detection point, j = 1, 2, ..., m, m represents the total number of detection point numbers;
[0068] The intelligent camera is used to collect images of the construction site ground corresponding to each monitoring time point in the current monitoring period, and the images of the construction site corresponding to each monitoring time point in the current monitoring period are obtained, and the number of waterlogged areas and the total waterlogged area in the images corresponding to each monitoring time point are extracted from them as the number of waterlogged areas N at each monitoring time point in the municipal engineering construction site corresponding to the current monitoring period. i and the water area S i ;
[0069] Thus, the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0070] S2. Construction site environmental analysis: Analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period.
[0071] As a further improvement of the present invention, the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period is analyzed, and the specific analysis steps are as follows:
[0072] Extract the first monitoring temperature from the temperature of each monitoring time point in the current monitoring period at the municipal engineering construction site, as the initial temperature of the municipal engineering construction site corresponding to the current monitoring period, recorded as wd0; extract the first monitoring humidity from the humidity of each monitoring time point in the current monitoring period at the municipal engineering construction site, as the initial humidity of the municipal engineering construction site corresponding to the current monitoring period, recorded as sd0;
[0073] According to the formula Calculate the temperature change evaluation index η1, wd corresponding to the current monitoring period at the municipal engineering construction site i-1 It is represented by the temperature of the municipal engineering construction site at the i-1th monitoring time point in the current monitoring period, and a1 and a2 are respectively represented by the set weight factors;
[0074] According to the formula Calculate the humidity change evaluation index η2, sd, of the municipal engineering construction site corresponding to the current monitoring period i-1 It is represented by the humidity of the municipal engineering construction site at the i-1th monitoring time point in the current monitoring period, and a3 and a4 are respectively represented by the set weight factors;
[0075] Extract the first monitored noise decibel value from the noise decibel value at each monitoring time point in the current monitoring period at the municipal engineering construction site, as the initial noise decibel value at the municipal engineering construction site corresponding to the current monitoring period, recorded as zy0; extract the first monitored dust concentration from the dust concentration at each monitoring time point in the current monitoring period at the municipal engineering construction site, as the initial dust concentration at the municipal engineering construction site corresponding to the current monitoring period, recorded as nd0;
[0076] According to the formula Calculate the noise change evaluation index η3,zy at the municipal engineering construction site corresponding to the current monitoring period i-1 It is represented by the noise decibel value at the municipal engineering construction site corresponding to the i-1th monitoring time point in the current monitoring period, and a5 and a6 are respectively represented by the set weight factors;
[0077] According to the formula Calculate the dust concentration change evaluation index η4, nd for the municipal engineering construction site corresponding to the current monitoring period i-1 It is represented as the dust concentration at the municipal engineering construction site at the i-1th monitoring time point in the current monitoring period, and a7 and a8 are respectively represented as the set weight factors;
[0078] The number and area of waterlogged areas at each monitoring time point in the current monitoring period at the municipal engineering construction site are normalized and their values are taken. At the same time, according to the formula The ground water content assessment index η5 of the municipal engineering construction site corresponding to the current monitoring period is calculated, hl' represents the set reference ground moisture content, and a9, a0, and a11 represent the set weight factors respectively.
[0079] According to the formula The on-site environmental hazard assessment index γ of the municipal engineering construction site corresponding to the current monitoring period is calculated, and b1, b2, b3, b4, and b5 are respectively represented as the set proportional factors.
[0080] In a specific embodiment, the present invention effectively identifies the changes in the on-site environment caused by changes in construction conditions by correspondingly monitoring and analyzing the temperature changes, humidity changes, noise changes, dust concentration changes, ground moisture content and water accumulation status at the municipal engineering construction site, thereby providing strong data support for the subsequent analysis of the level of construction safety hazards.
[0081] S3. Construction equipment operation monitoring: Monitor the operation status of each construction equipment at the municipal engineering construction site during the current monitoring period. The specific monitoring methods are as follows:
[0082] Obtain the records of historical work corresponding to each construction equipment at the municipal engineering construction site, and obtain the continuous working time of each construction equipment corresponding to each historical work from it, calculate the average value, and obtain the average continuous working time corresponding to each construction equipment, recorded as f represents the number of each construction equipment, f = 1, 2, ..., g, g represents the total number of construction equipment numbers, and the corresponding service life of each construction equipment is obtained and maintenance intervals The maintenance interval refers to the time period from the end of the last maintenance to the start of the current monitoring period.
[0083] The images of the key components of each construction equipment at the construction site are collected by the intelligent camera, and the total number of wear, total wear area, total aging number and total aging area of the key components of each construction equipment are obtained, and they are marked as
[0084] Thus, the operating status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0085] S4. Construction equipment operation analysis: Analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period. The specific analysis method is as follows:
[0086] The average continuous working time, service life and maintenance interval of each construction equipment are normalized and their values are taken. At the same time, according to the formula Calculate the work impact index corresponding to each construction equipment at the municipal engineering construction site T0 represents the set reference maintenance interval duration, c1, c2, and c3 represent the set weight factors respectively;
[0087] The work impact index corresponding to each construction equipment is matched with the work impact index threshold corresponding to each set work impact level to obtain the work impact level corresponding to each construction equipment, and it is matched with the reference key component parameter set corresponding to each set work impact level to obtain the reference key component parameter set corresponding to each construction equipment, and the reference total wear quantity, reference total wear area, reference total aging quantity, and reference total aging area of the key components corresponding to each construction equipment are extracted from it and marked as
[0088] According to the formula Calculate the key component status evaluation index corresponding to each construction equipment at the municipal engineering construction site c4, c5, c6, and c7 represent the set weight factors respectively;
[0089] According to the formula The construction equipment operation status evaluation index φ of the municipal engineering construction site corresponding to the current monitoring period is calculated, and d1 and d2 are respectively represented as the set influencing factors.
[0090] S5. Monitoring of the surrounding environment of the construction site: Monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period. The specific monitoring methods are as follows:
[0091] The surrounding images of the municipal engineering construction site corresponding to the current monitoring period are collected by the camera to obtain the surrounding images of the municipal engineering construction site corresponding to the current monitoring period, and the contours of the existing objects are extracted from them, wherein the existing objects include but are not limited to: buildings, roads, and electric poles, thereby obtaining the contours of various objects in the municipal engineering construction site corresponding to the current monitoring period;
[0092] Match the contours of each object at the municipal engineering construction site corresponding to the current monitoring period with the contours corresponding to each illegal item stored in the database. If the contour of an object successfully matches the contours corresponding to each illegal item stored in the database, the object is recorded as an illegal item, where the illegal items include but are not limited to: illegal structures, piled objects occupying the road, and flammable and explosive items, thereby obtaining the illegal items at the municipal engineering construction site corresponding to the current monitoring period;
[0093] The distance between each illegal item and the construction site is obtained from the surrounding image of the municipal engineering construction site corresponding to the current monitoring period, which is recorded as the marking distance. Thus, the marking distance of each illegal item in the municipal engineering construction site corresponding to the current monitoring period is obtained, which is recorded as L k , k represents the number of each illegal item, k = 1, 2, ..., l;
[0094] Thus, the surrounding environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
[0095] S6. Construction surrounding environment analysis: Analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period. The specific analysis method is as follows:
[0096] According to the formula Calculate the safety assessment index σ of each illegal item in the municipal engineering construction site corresponding to the current monitoring period k , e, z are natural constants, L k ' represents the safety distance corresponding to the kth illegal item;
[0097] According to the formula The surrounding hidden danger assessment index ρ of the municipal engineering construction site corresponding to the current monitoring period is calculated, and β is expressed as the set correction factor coefficient.
[0098] In a specific embodiment, the present invention monitors and analyzes the operating status of construction equipment corresponding to the municipal engineering construction site, and monitors and analyzes the surrounding environment corresponding to the construction site. On the one hand, it can promptly discover abnormal operation of construction equipment and implement corresponding treatment, thereby avoiding hidden dangers of construction accidents caused by equipment failure, and to a certain extent improving the accuracy and effectiveness of construction safety hazard monitoring; on the other hand, it avoids the subjectivity and error of manual monitoring, improves the accuracy of safety hazard monitoring results, and is conducive to timely early warning of construction safety hazards.
[0099] S7. Construction hazard level analysis: Analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period. The specific analysis steps are as follows:
[0100] According to the formula Calculate the safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period e1, e2, and e3 represent the set evaluation factors respectively;
[0101] The safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period is matched with the safety hazard assessment coefficient threshold corresponding to each set safety hazard level to obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
[0102] In a specific embodiment, the present invention conducts a comprehensive analysis of the on-site environmental hazards, construction equipment hazards, and surrounding environmental hazards corresponding to the municipal engineering construction site, obtains the corresponding safety hazard level of the construction site, and issues corresponding early warnings. On the one hand, it makes up for the shortcomings of the construction safety early warning analysis results in the current technology, making the construction safety hazard analysis results more comprehensive, reliable, and referenceable; on the other hand, it improves the timeliness of response to potential safety hazards at the construction site to a certain extent, while minimizing the incidence of construction accidents, providing reliable guarantees for the smooth construction of municipal engineering.
[0103] S8. Execution: Execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
[0104] See also Figure 2 As shown, the present invention is a municipal engineering construction safety control system, including: a construction site environment monitoring module, a construction site environment analysis module, a construction equipment operation monitoring module, a construction equipment operation analysis module, a construction surrounding environment monitoring module, a construction surrounding environment analysis module, a construction hidden danger level analysis module, an execution terminal and a database.
[0105] The construction site environment monitoring module is used to monitor the environment of the municipal engineering construction site corresponding to the current monitoring period and obtain the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period;
[0106] The construction site environmental analysis module is used to analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period;
[0107] The construction equipment operation monitoring module is used to monitor the operation status of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period, and obtain the operation status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period;
[0108] The construction equipment operation analysis module is used to analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period;
[0109] The construction surrounding environment monitoring module is used to monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding environment parameters of the municipal engineering construction site corresponding to the current monitoring period;
[0110] The construction surrounding environment analysis module is used to analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period;
[0111] The construction hazard level analysis module is used to analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period, and obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period;
[0112] An execution terminal is used to execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period;
[0113] A database is used to store the profiles corresponding to each illegal item.
[0114] The specific sizes of the weight factors, proportional factors, weight factors, influence factors, evaluation factors and correction factor coefficients involved in this application are not given. Their sizes are customized by technical personnel in this field according to actual use and stored in the database; and the formulas involved are all customized empirical formulas, which are pre-stored in the database.
[0115] The above contents are merely examples and explanations of the structure of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the structure of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.
Claims
1. A municipal engineering construction safety control method, characterized in that: include: S1. Construction site environmental monitoring: Monitor the environment of the municipal engineering construction site corresponding to the current monitoring period to obtain the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period; S2. Construction site environmental analysis: Analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period; S3, construction equipment operation monitoring: monitor the operation status of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period, and obtain the operation status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period; S4. Construction equipment operation analysis: Analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period to obtain the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period; S5. Monitoring of the surrounding environment of the construction site: monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding environment parameters of the municipal engineering construction site corresponding to the current monitoring period; S6. Construction surrounding environment analysis: Analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period; S7. Construction hazard level analysis: Analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period to obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period; S8. Execution: Execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
2. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific monitoring steps for monitoring the environment of the municipal engineering construction site corresponding to the current monitoring period are as follows: The temperature of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a temperature sensor, and the humidity of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period is monitored by a humidity sensor, so as to obtain the temperature and humidity of the municipal engineering construction site corresponding to each monitoring time point in the current monitoring period; The noise decibel value at each monitoring time point in the current monitoring period at the municipal engineering construction site is monitored by a sound level meter, and the dust concentration at each monitoring time point in the current monitoring period at the municipal engineering construction site is monitored by a laser dust detector to obtain the noise decibel value and dust concentration at each monitoring time point in the current monitoring period at the municipal engineering construction site; The detection points are evenly arranged on the ground of the construction site, and the moisture content of each detection point corresponding to each monitoring time point in the current monitoring period on the ground of the construction site is detected by a moisture detector to obtain the ground moisture content of each detection point corresponding to each monitoring time point in the current monitoring period in the construction site; The images of the ground of the construction site corresponding to each monitoring time point in the current monitoring period are collected by an intelligent camera to obtain the images of the construction site corresponding to each monitoring time point in the current monitoring period, and the number of waterlogged areas and the total waterlogged area in the images corresponding to each monitoring time point are extracted as the number of waterlogged areas and the waterlogged area at each monitoring time point in the current monitoring period of the municipal engineering construction site; Thus, the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
3. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific analysis steps for analyzing the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period are as follows: Based on the temperature and humidity of each monitoring time point in the current monitoring period at the municipal engineering construction site, the temperature change evaluation index and humidity change evaluation index of the municipal engineering construction site corresponding to the current monitoring period are analyzed respectively; Based on the noise decibel value and dust concentration at each monitoring time point in the current monitoring period at the municipal engineering construction site, the noise change assessment index and dust concentration change assessment index of the municipal engineering construction site corresponding to the current monitoring period are analyzed respectively; Based on the ground moisture content at each detection point at each monitoring time point in the current monitoring period at the construction site and the number and area of waterlogged areas at each monitoring time point, the ground moisture content assessment index of the municipal engineering construction site corresponding to the current monitoring period is analyzed; Based on this, a comprehensive analysis is conducted to determine the on-site environmental hazard assessment index for the municipal engineering construction site corresponding to the current monitoring period.
4. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific monitoring method of monitoring the operating status of each construction equipment in the current monitoring period at the municipal engineering construction site is as follows: Obtain the records of historical work corresponding to each construction equipment at the municipal engineering construction site, and obtain the continuous working time of each construction equipment corresponding to each historical work, calculate the average value of the records to obtain the average continuous working time corresponding to each construction equipment, and at the same time obtain the service life and maintenance interval of each construction equipment; The images of the key components corresponding to each construction equipment at the construction site are collected by intelligent cameras to obtain the images of the key components corresponding to each construction equipment, and the total number of wear, total wear area, total aging number, and total aging area of the key components corresponding to each construction equipment are obtained therefrom; Thus, the operating status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period are obtained.
5. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific analysis method for analyzing the construction equipment operation status evaluation index corresponding to the current monitoring period at the municipal engineering construction site is as follows: Comprehensively analyze the average continuous working time, service life and maintenance interval of each construction equipment to obtain the work impact index of each construction equipment; A comprehensive analysis is conducted on the total number of wear, total wear area, total number of aging, and total aging area of the key components corresponding to each construction equipment to obtain the key component status assessment index corresponding to each construction equipment. Based on this comprehensive analysis, the construction equipment operation status assessment index corresponding to the current monitoring period at the municipal engineering construction site is obtained.
6. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific monitoring method for monitoring the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period is as follows: The surrounding images of the municipal engineering construction site corresponding to the current monitoring period are collected by the camera to obtain the surrounding images of the municipal engineering construction site corresponding to the current monitoring period, and the contours of the existing objects are extracted from them, wherein the existing objects include but are not limited to: buildings, roads, and electric poles, thereby obtaining the contours of various objects in the municipal engineering construction site corresponding to the current monitoring period; Match the contours of each object at the municipal engineering construction site corresponding to the current monitoring period with the contours corresponding to each illegal item stored in the database. If the contour of an object successfully matches the contours corresponding to each illegal item stored in the database, the object is recorded as an illegal item, where the illegal items include but are not limited to: illegal structures, piled objects occupying the road, and flammable and explosive items, thereby obtaining the illegal items at the municipal engineering construction site corresponding to the current monitoring period; The distance between each illegal object and the construction site is obtained from the surrounding image of the municipal engineering construction site corresponding to the current monitoring period, recorded as the marking distance, thereby obtaining the marking distance of each illegal object in the municipal engineering construction site corresponding to the current monitoring period; Thus, the surrounding environmental parameters of the municipal engineering construction site corresponding to the current monitoring period are obtained.
7. A municipal engineering construction safety control method according to claim 1, characterized in that: The analysis of the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period is carried out in the following specific analysis methods: A comparative analysis is conducted on the marked distance of each illegal item in the current monitoring period at the municipal engineering construction site with the set safety distance to obtain the safety assessment index of each illegal item in the current monitoring period at the municipal engineering construction site. A comprehensive analysis is then conducted to obtain the surrounding hidden danger assessment index of the municipal engineering construction site in the current monitoring period.
8. A municipal engineering construction safety control method according to claim 1, characterized in that: The specific analysis steps for analyzing the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period are as follows: Comprehensively analyze the on-site environmental hazard assessment index, construction equipment operation status assessment index, and surrounding hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period to obtain the safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period; The safety hazard assessment coefficient of the municipal engineering construction site corresponding to the current monitoring period is matched with the safety hazard assessment coefficient threshold corresponding to each set safety hazard level to obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period.
9. A municipal engineering construction safety control system, characterized in that: A municipal engineering construction safety control method applied to any one of claims 1 to 8, comprising: The construction site environment monitoring module is used to monitor the environment of the municipal engineering construction site corresponding to the current monitoring period and obtain the environmental parameters of the municipal engineering construction site corresponding to the current monitoring period; The construction site environmental analysis module is used to analyze the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the environmental hazard assessment index of the municipal engineering construction site corresponding to the current monitoring period; The construction equipment operation monitoring module is used to monitor the operation status of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period, and obtain the operation status parameters of each construction equipment in the municipal engineering construction site corresponding to the current monitoring period; The construction equipment operation analysis module is used to analyze the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the construction equipment operation status evaluation index of the municipal engineering construction site corresponding to the current monitoring period; The construction surrounding environment monitoring module is used to monitor the surrounding environment of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding environment parameters of the municipal engineering construction site corresponding to the current monitoring period; The construction surrounding environment analysis module is used to analyze the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period, and obtain the surrounding hidden danger assessment index of the municipal engineering construction site corresponding to the current monitoring period; The construction hazard level analysis module is used to analyze the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period, and obtain the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period; An execution terminal is used to execute corresponding safety hazard warning operations based on the safety hazard level of the municipal engineering construction site corresponding to the current monitoring period; A database is used to store the profiles corresponding to each illegal item.
Citation Information
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Water conservancy building construction site panoramic monitoring and illegal behavior recognition system and method
CN120321366A