An industrial building health monitoring system

Abstract

The present application discloses an industrial plant building health monitoring system, which relates to the field of plant building health monitoring. It includes a structural area division module, a load-bearing data acquisition module, a load-bearing safety analysis module, a connection safety influence coefficient analysis module, a planar structure analysis module, a health coefficient analysis module, and a health assessment module. The present invention systematically collects relevant data on the load-bearing structure area, connection area, and planar structure area corresponding to the target industrial plant, ensuring the comprehensiveness of data collection. At the same time, it specifically analyzes each load-bearing structure, each connection area, and each planar structure in the target industrial plant, improving the accuracy of health judgment for the target industrial plant. Combining with the work types and work requirements corresponding to the target industrial plant, it further improves the accuracy of health judgment for the target industrial plant, which is beneficial to ensuring production safety and extending the service life of the plant.

Description

Technical Field

[0001] The present application relates to the field of health monitoring of factory buildings, and particularly to a health monitoring system for industrial factory buildings. Background Art

[0002] With the rapid development of industry, the importance of health monitoring of industrial factory buildings has become increasingly prominent. Scientific health monitoring of industrial factory buildings is conducive to preventing potential safety problems and extending the service life of factory buildings. However, the existing technologies still have the following deficiencies:

[0003] The existing technologies mainly use whether the columns are bent or whether the roof is damaged as the main judgment basis for the health monitoring of the target industrial factory building, resulting in incomplete collection of relevant data for the health monitoring of the target industrial factory building and reducing the accuracy of the health judgment of the target industrial factory building;

[0004] The existing technologies lack analysis of the types of work in the target industrial factory building when evaluating the health of the target industrial factory building, resulting in one-sidedness in the health judgment of the target industrial factory building and being unfavorable for preventing potential safety problems and extending the service life of the factory building. Summary of the Invention

[0005] The purpose of the present invention is to provide a health monitoring system for industrial factory buildings to solve the problems raised in the above background art.

[0006] To achieve the above purpose, the present invention provides the following technical solution: A health monitoring system for industrial factory buildings, comprising:

[0007] A structure area division module: used to divide the area of the target industrial factory building to obtain each structure area corresponding to the target industrial factory building, and each structure area in the target industrial factory building includes a load-bearing structure area, a connection area, and a planar structure area;

[0008] A load-bearing data acquisition module: used to detect the load-bearing conditions of each load-bearing structure in the load-bearing structure area of the target industrial factory building to obtain the load-bearing information of each load-bearing structure in the target industrial factory building;

[0009] A load-bearing safety analysis module: used to analyze the load-bearing safety influence coefficient of each load-bearing structure in the target industrial factory building according to the load-bearing information of each load-bearing structure in the target industrial factory building;

[0010] A connection safety influence coefficient analysis module: used to screen and obtain the connection sub-areas and sub-planar structures corresponding to each load-bearing structure through each load-bearing structure in the target industrial factory building, and analyze the connection sub-areas corresponding to each load-bearing structure to obtain the connection safety influence coefficient of the connection sub-areas corresponding to each load-bearing structure;

[0011] Plane structure analysis module: used to monitor and analyze the sub-plane structures corresponding to each load-bearing structure, and obtain the splicing tightness coefficients of the sub-plane structures corresponding to each load-bearing structure;

[0012] Health coefficient analysis module: Analyze the load-bearing safety impact coefficients of each load-bearing structure, the connection safety impact coefficients of the corresponding connection sub-regions of each load-bearing structure, and the splicing tightness coefficients of the sub-plane structures corresponding to each load-bearing structure in the target industrial plant, and obtain the plant health coefficient corresponding to the target industrial plant;

[0013] Health assessment module, used to evaluate according to the plant health coefficient corresponding to the target industrial plant and the type of work corresponding to the target industrial plant, and obtain the plant health assessment result corresponding to the target industrial plant.

[0014] In a preferred embodiment of this solution, the specific implementation method of the structure area division module is as follows:

[0015] Establish a data extraction relationship between the structure division module and the database, extract the building structure of the target industrial plant stored in the database, extract the standard area division methods corresponding to various building structures stored in the database, screen and obtain the standard area division method corresponding to the target industrial plant, and divide to obtain each structure area in the target industrial plant.

[0016] In a preferred embodiment of this solution, the specific implementation method of the load-bearing data acquisition module is as follows:

[0017] Real-time monitor the load-bearing conditions of each load-bearing structure through the axial force sensors preset at the bottom of each load-bearing structure, and obtain the load-bearing information of each load-bearing structure in the target industrial plant, where the load-bearing information includes the magnitude and direction of the bearing force of each load-bearing structure.

[0018] In a preferred embodiment of this solution, the specific implementation method of the load-bearing safety analysis module is as follows:

[0019] Establish a data extraction relationship between the load-bearing data acquisition module and the database, extract the load-bearing mechanical structure diagram corresponding to the target industrial plant in the database, and extract information from the load-bearing mechanical structure diagram corresponding to the target industrial plant to obtain the standard bearing force magnitude and standard bearing force direction corresponding to each load-bearing structure in the target industrial plant;

[0020] Extract the standard contour models corresponding to each load-bearing structure stored in the database, and extract information from the standard contour models corresponding to each load-bearing structure to obtain the standard coordinate positions of each preset coordinate acquisition point corresponding to each load-bearing structure , , is a positive integer, represents the number of each load-bearing structure corresponding to the target industrial plant, , is a positive integer, representing the numbers of the preset coordinate acquisition points in each load-bearing structure;

[0021] High-definition photographs of each load-bearing structure in the target industrial plant are taken by an infrared high-precision camera, and the appearance images of each load-bearing structure in the target industrial plant are obtained. The appearance images of each load-bearing structure in the target industrial plant are scanned in all directions by a contour scanner to establish a contour model of each load-bearing structure in the target industrial plant. Information extraction is performed on the contour model of each load-bearing structure in the target industrial plant to obtain the real-time coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point ;

[0022] The standard coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point and the real-time coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point are substituted into the formula

[0023] to obtain the deformation coefficient of each load-bearing structure in the target industrial plant , where represents a preset deformation coefficient influence factor;

[0024] The corresponding standard bearing capacity magnitude , standard bearing capacity direction of the target industrial plant corresponding to each load-bearing structure, and the bearing capacity magnitude and bearing capacity direction of each load-bearing structure in the target industrial plant are substituted into the formula to obtain the bearing deviation coefficient of each load-bearing structure in the target industrial plant , where represents a preset bearing capacity magnitude balance influence factor, represents a preset bearing deviation coefficient influence factor;

[0025] The bearing deviation coefficients of each load-bearing structure in the target industrial plant and the deformation coefficients of each load-bearing structure in the target industrial plant are substituted into the formula to obtain the bearing safety influence coefficient of each load-bearing structure in the target industrial plant , where represents a preset bearing safety influence coefficient influence factor.

[0026] In a preferred embodiment of this solution, the specific implementation manner of the connection safety influence coefficient analysis module is as follows:

[0027] Establish the storage relationship between the connection safety impact coefficient analysis module and the database, and extract the gray values corresponding to the depths of each crack stored in the database;

[0028] One load-bearing structure in the target industrial plant corresponds to one connection sub-region and one sub-plane structure;

[0029] Screen through the load-bearing mechanics structure diagram corresponding to the target industrial plant to obtain the connection sub-regions and sub-plane structures corresponding to each load-bearing structure in the target industrial plant;

[0030] Use a camera to collect images of the connection sub-regions corresponding to each load-bearing structure in the target industrial plant, and obtain the appearance images of the connection sub-regions corresponding to each load-bearing structure, denoted as the connection appearance images corresponding to each load-bearing structure;

[0031] Perform crack identification on the connection appearance images corresponding to each load-bearing structure to obtain each connection crack and the average crack width corresponding to each connection crack of each load-bearing structure , crack length , , is a positive integer, represents the number of each connection crack in the connection appearance image corresponding to the preset load-bearing structure;

[0032] Perform gray-scale processing on the appearance images of the connection sub-regions corresponding to each load-bearing structure to obtain the gray-scale images of the connection sub-regions corresponding to each load-bearing structure, and screen through the gray values corresponding to the depths of each crack to obtain the crack depths of each connection crack ;

[0033] Substitute the crack lengths , average crack widths and the crack depths of each connection crack into the formula , to obtain the connection safety impact coefficients of the connection sub-regions corresponding to each load-bearing structure in the target industrial plant , where represents the preset connection safety impact coefficient influencing factor, represents the preset crack volume defect threshold.

[0034] In a preferred solution of this scheme, the specific execution method of the plane structure analysis module is as follows:

[0035] Screen through the sub-plane structures corresponding to each load-bearing structure in the target industrial plant and the load-bearing mechanics structure diagram corresponding to the target industrial plant to obtain each adjacent sub-plane structure of the sub-plane structure corresponding to each load-bearing structure;

[0036] Set up each positioning point at the connection between the sub-plane structure and each adjacent sub-plane structure through a preset positioning method;

[0037] The positioning points are symmetrically distributed in the planar structure and each adjacent sub-planar structure, and the positioning points of the planar structure and each adjacent sub-planar structure correspond one by one;

[0038] Image acquisition is performed at the joints of the sub-planar structure and each adjacent sub-planar structure to obtain the splicing images of the corresponding sub-planar structures of each load-bearing structure and the joints of each adjacent sub-planar structure. The splicing images of the corresponding sub-planar structures of each load-bearing structure and the joints of each adjacent sub-planar structure are enlarged proportionally and data measurement is performed to obtain the average distance between the positioning points at the joints of the planar structure and each adjacent sub-planar structure, which is denoted as the average splicing distance between the planar structure and each adjacent sub-planar structure, and is denoted as the average splicing distance of the corresponding sub-planar structure of the load-bearing structure;

[0039] Extract the preset standard splicing distance of the planar structure of the target industrial building stored in the database;

[0040] Calculate the ratio between the average splicing distance of the corresponding sub-planar structure of the load-bearing structure and the preset standard splicing distance of the planar structure of the target industrial building, which is denoted as the splicing tightness coefficient of the corresponding sub-planar structure of the load-bearing structure .

[0041] In a preferred embodiment of this solution, the specific execution method of the health coefficient analysis module is as follows:

[0042] The load-bearing safety influence coefficient of each load-bearing structure in the target industrial building , the connection safety influence coefficient of the corresponding connection sub-region of each load-bearing structure in the target industrial building and the splicing tightness coefficient of the corresponding sub-planar structure of each load-bearing structure are substituted into the formula

[0043] , to obtain the plant health coefficient corresponding to the target industrial building , where represents the preset influence factor of the plant health coefficient;

[0044] In a preferred embodiment of this solution, the specific execution method of the health assessment module is as follows:

[0045] Establish a data extraction relationship between the health assessment module and the database, extract the types of work corresponding to the target industrial building stored in the database, extract the plant health requirement coefficients corresponding to each type of work, and screen to obtain the plant health requirement coefficient corresponding to the target industrial building;

[0046] Compare and analyze the plant health coefficient corresponding to the target industrial plant with the plant health demand coefficient corresponding to the target industrial plant. If the plant health coefficient corresponding to the target industrial plant is greater than the plant health demand coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant meets the work requirements and there are no potential safety hazards. Record that the target industrial plant meets the work requirements and has no potential safety hazards as the plant health assessment result corresponding to the target industrial plant.

[0047] If the plant health coefficient corresponding to the target industrial plant is less than or equal to the plant health demand coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards. Record that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards as the plant health assessment result corresponding to the target industrial plant.

[0048] Compared with the prior art, the beneficial effects of the present invention are:

[0049] By systematically collecting the relevant data of the load-bearing structure area, connection area, and plane structure area corresponding to the target industrial plant, the present invention ensures the comprehensiveness of data collection. At the same time, by systematically analyzing each load-bearing structure, each connection area, and each plane structure in the target industrial plant, the accuracy of the health judgment of the target industrial plant is improved.

[0050] By combining the work types and work requirements corresponding to the target industrial plant, the present invention further improves the accuracy of the health judgment of the target industrial plant, which is beneficial to ensuring production safety and extending the service life of the plant. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] The present invention will be further described with reference to the accompanying drawings. However, the embodiments in the drawings do not constitute any limitation to the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained according to the following drawings.

[0052] Figure 1 It is a schematic diagram of the module connection of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0053] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0054] Please refer to Figure 1, the present invention provides a technical solution: an industrial building health monitoring system, including a structural area division module, a load-bearing data acquisition module, a load-bearing safety analysis module, a connection safety influence coefficient analysis module, a planar structure analysis module, a health coefficient analysis module, and a health assessment module;

[0055] The structural area division module is connected to the load-bearing data acquisition module, the connection safety influence coefficient analysis module, and the planar structure analysis module. The load-bearing data acquisition module is connected to the load-bearing safety analysis module. The load-bearing safety analysis module is connected to the health coefficient analysis module. The safety influence coefficient analysis module is connected to the health coefficient analysis module. The planar structure analysis module is connected to the health coefficient analysis module. The health coefficient analysis module is connected to the health assessment module.

[0056] The structural area division module is used to divide the target industrial building into regions, obtaining each structural region corresponding to the target industrial building. Each structural region in the target industrial building includes a load-bearing structural region, a connection region, and a planar structural region;

[0057] Furthermore, the specific implementation method of the structural area division module is as follows:

[0058] Establish a data extraction relationship between the structural division module and the database, extract the building structure of the target industrial building stored in the database, extract the standard area division methods corresponding to various building structures stored in the database, screen to obtain the standard area division method corresponding to the target industrial building, and divide to obtain each structural region in the target industrial building.

[0059] It should be noted that: the load-bearing structure refers to a load-bearing column or a building structure that plays a load-bearing role in the factory building. The planar structure refers to a covering structure such as the factory roof. The connection region refers to the region connecting the load-bearing structure and the planar structure.

[0060] The load-bearing data acquisition module is used to detect the load-bearing conditions of each load-bearing structure in the load-bearing structural region of the target industrial building, obtaining the load-bearing information of each load-bearing structure in the target industrial building;

[0061] Furthermore, the specific implementation method of the load-bearing data acquisition module is as follows:

[0062] Real-time monitor the load-bearing conditions of each load-bearing structure through the axial force sensors preset at the bottom of each load-bearing structure, obtaining the load-bearing information of each load-bearing structure in the target industrial building, where the load-bearing information includes the magnitude and direction of the bearing force of each load-bearing structure.

[0063] It should be noted that: the direction of the bearing force refers to the angle between the bearing force and the y-axis in the standard plane coordinate system.

[0064] The load-bearing safety analysis module is used to analyze the load-bearing safety influence coefficient of each load-bearing structure in the target industrial plant according to the load-bearing information of each load-bearing structure in the target industrial plant;

[0065] Further, the specific execution method of the load-bearing safety analysis module is as follows:

[0066] Establish a data extraction relationship between the load-bearing data acquisition module and the database, extract the load-bearing mechanical structure diagram corresponding to the target industrial plant in the database, and perform information extraction on the load-bearing mechanical structure diagram corresponding to the target industrial plant to obtain the standard load-bearing capacity and standard load-bearing direction corresponding to each load-bearing structure in the target industrial plant;

[0067] Extract the standard contour model corresponding to each load-bearing structure stored in the database, perform information extraction on the standard contour model corresponding to each load-bearing structure, and obtain the standard coordinate positions of each preset coordinate acquisition point corresponding to each load-bearing structure , , is a positive integer, represents the number of each load-bearing structure corresponding to the target industrial plant, , is a positive integer, represents the number of each preset coordinate acquisition point in each load-bearing structure;

[0068] High-definition photograph each load-bearing structure in the target industrial plant through an infrared high-precision camera to obtain the appearance images of each load-bearing structure in the target industrial plant. Perform a full-range scan on the appearance images of each load-bearing structure in the target industrial plant through a contour scanner, establish the contour model of each load-bearing structure in the target industrial plant, and perform information extraction on the contour model of each load-bearing structure in the target industrial plant to obtain the real-time coordinate positions of each preset coordinate acquisition point corresponding to each load-bearing structure ;

[0069] Substitute the standard coordinate positions of each preset coordinate acquisition point corresponding to each load-bearing structure into the formula

[0070] to obtain the deformation coefficient of each load-bearing structure in the target industrial plant , where represents a preset deformation coefficient influence factor;

[0071] Substitute the standard load-bearing capacity , standard load-bearing direction corresponding to each load-bearing structure in the target industrial plant and the load-bearing capacity Substitute into the formula to obtain the load-bearing deviation coefficients of each load-bearing structure in the target industrial building where represents the preset influence factor for the balance of the bearing capacity magnitude, represents the preset influence factor for the load-bearing deviation coefficient;

[0072] Substitute the load-bearing deviation coefficients of each load-bearing structure in the target industrial building and the deformation coefficients of each load-bearing structure in the target industrial building into the formula to obtain the load-bearing safety influence coefficients of each load-bearing structure in the target industrial building where represents the preset influence factor for the load-bearing safety influence coefficient.

[0073] It should be noted that: the larger the load-bearing deviation coefficients of each load-bearing structure in the target industrial building and the deformation coefficients of each load-bearing structure in the target industrial building are, the larger the load-bearing safety influence coefficients of each load-bearing structure in the target industrial building will be;

[0074] The load-bearing deviation coefficients of each load-bearing structure in the target industrial building in the formula and the deformation coefficients of each load-bearing structure in the target industrial building will not affect each other.

[0075] The connection safety influence coefficient analysis module is used to screen through each load-bearing structure in the target industrial building to obtain the corresponding connection sub-regions and sub-plane structures of each load-bearing structure, analyze the connection sub-regions corresponding to each load-bearing structure, and obtain the connection safety influence coefficients of the connection sub-regions corresponding to each load-bearing structure;

[0076] Furthermore, the specific execution method of the connection safety influence coefficient analysis module is as follows:

[0077] Establish the storage relationship between the connection safety influence coefficient analysis module and the database, and extract the gray values corresponding to each crack depth stored in the database;

[0078] One load-bearing structure in the target industrial building corresponds to one connection sub-region and one sub-plane structure;

[0079] Screen through the load-bearing mechanical structure diagram corresponding to the target industrial building to obtain the corresponding connection sub-regions and sub-plane structures of each load-bearing structure in the target industrial building;

[0080] Image acquisition is performed on the connection sub-regions corresponding to each load-bearing structure in the target industrial plant through a camera to obtain the appearance images of the connection sub-regions corresponding to each load-bearing structure, which are denoted as the connection appearance images corresponding to each load-bearing structure;

[0081] Gap recognition is performed on the connection appearance images corresponding to each load-bearing structure to obtain each connection gap and the average gap width of each connection gap corresponding to each load-bearing structure and the gap length , , where \(n\) is a positive integer, indicating the number of each connection gap in the connection appearance image corresponding to the preset load-bearing structure;

[0082] By performing grayscale processing on the appearance images of the connection sub-regions corresponding to each load-bearing structure, grayscale images of the connection sub-regions corresponding to each load-bearing structure are obtained, and the gap depths of each connection gap are obtained by screening the grayscale values corresponding to each gap depth ;

[0083] Substitute the gap lengths , average gap widths and the gap depths of each connection gap into the formula to obtain the connection safety impact coefficient of the connection sub-region corresponding to each load-bearing structure in the target industrial plant , where represents the preset connection safety impact coefficient influence factor, represents the preset gap volume defect threshold.

[0084] The plane structure analysis module is used to monitor and analyze the sub-plane structures corresponding to each load-bearing structure to obtain the splicing tightness coefficient of the sub-plane structures corresponding to each load-bearing structure;

[0085] Furthermore, the specific execution method of the plane structure analysis module is as follows:

[0086] Each adjacent sub-plane structure of the sub-plane structure corresponding to each load-bearing structure is obtained by screening through the sub-plane structure corresponding to each load-bearing structure in the target industrial plant and the load-bearing mechanical structure diagram corresponding to the target industrial plant;

[0087] Each positioning point is set at the connection between the sub-plane structure and each adjacent sub-plane structure through a preset positioning method;

[0088] The positioning points are symmetrically distributed between the plane structure and each adjacent sub-plane structure, and the positioning points of the plane structure and each adjacent sub-plane structure correspond one by one;

[0089] Image acquisition is performed at the splicing points between the sub-plane structures and each adjacent sub-plane structure to obtain the splicing images at the splicing points between the sub-plane structures corresponding to each load-bearing structure and each adjacent sub-plane structure. The splicing images at the splicing points between the sub-plane structures corresponding to each load-bearing structure and each adjacent sub-plane structure are enlarged proportionally and data measurement is performed to obtain the average distance between the positioning points at the splicing points between the plane structure and each adjacent sub-plane structure, which is denoted as the average splicing distance between the plane structure and each adjacent sub-plane structure, and also denoted as the average splicing distance of the sub-plane structure corresponding to the load-bearing structure;

[0090] Extract the preset standard splicing distance of the plane structure of the target industrial plant stored in the database;

[0091] Calculate the ratio between the average splicing distance of the sub-plane structure corresponding to the load-bearing structure and the preset standard splicing distance of the plane structure of the target industrial plant, which is denoted as the splicing tightness coefficient of the sub-plane structure corresponding to the load-bearing structure 。

[0092] The health coefficient analysis module analyzes the load-bearing safety impact coefficient of each load-bearing structure, the connection safety impact coefficient of each connection sub-region corresponding to each load-bearing structure, and the splicing tightness coefficient of the sub-plane structure corresponding to each load-bearing structure in the target industrial plant to obtain the plant health coefficient corresponding to the target industrial plant;

[0093] Furthermore, the specific execution method of the health coefficient analysis module is as follows:

[0094] The load-bearing safety impact coefficient of each load-bearing structure in the target industrial plant 、the connection safety impact coefficient of each connection sub-region corresponding to each load-bearing structure in the target industrial plant and the splicing tightness coefficient of the sub-plane structure corresponding to each load-bearing structure are substituted into the formula

[0095] , to obtain the plant health coefficient corresponding to the target industrial plant ,where represents the preset impact factor of the plant health coefficient;

[0096] The health assessment module is used to perform an assessment based on the plant health coefficient corresponding to the target industrial plant and the type of work corresponding to the target industrial plant to obtain the plant health assessment result corresponding to the target industrial plant.

[0097] Furthermore, the specific execution method of the health assessment module is as follows:

[0098] Establish a data extraction relationship between the health assessment module and the database, extract the type of work corresponding to the target industrial plant stored in the database, extract the plant health requirement coefficient corresponding to each type of work, and screen to obtain the plant health requirement coefficient corresponding to the target industrial plant;

[0099] Compare and analyze the plant health coefficient corresponding to the target industrial plant with the plant health demand coefficient corresponding to the target industrial plant. If the plant health coefficient corresponding to the target industrial plant is greater than the plant health demand coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant meets the work requirements and there are no potential safety hazards. Record that the target industrial plant meets the work requirements and there are no potential safety hazards as the plant health assessment result corresponding to the target industrial plant.

[0100] If the plant health coefficient corresponding to the target industrial plant is less than or equal to the plant health demand coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards. Record that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards as the plant health assessment result corresponding to the target industrial plant.

[0101] The above are all preferred embodiments of this application. The protection scope of this application is not limited accordingly. Therefore, all equivalent changes made according to the structure, shape, and principle of this application shall be covered within the protection scope of this application.

Claims

1. An industrial building health monitoring system, characterized in that: Including: A structural area division module: used to divide the target industrial plant into areas to obtain each structural area corresponding to the target industrial plant, and each structural area in the target industrial plant includes a load-bearing structural area, a connection area, and a planar structural area; A load-bearing data acquisition module: used to detect the load-bearing conditions of each load-bearing structure in the load-bearing structural area of the target industrial plant to obtain the load-bearing information of each load-bearing structure in the target industrial plant; A load-bearing safety analysis module: used to analyze the load-bearing safety impact coefficient of each load-bearing structure in the target industrial plant according to the load-bearing information of each load-bearing structure in the target industrial plant; A connection safety impact coefficient analysis module: used to screen out the connection sub-areas and sub-planar structures corresponding to each load-bearing structure through each load-bearing structure in the target industrial plant, analyze the connection sub-areas corresponding to each load-bearing structure, and obtain the connection safety impact coefficient of the connection sub-areas corresponding to each load-bearing structure; The specific execution method of the connection safety impact coefficient analysis module is as follows: Establish a storage relationship between the connection safety impact coefficient analysis module and the database, and extract the gray values corresponding to each crack depth stored in the database; One load-bearing structure in the target industrial plant corresponds to one connection sub-area and one sub-planar structure; Screen out the connection sub-areas and sub-planar structures corresponding to each load-bearing structure in the target industrial plant through the load-bearing mechanical structure diagram corresponding to the target industrial plant; Collect images of the connection sub-areas corresponding to each load-bearing structure in the target industrial plant through a camera to obtain the appearance images of the connection sub-areas corresponding to each load-bearing structure, denoted as the connection appearance images corresponding to each load-bearing structure; Perform gap recognition on the connection appearance images corresponding to each load-bearing structure to obtain the connection gaps corresponding to each load-bearing structure and the average gap width of each connection gap and the gap length , where is a positive integer indicating the number of each connection gap in the connection appearance image corresponding to the preset load-bearing structure; By performing grayscale processing on the appearance images of the corresponding connection sub-regions of each load-bearing structure, grayscale images of the corresponding connection sub-regions of each load-bearing structure are obtained, and the gap depths of each connection gap are obtained by screening based on the grayscale values corresponding to the depths of each gap. ; The crack length corresponding to each load-bearing structure , the average crack width and the crack depth of each connecting crack are substituted into the formula , and the connection safety influence coefficient of the connection sub-region corresponding to each load-bearing structure in the target industrial building is obtained , where represents a preset connection safety influence coefficient influence factor, represents a preset crack volume defect threshold; A planar structure analysis module: used to monitor and analyze the sub-planar structures corresponding to each load-bearing structure to obtain the splicing tightness coefficient of the sub-planar structures corresponding to each load-bearing structure; A health coefficient analysis module: analyze the load-bearing safety impact coefficient of each load-bearing structure in the target industrial plant, the connection safety impact coefficient of the connection sub-areas corresponding to each load-bearing structure, and the splicing tightness coefficient of the sub-planar structures corresponding to each load-bearing structure to obtain the plant health coefficient corresponding to the target industrial plant; A health assessment module: used to evaluate according to the plant health coefficient corresponding to the target industrial plant and the type of work corresponding to the target industrial plant to obtain the plant health assessment result corresponding to the target industrial plant.

2. The industrial building health monitoring system according to claim 1, characterized in that: The specific execution method of the structural area division module is as follows: Establish a data extraction relationship between the structure division module and the database, extract the building structure of the target industrial plant stored in the database, extract the standard area division methods corresponding to various building structures stored in the database, screen out the standard area division method corresponding to the target industrial plant, and divide to obtain each structural area in the target industrial plant.

3. The industrial building health monitoring system according to claim 2, characterized in that: The specific execution method of the load-bearing data acquisition module is as follows: Real-time monitor the load-bearing conditions of each load-bearing structure through the axial force sensors preset at the bottom of each load-bearing structure to obtain the load-bearing information of each load-bearing structure in the target industrial plant, where the load-bearing information includes the magnitude and direction of the bearing force of each load-bearing structure.

4. An industrial building health monitoring system according to claim 3, characterized in that: The specific execution method of the load-bearing safety analysis module is as follows: Establish a data extraction relationship between the load-bearing data acquisition module and the database, extract the load-bearing mechanical structure diagram corresponding to the target industrial plant in the database, and perform information extraction on the load-bearing mechanical structure diagram corresponding to the target industrial plant to obtain the corresponding standard bearing capacity and standard bearing direction of each load-bearing structure corresponding to the target industrial plant; Extract the standard profile models corresponding to each load-bearing structure stored in the database, and perform information extraction on the standard profile models corresponding to each load-bearing structure to obtain the standard coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point , , is a positive integer, represents the number of each load-bearing structure corresponding to the target industrial building, , is a positive integer, represents the number of each preset coordinate acquisition point in each load-bearing structure; Use an infrared high-precision camera to take high-definition photos of each load-bearing structure in the target industrial plant to obtain the appearance images of each load-bearing structure in the target industrial plant. Then, use a contour scanner to perform an all-round scan of the appearance images of each load-bearing structure in the target industrial plant to establish a contour model of each load-bearing structure in the target industrial plant. Extract information from the contour model of each load-bearing structure in the target industrial plant to obtain the real-time coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point ; The standard coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point and the real-time coordinate positions of each load-bearing structure corresponding to each preset coordinate acquisition point are substituted into the formula , the deformation coefficients of each load-bearing structure in the target industrial building are obtained , where is expressed as a preset influence factor of the deformation coefficient; The corresponding standard bearing capacity magnitudes of each load-bearing structure of the target industrial building , the standard bearing capacity directions and the bearing capacity magnitudes of each load-bearing structure in the target industrial building and the bearing capacity directions are substituted into the formula , and the bearing deviation coefficients of each load-bearing structure in the target industrial building are obtained , where represents a preset influence factor for the balance of bearing capacity magnitudes, represents a preset influence factor for the bearing deviation coefficient; Substitute the load-bearing deviation coefficients of each load-bearing structure in the target industrial building and the deformation coefficients of each load-bearing structure in the target industrial building into the formula to obtain the load-bearing safety influence coefficients of each load-bearing structure in the target industrial building , where represents a preset influence factor of the load-bearing safety influence coefficient.

5. The industrial building health monitoring system according to claim 2, wherein: The specific execution method of the plane structure analysis module is as follows: Screen and obtain each adjacent sub-plane structure of the sub-plane structure corresponding to each load-bearing structure through the sub-plane structure corresponding to each load-bearing structure in the target industrial plant and the load-bearing mechanical structure diagram corresponding to the target industrial plant; Set up each positioning point at the connection between the sub-plane structure and each adjacent sub-plane structure through a preset positioning method; The positioning points are symmetrically distributed between the plane structure and each adjacent sub-plane structure, and the positioning points of the plane structure and each adjacent sub-plane structure correspond one by one; Collect images of the splicing parts between the sub-plane structure and each adjacent sub-plane structure to obtain the splicing images of the splicing parts between the sub-plane structure corresponding to each load-bearing structure and each adjacent sub-plane structure. Enlarge the splicing images of the splicing parts between the sub-plane structure corresponding to each load-bearing structure and each adjacent sub-plane structure in equal proportion and perform data measurement to obtain the average distance between the positioning points at the splicing parts between the plane structure and each adjacent sub-plane structure, denoted as the average splicing distance between the plane structure and each adjacent sub-plane structure, denoted as the average splicing distance of the sub-plane structure corresponding to the load-bearing structure; Extract the preset standard splicing distance of the plane structure of the target industrial plant stored in the database; Calculate the ratio between the average splicing spacing of the sub-plane structure corresponding to the load-bearing structure and the standard splicing spacing of the plane structure preset for the target industrial plant, and denote it as the splicing tightness coefficient of the sub-plane structure corresponding to the load-bearing structure .

6. The industrial building health monitoring system according to claim 5, characterized in that: The specific execution method of the health coefficient analysis module is as follows: The load-bearing safety influence coefficient of each load-bearing structure in the target industrial building , the connection safety influence coefficient of the corresponding connection sub-region of each load-bearing structure in the target industrial building and the splicing tightness coefficient of the corresponding sub-planar structure of each load-bearing structure are substituted into the formula , obtain the plant health coefficient corresponding to the target industrial plant , where represents a preset influencing factor for the plant health coefficient 7. An industrial building health monitoring system according to claim 6, characterized in that: The specific execution method of the health assessment module is as follows: Establish a data extraction relationship between the health assessment module and the database, extract the types of work corresponding to the target industrial plant stored in the database, extract the health requirement coefficients of the plant corresponding to each type of work, and screen and obtain the health requirement coefficient of the plant corresponding to the target industrial plant; Compare and analyze the plant health coefficient corresponding to the target industrial plant with the plant health requirement coefficient corresponding to the target industrial plant. If the plant health coefficient corresponding to the target industrial plant is greater than the plant health requirement coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant meets the work requirements and there are no potential safety hazards. Denote that the target industrial plant meets the work requirements and there are no potential safety hazards as the plant health assessment result corresponding to the target industrial plant; If the plant health coefficient corresponding to the target industrial plant is less than or equal to the plant health requirement coefficient corresponding to the target industrial plant, it means that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards. Denote that the plant health coefficient corresponding to the target industrial plant neither meets the work requirements nor has potential safety hazards as the plant health assessment result corresponding to the target industrial plant.

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