A big data-based building material bending calculation system

Abstract

The application discloses a building material bending calculation system based on big data, and relates to the technical field of building, which comprises a data acquisition module, a performance detection module, a temporary change module, a damage detection module, a repair scheme module and a performance calculation module, and further comprises a cost module and a three-dimensional display module.The application has the advantages that the temporary change module can calculate the effects of different environmental change information and analyze the possibility of their cooperation at the same time, generate a configuration scheme, and flexibly adjust the configuration of building materials according to the actual environmental conditions, so as to optimize the bending performance of building materials to adapt to the environment.The damage detection module can accurately estimate the service life of building materials under a specific configuration scheme, facilitate the advance planning of material replacement or maintenance time, avoid safety hazards of building structures, and help prolong the service life of building materials and reduce building maintenance costs by using the repair scheme module.

Description

Technical Field

[0001] This invention relates to the field of building technology, specifically to a building material bending calculation system based on big data. Background Technology

[0002] Building materials are the various materials used in construction projects. There are many types of building materials, generally composed of inorganic non-metallic materials and organic materials. Building materials can be divided into structural materials, decorative materials, and certain special-purpose materials. Structural materials include wood, bamboo, stone, cement, concrete, metal, bricks, tiles, ceramics, glass, engineering plastics, and composite materials. Decorative materials include various coatings, paints, platings, veneers, colored ceramic tiles, and glass with special effects. Special-purpose materials refer to those used for waterproofing, moisture-proofing, corrosion prevention, fireproofing, flame retardancy, sound insulation, heat insulation, thermal insulation, and sealing. However, when using building materials, it is necessary to understand their bending properties in detail to make better use of them.

[0003] Common building material bending calculation systems cannot fully cover all possible environmental scenarios during use. They are not comprehensive enough in calculating the bending performance of building materials and cannot provide guidance for the repair work after the building materials are damaged. Therefore, we propose a building material bending calculation system based on big data. Summary of the Invention

[0004] The purpose of this invention is to provide a building material bending calculation system based on big data.

[0005] To address the problems mentioned in the background art, the present invention provides the following technical solution: a building material bending calculation system based on big data, including a data acquisition module capable of acquiring building material information, and further including a performance testing module, a temporary modification module, a damage detection module, a repair scheme module, and a performance calculation module;

[0006] The performance testing module extracts building material information, then tests the bending performance of the building materials in daily use, and generates daily bending performance information.

[0007] The temporary modification module collects environmental information that can cause changes in the bending properties of building materials, generates environmental modification information, and simultaneously calculates the effects of different environmental modification information and analyzes whether different environmental modification information can be used in combination.

[0008] When different environmental change information can be used in combination, the effect of the combination between different environmental change information will be analyzed, and then a comprehensive configuration scheme will be generated.

[0009] When different environmental change information cannot be used together, a single configuration scheme will be generated;

[0010] The damage detection module extracts comprehensive configuration schemes and single configuration schemes, analyzes the damage to building materials after the comprehensive configuration schemes and single configuration schemes, generates damage information, and converts it into service life.

[0011] The repair plan module extracts damage information, analyzes methods to mitigate the damage, and generates a repair plan.

[0012] The performance calculation module extracts daily bending performance information and building materials after comprehensive and single configuration schemes, generates temporary building material information, calculates the bending performance of the temporary building material information based on the effects of comprehensive and single configuration schemes, and generates temporary bending performance information.

[0013] As a further embodiment of the present invention, it also includes a cost module and a 3D display module;

[0014] The cost module extracts information on comprehensive configuration schemes, single configuration schemes, and repair schemes, calculates their costs, generates change costs and repair costs, and then displays the change cost information and repair cost information.

[0015] The 3D display module extracts temporary and daily bending performance information, simulates the bending degree of building materials based on the temporary and daily bending performance information, obtains bending image information, and displays it to the outside world.

[0016] As a further aspect of the present invention: when generating bending performance information, the performance detection module adds a performance level, and classifies the daily bending performance information of building materials according to the performance level. Let the daily bending performance information be R. 日常 Let the primary bending threshold be C. 初级 Let the intermediate bending threshold be C. 中级 Let the advanced bending threshold be C. 高级 ;

[0017] When R 日常 ≤C 初级 At that time, the corresponding daily bending performance information and building material information are set as the primary bending level;

[0018] When C 初级 <R 日常 ≤C 中级 At that time, the corresponding daily bending performance information and building material information are set to the medium bending level;

[0019] When C 中级 <R 日常 ≤C 高级 At that time, the corresponding daily bending performance information and building material information are set to the advanced bending level;

[0020] When R 日常 >C 高级 At that time, the corresponding daily bending performance information and building material information are set to the super bending grade;

[0021] Based on the above method, building material information can be classified into different levels, then sorted according to the magnitude of daily bending performance, the cost of different building materials can be collected, and bending performance information can be generated according to the ratio of daily bending performance information to cost information. The cost information and bending performance information are then converted into tags and marked on the back end of the building material information.

[0022] As a further aspect of the present invention: the temporary change module collects the bending performance of the same building materials under the same environmental change information, and also collects the bending performance of building materials under normal conditions, calculates the impact of different environmental change information on the bending performance of building materials, and lets the bending performance of building materials under normal conditions be R. 日常 Let X be the bending performance of the same building material under the same environmental change information. T Let N be the quantity of the same building materials in the same environmental change information, and let W be the bending performance ratio of the environmental change information. 比值 ;

[0023]

[0024] The bending performance ratio of environmental change information can be calculated using the above formula. Once the bending performance of a building material under normal conditions is known, the bending performance of that building material under environmental change information can be calculated.

[0025] As a further aspect of the present invention: after generating the comprehensive configuration scheme, the temporary change module will simultaneously collect the effects of different environmental change information and set a coordination threshold. Let the effect of the comprehensive configuration scheme be Z. 综合 Let Z be the effect of different environmental change information that make up the comprehensive configuration scheme. T Let U be the number of different environmental change information in the comprehensive configuration scheme, and P be the configuration effectiveness index. 指数 ;

[0026]

[0027] The configuration effect index can be calculated using the above formula. Let the matching threshold be P. 阈值 ;

[0028] When P 指数 ≥P 阈值Then, it determines that the corresponding environmental change information can generate a comprehensive configuration scheme, and then converts the corresponding configuration scheme into comprehensive configuration scheme information and records it;

[0029] When P 指数 <P 阈值 If the system determines that the corresponding environmental change information cannot generate a comprehensive configuration scheme, it will then delete the corresponding configuration method.

[0030] As a further aspect of the present invention: after analyzing the damage of building materials under both comprehensive and single configuration schemes, the damage detection module further analyzes the composition of the building materials to obtain sub-building materials, and then analyzes the wear and tear of the sub-building materials during daily use. Let the damage information of the sub-building materials during daily use be R. 损耗 Let the building material information be Z. J Let J be the limit by which building materials can maintain normal use. X Let the service life of the building material be Z. 寿命 ;

[0031] Z 寿命 =(Z J -J X )R 损耗

[0032] The service life of different building materials can be calculated using the above formula.

[0033] As a further aspect of the present invention: after calculating the service life of different sub-building materials, the damage detection module sorts them in ascending order of shortest service life, extracts the shortest service life of the sub-building material, and uses this as the service life of the building material after applying both a comprehensive configuration scheme and a single configuration scheme. The comprehensive configuration scheme and the single configuration scheme are collectively referred to as the configuration scheme. Let R be the service life of the building material under normal conditions. 寿命 Let S be the lifespan damage index of building materials after the configuration scheme. 损伤指数 ;

[0034]

[0035] The lifespan damage index of building materials after configuration can be calculated using the above formula.

[0036] As a further aspect of the present invention: after the cost module extracts the comprehensive configuration scheme information, the single configuration scheme information, and the repair scheme information, it will decompose the comprehensive configuration scheme information, the single configuration scheme information, and the repair scheme information into corresponding scheme steps, and then calculate the cost required for different scheme steps, and generate a comprehensive step table, a single step table, and a repair step table respectively, wherein the change cost includes the cost required for the comprehensive configuration scheme and the cost required for the single configuration scheme.

[0037] As a further aspect of the present invention: when the three-dimensional display module extracts temporary bending performance information and daily bending performance information, it uses SolidWorks to construct building materials to obtain an initial model, then imports the initial model into Blender, uses Blender to adjust the bending angle of the initial model, and obtains image information through key frame settings.

[0038] Compared with the prior art, the beneficial effects of the present invention by adopting the above technical solution are as follows:

[0039] 1. This invention, through a temporary modification module, can simultaneously calculate the effects of different environmental changes and analyze their compatibility, generating configuration schemes. It allows for flexible adjustment of building material configurations based on actual environmental conditions, optimizing the bending performance of building materials to adapt to the environment. The damage detection module accurately predicts the lifespan of building materials under specific configuration schemes, facilitating advance planning of material replacement or maintenance times and preventing structural safety hazards caused by excessive material damage. The repair scheme module provides scientific and targeted guidance for repairing damaged building materials, helping to extend their service life and reduce building maintenance costs.

[0040] 2. The present invention enables users to quickly and intuitively understand the bending performance of various building materials in daily use through the performance testing module, which facilitates the screening and comparison of many building materials. The temporary change module can accurately quantify the impact of different environmental change information on the bending performance of building materials, avoiding the blind combination of environmental change information that may lead to the failure to achieve the expected improvement in the bending performance of building materials, and ensuring the stability and safety of building structures under complex environmental conditions.

[0041] 3. This invention, through its damage detection module, can more accurately grasp the durability of each component within building materials, allowing users to gain a deeper understanding of the microscopic performance of building materials. This helps in taking more targeted measures in areas such as building maintenance planning, and, while meeting the structural performance requirements of the building, to select configuration schemes that have the least impact on the lifespan of building materials. The cost module helps in making comprehensive trade-offs when formulating building project budgets and selecting schemes, and the 3D display module helps improve the understanding and communication efficiency of building material performance among all parties. Attached Figure Description

[0042] Figure 1 This is a schematic diagram of the system flow in an embodiment of the present invention. Detailed Implementation

[0043] The specific embodiments of the present invention will be further described below with reference to the accompanying drawings. It should be noted that the description of these embodiments is for the purpose of helping to understand the present invention, but does not constitute a limitation of the present invention.

[0044] Furthermore, the technical features involved in the various embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other.

[0045] Example 1:

[0046] Therefore, in order to effectively solve the above problems, this application proposes a building material bending calculation system based on big data, as shown in the attached drawings of the specification. Figure 1 As shown, it includes a data acquisition module that can collect building material information, as well as a performance testing module, a temporary modification module, a damage detection module, a repair plan module, and a performance calculation module;

[0047] The performance testing module extracts building material information, then tests the bending performance of the building materials in daily use, and generates daily bending performance information.

[0048] The temporary modification module collects environmental information that can cause changes in the bending properties of building materials, generates environmental modification information, and simultaneously calculates the effects of different environmental modification information and analyzes whether different environmental modification information can be used in combination.

[0049] When different environmental change information can be used in combination, the effect of the combination between different environmental change information will be analyzed, and then a comprehensive configuration scheme will be generated.

[0050] When different environmental change information cannot be used together, a single configuration scheme will be generated;

[0051] A thorough analysis of the complex interactions between environmental factors reveals that high temperature and high humidity environments may have a synergistic effect on the bending performance of certain building materials. This synergistic effect may differ from the individual effects of high temperature or high humidity. Considering the dynamic characteristics of environmental factors, for some environmental factors with significant seasonal variations, corresponding configuration schemes should be formulated based on the typical environmental conditions of different seasons to ensure that building materials can maintain good bending performance under optimal environmental configuration in different seasons.

[0052] The damage detection module extracts comprehensive configuration schemes and single configuration schemes, analyzes the damage to building materials after the comprehensive configuration schemes and single configuration schemes, generates damage information, and converts it into service life.

[0053] Advanced microscopy and non-destructive testing techniques are used to observe the internal structure of materials in detail and detect whether there is microscopic damage such as crystal structure deformation, microcrack generation and propagation at the microscopic level.

[0054] This model describes how material damage changes over time, environmental factors, and stress conditions. By continuously updating and improving this model, we can more accurately predict the damage development trend of materials under different conditions in the future, providing a more targeted basis for the repair scheme module.

[0055] The repair plan module extracts damage information, analyzes methods to mitigate the damage, and generates a repair plan.

[0056] Considering the different degrees of damage and usage environments, repair solutions should also vary. For building materials with minor damage and located indoors, simple surface repair methods may suffice. However, for building materials with severe damage and located in harsh outdoor environments, more complex structural reinforcement and protective measures may be required.

[0057] The performance calculation module extracts daily bending performance information and building materials after comprehensive and single configuration schemes, generates temporary building material information, calculates the bending performance of temporary building material information based on the effects of comprehensive and single configuration schemes, and generates temporary bending performance information.

[0058] It also includes a cost module and a 3D display module;

[0059] The cost module extracts information on comprehensive configuration schemes, single configuration schemes, and repair schemes, calculates their costs, generates change costs and repair costs, and then displays the change cost information and repair cost information.

[0060] The 3D display module extracts temporary bending performance information and daily bending performance information, and simulates the bending degree of building materials based on the temporary bending performance information and daily bending performance information to obtain bending image information and display it to the outside world.

[0061] The specific workflow is as follows: Collect building material information, detect the bending performance of building materials during daily use, generate daily bending performance information, collect environmental information that can cause changes in the bending performance of building materials, generate environmental change information, and simultaneously calculate the effects of different environmental change information. Analyze whether different environmental change information can be used in combination, generate comprehensive configuration schemes and single configuration schemes, analyze the damage to building materials after undergoing comprehensive and single configuration schemes, generate damage information, analyze methods to mitigate damage, generate repair schemes, calculate the bending performance of temporary building materials, generate temporary bending performance information, extract comprehensive configuration scheme, single configuration scheme, and repair scheme information, calculate their costs, generate change costs and repair costs, extract temporary and daily bending performance information, simulate the bending degree of building materials based on temporary and daily bending performance information, obtain bending image information, and display it to the outside world.

[0062] Furthermore, the temporary change module can simultaneously calculate the effects of different environmental changes and analyze their compatibility, generating configuration schemes. This allows for flexible adjustments to the configuration of building materials based on actual environmental conditions, optimizing the bending performance of building materials to adapt to the environment. The damage detection module can accurately predict the service life of building materials under specific configuration schemes, facilitating advance planning of material replacement or maintenance times and preventing safety hazards in building structures caused by excessive material damage. The repair scheme module provides scientific and targeted guidance for the repair of damaged building materials, helping to extend the service life of building materials and reduce building maintenance costs.

[0063] Example 2:

[0064] Based on Embodiment 1, as shown in the accompanying drawings of the specification. Figure 1 As shown, when generating bending performance information, the performance testing module adds a performance level and classifies the daily bending performance information of building materials according to the performance level. Let the daily bending performance information be R. 日常 Let the primary bending threshold be C. 初级 Let the intermediate bending threshold be C. 中级 Let the advanced bending threshold be C. 高级 ;

[0065] When R 日常 ≤C 初级At that time, the corresponding daily bending performance information and building material information are set as the primary bending level;

[0066] When C 初级 <R 日常 ≤C 中级 At that time, the corresponding daily bending performance information and building material information are set to the medium bending level;

[0067] When C 中级 <R 日常 ≤C 高级 At that time, the corresponding daily bending performance information and building material information are set to the advanced bending level;

[0068] When R 日常 >C 高级 At that time, the corresponding daily bending performance information and building material information are set to the super bending grade;

[0069] Based on the above method, the information on building materials can be classified into different levels, then sorted according to the size of daily bending performance, the cost of different building materials can be collected, and bending performance information can be generated according to the ratio of daily bending performance information to cost information. The cost information and bending performance information are then converted into tags and marked on the back end of the building material information.

[0070] For different types of building materials, a dedicated bending threshold system is set according to their respective material characteristics and common application scenarios. For steel, due to its high strength and toughness, the bending value range corresponding to each level can be appropriately increased when setting the threshold. For wood, considering the variability of its natural material, a more flexible threshold range can be set, and the level classification can be further refined by combining factors such as the moisture content and grain direction of the wood.

[0071] By combining factors such as the durability, processability, and environmental friendliness of building materials, a corresponding weight is assigned to each factor, and a comprehensive performance index is obtained through weighted calculation. Then, the information on building materials is sorted more comprehensively based on this comprehensive performance index.

[0072] The temporary change module collects the bending properties of the same building materials under the same environmental change information, and also collects the bending properties of building materials under normal conditions. It calculates the impact of different environmental change information on the bending properties of building materials, assuming the bending properties of building materials under normal conditions are R. 日常 Let X be the bending performance of the same building material under the same environmental change information. T Let N be the quantity of the same building materials in the same environmental change information, and let W be the bending performance ratio of the environmental change information. 比值 ;

[0073]

[0074] The bending performance ratio of environmental change information can be calculated using the above formula. Once the bending performance of a building material under normal conditions is known, the bending performance of that building material under environmental change information can be calculated.

[0075] After generating the comprehensive configuration scheme, the temporary change module will simultaneously collect the effects of changes in different environments and set a coordination threshold. Let the effect of the comprehensive configuration scheme be Z. 综合 Let Z be the effect of different environmental change information that make up the comprehensive configuration scheme. T Let U be the number of different environmental change information in the comprehensive configuration scheme, and P be the configuration effectiveness index. 指数 ;

[0076]

[0077] The configuration effect index can be calculated using the above formula. Let the matching threshold be P. 阈值 ;

[0078] When P 指数 ≥P 阈值 Then, it determines that the corresponding environmental change information can generate a comprehensive configuration scheme, and then converts the corresponding configuration scheme into comprehensive configuration scheme information and records it;

[0079] When P 指数 <P 阈值 If the corresponding environmental change information cannot generate a comprehensive configuration scheme, then the corresponding configuration method will be deleted.

[0080] Based on a detailed analysis of the effects of different environmental change information, it was found that although some environmental change information met the matching threshold conditions, by adjusting the combination of environmental change information and changing the intensity of the effect of environmental change information, the comprehensive configuration scheme was optimized to ensure that while improving the bending performance of building materials, it would not have a negative impact on other important performance indicators.

[0081] Specific workflow: Establish performance levels; classify the daily bending performance information of building materials according to performance levels; sort the building material information according to the magnitude of daily bending performance; collect the cost of different building materials; generate bending effectiveness information according to the ratio of daily bending performance information to cost information; convert the cost information and bending effectiveness information into tags and mark them on the back end of the building material information; collect the bending performance of building materials under daily conditions; calculate the impact of different environmental changes on the bending performance of building materials; collect the effect of different environmental changes; and set a matching threshold. 指数 ≥P 阈值It then determines that the corresponding environmental change information can generate a comprehensive configuration scheme, then converts the corresponding configuration scheme into comprehensive configuration scheme information and records it. When P 指数 <P 阈值 If the corresponding environmental change information cannot generate a comprehensive configuration scheme, then the corresponding configuration method will be deleted.

[0082] Furthermore, the performance testing module allows users to quickly and intuitively understand the bending performance of various building materials in daily use, facilitating the selection and comparison among numerous building materials. The temporary change module can accurately quantify the impact of different environmental changes on the bending performance of building materials, avoiding the blind combination of environmental change information that could lead to the failure to achieve the expected improvement in the bending performance of building materials, thus ensuring the stability and safety of building structures under complex environmental conditions.

[0083] Example 3:

[0084] Based on Embodiment 2, as shown in the accompanying drawings of the specification. Figure 1 As shown, after analyzing the damage of building materials under both comprehensive and single configuration schemes, the damage detection module further analyzes the composition of the building materials to obtain sub-building materials. Then, it analyzes the wear and tear of these sub-building materials during daily use. Let R be the damage information of the sub-building materials during daily use. 损耗 Let the building material information be Z. J Let J be the limit by which building materials can maintain normal use. X Let the service life of the building material be Z. 寿命 ;

[0085] Z 寿命 =(Z J -J X )R 损耗

[0086] The service life of different building materials can be calculated using the above formula.

[0087] After calculating the service life of different sub-building materials, the damage detection module sorts them from shortest to longest service life, extracts the shortest service life of the sub-building material, and uses this as the service life of the building material after applying both the comprehensive configuration scheme and the single configuration scheme. The comprehensive configuration scheme and the single configuration scheme are collectively referred to as the configuration scheme. Let R be the service life of the building material under normal conditions. 寿命 Let S be the lifespan damage index of building materials after the configuration scheme. 损伤指数 ;

[0088]

[0089] The life damage index of building materials after configuration can be calculated using the above formula.

[0090] As building materials perform better in subsequent use and new data is collected, it may be found that the originally calculated life damage index deviates from the actual situation. If subsequent monitoring shows that the rate of wear and tear of building materials is faster than expected, it may be due to the influence of new external factors. In this case, the module should be able to reassess and adjust the life damage index in a timely manner to more accurately reflect the true state of building materials.

[0091] After the cost module extracts the comprehensive configuration scheme information, single configuration scheme information and repair scheme information, it will break down the comprehensive configuration scheme information, single configuration scheme information and repair scheme information into corresponding scheme steps, and then calculate the cost required for different scheme steps, and generate comprehensive step table, single step table and repair step table respectively. The change cost includes the cost required for the comprehensive configuration scheme and the cost required for the single configuration scheme.

[0092] As market prices fluctuate, project schedules are adjusted, and the external environment changes, the costs required for different steps in the plan will also change. It is essential to obtain relevant information in a timely manner, recalculate the cost of each step in the plan based on the new circumstances, and generate the latest comprehensive step table, single step table, and repair step table to ensure the accuracy and timeliness of cost information.

[0093] When extracting temporary and daily bending performance information, the 3D display module uses SolidWorks to construct building materials to obtain an initial model. Then, the initial model is imported into Blender, and the bending angle of the initial model is adjusted using Blender. Image information is obtained through key frame settings.

[0094] The specific workflow is as follows: Analyze the composition of building materials to obtain sub-building materials, then analyze the wear and tear of sub-building materials during daily use, calculate the service life of different sub-building materials, sort them in ascending order, extract the shortest service life of the sub-building materials, and use this as the service life of the building materials after comprehensive configuration schemes and single configuration schemes. Calculate the service life damage index of the building materials after configuration schemes, decompose the comprehensive configuration scheme information, single configuration scheme information, and repair scheme information into corresponding scheme steps, then calculate the cost required for different scheme steps, generate comprehensive step table, single step table, and repair step table, use SolidWorks to construct the building materials to obtain an initial model, then import the initial model into Blender, use Blender to adjust the bending angle of the initial model, and obtain image information through keyframe settings;

[0095] Furthermore, the damage detection module enables a more precise understanding of the durability of each component within building materials, allowing users to gain a deeper understanding of the microscopic performance of these materials. This facilitates more targeted measures in areas such as building maintenance planning, allowing for the selection of configurations that have the least impact on the lifespan of building materials while meeting structural performance requirements. The cost module helps in making comprehensive trade-offs when developing building project budgets and selecting options, while the 3D visualization module helps improve the understanding and communication efficiency of building material performance among all parties.

[0096] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A building material bending calculation system based on big data, comprising a data acquisition module, wherein the data acquisition module is capable of acquiring building material information, characterized in that: It also includes a performance testing module, a temporary modification module, a damage detection module, a repair solution module, and a performance calculation module; The performance testing module extracts building material information, then tests the bending performance of the building materials in daily use, and generates daily bending performance information. The temporary modification module collects environmental information that can cause changes in the bending properties of building materials, generates environmental modification information, and simultaneously calculates the effects of different environmental modification information and analyzes whether different environmental modification information can be used in combination. When different environmental change information can be used in combination, the effect of the combination between different environmental change information will be analyzed, and then a comprehensive configuration scheme will be generated. When different environmental change information cannot be used together, a single configuration scheme will be generated; The damage detection module extracts comprehensive configuration schemes and single configuration schemes, analyzes the damage to building materials after the comprehensive configuration schemes and single configuration schemes, generates damage information, and converts it into service life. The repair plan module extracts damage information, analyzes methods to mitigate the damage, and generates a repair plan. The performance calculation module extracts daily bending performance information and building materials after comprehensive and single configuration schemes, generates temporary building material information, calculates the bending performance of the temporary building material information based on the effects of comprehensive and single configuration schemes, and generates temporary bending performance information.

2. The building material bending calculation system based on big data according to claim 1, characterized in that: It also includes a cost module and a 3D display module; The cost module extracts information on comprehensive configuration schemes, single configuration schemes, and repair schemes, calculates their costs, generates change costs and repair costs, and then displays the change cost information and repair cost information. The 3D display module extracts temporary and daily bending performance information, simulates the bending degree of building materials based on the temporary and daily bending performance information, obtains bending image information, and displays it to the outside world.

3. The building material bending calculation system based on big data according to claim 1, characterized in that: When generating bending performance information, the performance detection module adds a performance level and classifies the daily bending performance information of building materials according to the performance level. Let the daily bending performance information be R. 日常 Let the primary bending threshold be C. 初级 Let the intermediate bending threshold be C. 中级 Let the advanced bending threshold be C. 高级 ; When R 日常 ≤C 初级 At that time, the corresponding daily bending performance information and building material information are set as the primary bending level; When C 初级 <R 日常 ≤C 中级 At that time, the corresponding daily bending performance information and building material information are set to the medium bending level; When C 中级 <R 日常 ≤C 高级 At that time, the corresponding daily bending performance information and building material information are set to the advanced bending level; When R 日常 >C 高级 At that time, the corresponding daily bending performance information and building material information are set to the super bending grade; Based on the above method, building material information can be classified into different levels, then sorted according to the magnitude of daily bending performance, the cost of different building materials can be collected, and bending performance information can be generated according to the ratio of daily bending performance information to cost information. The cost information and bending performance information are then converted into tags and marked on the back end of the building material information.

4. The building material bending calculation system based on big data according to claim 1, characterized in that: The temporary change module collects the bending properties of the same building materials under the same environmental change information, and also collects the bending properties of building materials under normal conditions. It calculates the impact of different environmental change information on the bending properties of building materials, assuming the bending properties of building materials under normal conditions are R. 日常 Let X be the bending performance of the same building material under the same environmental change information. T Let N be the quantity of the same building materials in the same environmental change information, and let W be the bending performance ratio of the environmental change information. 比值 ; The bending performance ratio of environmental change information can be calculated using the above formula. Once the bending performance of a building material under normal conditions is known, the bending performance of that building material under environmental change information can be calculated.

5. The building material bending calculation system based on big data according to claim 4, characterized in that: After generating the comprehensive configuration scheme, the temporary change module will simultaneously collect the effects of different environmental change information and set a coordination threshold. Let the effect of the comprehensive configuration scheme be Z. 综合 Let Z be the effect of different environmental change information that make up the comprehensive configuration scheme. T Let U be the number of different environmental change information in the comprehensive configuration scheme, and P be the configuration effectiveness index. 指数 ; The configuration effect index can be calculated using the above formula. Let the matching threshold be P. 阈值 ; When P 指数 ≥P 阈值 Then, it determines that the corresponding environmental change information can generate a comprehensive configuration scheme, and then converts the corresponding configuration scheme into comprehensive configuration scheme information and records it; When P 指数 <P 阈值 If the system determines that the corresponding environmental change information cannot generate a comprehensive configuration scheme, it will then delete the corresponding configuration method.

6. The building material bending calculation system based on big data according to claim 1, characterized in that: After analyzing the damage to building materials under both comprehensive and single configuration schemes, the damage detection module further analyzes the composition of the building materials to obtain sub-building materials. Then, it analyzes the wear and tear of these sub-building materials during daily use. Let R be the damage information of the sub-building materials during daily use. 损耗 Let the building material information be Z. J Let J be the limit by which building materials can maintain normal use. X Let the service life of the building material be Z. 寿命 ; Z 寿命 =(Z J -J X )R 损耗 The service life of different building materials can be calculated using the above formula.

7. The building material bending calculation system based on big data according to claim 6, characterized in that: After calculating the service life of different sub-building materials, the damage detection module sorts them in ascending order of shortest service life, extracts the shortest service life of the sub-building material, and uses this as the service life of the building material after applying both a comprehensive configuration scheme and a single configuration scheme. The comprehensive configuration scheme and the single configuration scheme are collectively referred to as the configuration scheme. Let R be the service life of the building material under normal conditions. 寿命 Let S be the lifespan damage index of building materials after the configuration scheme. 损伤指数 ; The lifespan damage index of building materials after configuration can be calculated using the above formula.

8. The building material bending calculation system based on big data according to claim 2, characterized in that: After extracting the comprehensive configuration scheme information, single configuration scheme information, and repair scheme information, the cost module will break down the comprehensive configuration scheme information, single configuration scheme information, and repair scheme information into corresponding scheme steps, and then calculate the cost required for different scheme steps, generating a comprehensive step table, a single step table, and a repair step table respectively. The change cost includes the cost required for the comprehensive configuration scheme and the cost required for the single configuration scheme.

9. The building material bending calculation system based on big data according to claim 2, characterized in that: When extracting temporary and daily bending performance information, the 3D display module uses SolidWorks to construct the building materials to obtain an initial model. Then, it imports the initial model into Blender, adjusts the bending angle of the initial model using Blender, and obtains image information through key frame settings.

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