Building material bending calculation system based on big data

Abstract

The invention discloses a building material bending calculation system based on big data, and relates to the technical field of buildings, the building material bending calculation system 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 system has the advantages that the effects of different environment change information can be calculated at the same time and the cooperative use possibility can be analyzed through the temporary change module, the configuration scheme is generated, the configuration of the building material can be flexibly adjusted according to the actual environment condition, and the purpose of optimizing the bending performance of the building material to adapt to the environment is achieved; the damage detection module can accurately estimate the use duration of the building material under a specific configuration scheme, the material replacement or maintenance time can be planned in advance, potential safety hazards of the building structure are avoided, and the repair scheme module is beneficial to prolonging the service life of the building material and reducing the building maintenance cost.

Description

Technical Field

[0001] The present invention relates to the field of building technology, and in particular to a building material bending calculation system based on big data. Background Art

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

[0003] The common building material bending calculation system cannot fully cover all possible environmental scenarios when used. When calculating the bending performance of building materials, it is not comprehensive enough and cannot provide guidance for the repair work of building materials after damage. Therefore, we propose a building material bending calculation system based on big data. Summary of the invention

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

[0005] In order to solve the problems raised in the above background technology, the present invention provides the following technical solutions: a building material bending calculation system based on big data, comprising a data acquisition module, the data acquisition module can collect building material information, and also comprises a performance detection module, a temporary change module, a damage detection module, a repair solution module and a performance calculation module;

[0006] The performance detection module extracts the building material information, then detects the bending performance of the building material in daily use, and generates daily bending performance information;

[0007] The temporary change module collects environmental information that can change the bending properties of building materials, generates environmental change information, and simultaneously calculates the effects of different environmental change information, and analyzes whether different environmental change information can be used in conjunction with each other;

[0008] When different environmental change information can be used together, the effects of the coordination between the different environmental change information will be analyzed, and then a comprehensive configuration plan will be generated;

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

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

[0011] The repair scheme module extracts damage information, analyzes methods to mitigate damage information, and generates repair schemes;

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

[0013] As a further solution of the present invention: it also includes a cost module and a three-dimensional display module;

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

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

[0016] As a further solution of the present invention: when the performance detection module generates the bending performance information, it will add the performance level, and divide the daily bending performance information of the building material information 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 When 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 When the corresponding daily bending performance information and building material information are set as the intermediate bending level;

[0019] When C 中级 <R 日常 ≤C 高级 When the corresponding daily bending performance information and building material information are set as advanced bending levels;

[0020] When R 日常 >C 高级 When the corresponding daily bending performance information and building material information are set as the special bending grade;

[0021] According to the above method, the building material information can be graded, and then sorted according to the size of daily bending performance, the cost of different building material information can be collected, and then the bending effectiveness information is generated according to the ratio of daily bending performance information to cost information, and the cost information and bending effectiveness information are converted into labels and marked on the back end of the building material information.

[0022] As a further solution of the present invention: the temporary change module collects the bending properties of the same building materials in the same environmental change information, and collects the bending properties of building materials under daily conditions, calculates the influence of different environmental change information on the bending properties of building materials, and assumes that the bending properties of building materials under daily conditions are R 日常 , assuming that the bending performance of the same building material in the same environmental change information is X T , let the number of the same building materials in the same environmental change information be N, let the bending performance ratio of the environmental change information be W 比值 ;

[0023]

[0024] The bending performance ratio of the environmental change information can be calculated according to the above formula. When the bending performance of the building materials under daily conditions is known, the bending performance of the building materials in the environmental change information can be calculated.

[0025] As a further solution of the present invention: after generating the comprehensive configuration scheme, the temporary change module will synchronously collect the effects of different environment change information and set the matching threshold. The effect of the comprehensive configuration scheme is Z 综合 , let the effect of different environmental change information that constitutes the comprehensive configuration plan be Z T , let the number of different environment change information in the comprehensive configuration plan be U, let the configuration effect index be P 指数 ;

[0026]

[0027] According to the above formula, the configuration effect index can be calculated. Let the matching threshold be P 阈值 ;

[0028] When P 指数 ≥P 阈值, it is determined that the corresponding different environment change information can generate a comprehensive configuration plan, and then the corresponding configuration plan is converted into comprehensive configuration plan information and recorded;

[0029] When P 指数 <P 阈值 When the corresponding different environment change information is determined to be unable to generate a comprehensive configuration plan, the corresponding configuration method is deleted.

[0030] As a further solution of the present invention: after analyzing the damage of the building materials under the comprehensive configuration scheme and the single configuration scheme, the damage detection module further analyzes the composition of the building materials to obtain sub-building materials, and then analyzes the loss of the sub-building materials in daily use. The damage information of the sub-building materials in daily use is set as R 损耗 , let the sub-building material information be Z J , assuming that the limit of normal use of building materials is J X , assuming the service life of the building material is Z 寿命 ;

[0031] Z 寿命 =(Z J -J X )R 损耗

[0032] According to the above formula, the service life of different sub-building materials can be calculated.

[0033] As a further solution of the present invention: after calculating the service life of different sub-building materials, the damage detection module will sort them in order from short to long, extract the service life of the shortest sub-building material, and use it as the service life of the building material after the comprehensive configuration scheme and the single configuration scheme, and the comprehensive configuration scheme and the single configuration scheme are collectively referred to as the configuration scheme. Suppose the service life of the building material under daily conditions is R 寿命 , let the life damage index of building materials after configuration be S 损伤指数 ;

[0034]

[0035] According to the above formula, the life damage index of building materials after configuration can be calculated.

[0036] As a further solution of the present invention: after the cost module is able to extract the comprehensive configuration plan information, the single configuration plan information and the repair plan information, it will decompose the comprehensive configuration plan information, the single configuration plan information and the repair plan information into corresponding plan steps, and then calculate the costs required for different plan 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 plan and the cost required for the single configuration plan.

[0037] As a further solution of the present invention: when extracting temporary bending performance information and daily bending performance information, the three-dimensional display module will use SolidWorks to construct the building materials to obtain an initial model, and then import the initial model into Blender, use Blender to adjust the bending angle of the initial model, and obtain image information through the setting of key frames.

[0038] By adopting the above technical solution, compared with the prior art, the beneficial effects of the present invention are:

[0039] 1. The present invention can simultaneously calculate the effects of different environmental change information and analyze the possibility of their coordinated use through the temporary change module, generate a configuration plan, and flexibly adjust the configuration of building materials according to the actual environmental conditions to achieve the purpose of optimizing the bending performance of building materials to adapt to the environment. The damage detection module can accurately estimate the use time of building materials under a specific configuration plan, which is convenient for planning material replacement or maintenance time in advance, avoiding safety hazards of building structures caused by excessive damage to materials. The repair plan module can provide scientific and targeted guidance for the repair work of building materials after damage, which helps to extend the service life of building materials 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 detection module, which is convenient for screening and comparison among a large number of building materials. The temporary change module can accurately quantify the influence of different environmental change information on the bending performance of building materials, avoiding the blind combination of environmental change information that fails to achieve the expected purpose of improving the bending performance of building materials, and ensuring the stability and safety of building structures under complex environmental conditions;

[0041] 3. The present invention can more accurately grasp the durability of each component inside the building materials through the damage detection module, so that users can have a deep understanding of the microscopic performance of building materials, which is helpful to take more targeted measures in the formulation of building maintenance plans, etc., and on the premise of meeting the performance requirements of the building structure, choose the configuration plan that has less impact on the life of the building materials as much as possible. The use of the cost module is helpful to make a comprehensive trade-off when formulating the construction project budget and selecting the plan. The use of the three-dimensional display module is helpful to improve the understanding of the performance of building materials and the communication efficiency of all parties. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] Figure 1 Schematic diagram of the system flow in an embodiment of the present invention. DETAILED DESCRIPTION

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

[0044] In addition, 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] Embodiment 1:

[0046] Therefore, in order to effectively solve the above problems, the present application proposes a building material bending calculation system based on big data, as shown in the accompanying drawings of the specification. Figure 1 As shown, it includes a data acquisition module, which can collect building material information, and also includes a performance detection module, a temporary change module, a damage detection module, a repair solution module and a performance calculation module;

[0047] The performance detection module extracts the building material information, then detects the bending performance of the building material in daily use, and generates daily bending performance information;

[0048] The temporary change module collects environmental information that can change the bending properties of building materials, generates environmental change information, and simultaneously calculates the effects of different environmental change information, and analyzes whether different environmental change information can be used in conjunction with each other;

[0049] When different environmental change information can be used together, the effects of the coordination between the different environmental change information will be analyzed, and then a comprehensive configuration plan will be generated;

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

[0051] In-depth analysis of the complex interactions between environmental factors shows that high temperature and high humidity environments may have a synergistic effect on the bending properties of certain building materials, and this synergistic effect may be different from the effects of high temperature or high humidity alone. Considering the dynamic characteristics of environmental factors, for some environmental factors with obvious seasonal changes, corresponding configuration plans should be formulated according to the typical environmental conditions of different seasons to ensure that building materials can maintain good bending properties under the optimal environmental configuration in different seasons;

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

[0053] Use advanced microscope technology and non-destructive testing technology to observe the internal structure of the material in detail, and detect whether the material has microscopic damage such as crystal structure deformation, generation and expansion of microscopic cracks at the microscopic level;

[0054] Describe the changing patterns of material damage over time, environmental factors, stress conditions and other variables. By continuously updating and improving this model, it is possible to more accurately predict the damage development trend of materials under different conditions in the future, providing a more targeted basis for the repair solution module.

[0055] The repair scheme module extracts damage information, analyzes methods to mitigate damage information, and generates repair schemes;

[0056] Considering the different degrees of damage and use environments, the repair plan should also be different. For building materials with minor damage and in indoor environments, simple surface repair methods may be sufficient, while for building materials with serious damage and in harsh outdoor environments, more complex structural reinforcement and protection measures may be required.

[0057] The performance calculation module extracts the daily bending performance information and the building materials after the comprehensive configuration scheme and the single configuration scheme, generates temporary building material information, calculates the bending performance of the temporary building material information according to the effects of the comprehensive configuration scheme and the single configuration scheme, and generates temporary bending performance information;

[0058] It also includes a cost module and a three-dimensional display module;

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

[0060] A three-dimensional display module extracts temporary bending performance information and daily bending performance information, simulates the bending degree of building materials based on the temporary bending performance information and daily bending performance information, obtains bending image information, and displays it to the outside world;

[0061] Specific workflow: collect building material information, detect the bending performance of building materials in daily use, generate daily bending performance information, collect environmental information that can change 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 conjunction with each other, generate comprehensive configuration plans and single configuration plans, analyze the damage to building materials after the comprehensive configuration plan and the single configuration plan, generate damage information, analyze methods to alleviate damage information, generate repair plans, calculate the bending performance of temporary building material information, generate temporary bending performance information, extract comprehensive configuration plans, single configuration plans and repair plan information, and calculate their costs, generate change costs and repair costs, extract temporary bending performance information and daily bending performance information, and simulate the bending degree of building materials based on the temporary bending performance information 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 change information and analyze the possibility of their coordinated use, generate a configuration plan, and flexibly adjust the configuration of building materials according to actual environmental conditions to achieve the purpose of optimizing the bending performance of building materials to adapt to the environment. The damage detection module can accurately estimate the use time of building materials under a specific configuration plan, which is convenient for planning material replacement or maintenance time in advance and avoiding safety hazards of building structures due to excessive damage to materials. The repair plan module can provide scientific and targeted guidance for the repair work of building materials after damage, which helps to extend the service life of building materials and reduce building maintenance costs.

[0063] Embodiment 2:

[0064] Based on the first embodiment, as shown in the accompanying drawings of the specification Figure 1 As shown, when the performance detection module generates the bending performance information, it will add the performance level, and divide the daily bending performance information of the building material information 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When 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 When the corresponding daily bending performance information and building material information are set as the intermediate bending level;

[0067] When C 中级 <R 日常 ≤C 高级 When the corresponding daily bending performance information and building material information are set as advanced bending levels;

[0068] When R 日常 >C 高级 When the corresponding daily bending performance information and building material information are set as the special bending grade;

[0069] According to the above method, the building material information can be graded, and then the building material information can be sorted according to the size of the daily bending performance, the cost of different building material information can be collected, and then the bending effect information can be generated according to the ratio of the daily bending performance information to the cost information, and the cost information and the bending effect information can be converted into labels and marked on the back end of the building material information;

[0070] For different types of building materials, exclusive bending threshold systems are set according to their respective material properties and common application scenarios. For steel, due to its high strength and toughness, the bending value range corresponding to each grade can be appropriately increased when setting the threshold. For wood, considering the variability of its natural material, a relatively more flexible threshold range can be set, and the grade division can be further refined in combination with factors such as the moisture content and texture direction of the wood;

[0071] Combined with factors such as durability, processability, and environmental protection of building materials, corresponding weights are set for each factor, and a comprehensive performance index is obtained through weighted calculation. Then, the building material information is sorted more comprehensively based on the comprehensive performance index.

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

[0073]

[0074] According to the above formula, the bending performance ratio of the environmental change information can be calculated. When the bending performance of the building material under daily conditions is known, the bending performance of the building material in the environmental change information can be calculated.

[0075] After generating the comprehensive configuration plan, the temporary change module will simultaneously collect the effects of different environment change information and set the matching threshold. The effect of the comprehensive configuration plan is Z. 综合 , let the effect of different environmental change information that constitutes the comprehensive configuration plan be Z T , let the number of different environment change information in the comprehensive configuration plan be U, let the configuration effect index be P 指数 ;

[0076]

[0077] According to the above formula, the configuration effect index can be calculated. Let the matching threshold be P 阈值 ;

[0078] When P 指数 ≥P 阈值 , it is determined that the corresponding different environment change information can generate a comprehensive configuration plan, and then the corresponding configuration plan is converted into comprehensive configuration plan information and recorded;

[0079] When P 指数 <P 阈值 When the corresponding different environment change information is determined to be unable to generate a comprehensive configuration solution, the corresponding configuration method is deleted;

[0080] According to the detailed analysis of the effects of different environmental change information, it is found that although some environmental change information meets the matching threshold conditions, the comprehensive configuration scheme is optimized by adjusting the combination mode of environmental change information and changing the effect intensity of environmental change information, ensuring that while improving the bending performance of building materials, it will not have a negative impact on other important performance indicators;

[0081] Specific workflow: Establish performance levels, divide the daily bending performance information of building materials according to the performance levels, sort the building materials information according to the size of daily bending performance, collect the cost of different building materials information, and then generate bending effectiveness information according to the ratio of daily bending performance information to cost information, convert cost information and bending effectiveness information into labels and mark them on the back end of building materials information, collect the bending performance of building materials under daily conditions, calculate the impact of different environmental change information on the bending performance of building materials, collect the effects of different environmental change information, and set the matching threshold at the same time. When P 指数 ≥P 阈值, it is determined that the corresponding different environmental change information can generate a comprehensive configuration plan, and then the corresponding configuration plan is converted into comprehensive configuration plan information and recorded. 指数 <P 阈值 When the corresponding different environment change information is determined to be unable to generate a comprehensive configuration solution, the corresponding configuration method is deleted;

[0082] Furthermore, the performance detection module enables users to quickly and intuitively understand the bending performance of various building materials in daily use, which facilitates screening and comparison among 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 fails to achieve the expected purpose of improving the bending performance of building materials, and ensuring the stability and safety of building structures under complex environmental conditions.

[0083] Embodiment three:

[0084] Based on the second embodiment, as shown in the accompanying drawings of the specification Figure 1 As shown in the figure, after analyzing the damage of building materials under the comprehensive configuration scheme and the single configuration scheme, the damage detection module will further analyze the composition of the building materials to obtain sub-building materials, and then analyze the loss of the sub-building materials in daily use. Let the damage information of the sub-building materials in daily use be R 损耗 , let the sub-building material information be Z J , assuming that the limit of normal use of building materials is J X , assuming the service life of the building material is Z 寿命 ;

[0085] Z 寿命 =(Z J -J X )R 损耗

[0086] According to the above formula, the service life of different sub-building materials can be calculated;

[0087] After calculating the service life of different sub-building materials, the damage detection module will sort them from short to long, extract the shortest sub-building material service life, and use it as the service life of the building material after 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. Suppose the service life of the building material under daily conditions is R 寿命 , let the life damage index of building materials after configuration be S 损伤指数 ;

[0088]

[0089] According to the above formula, the life damage index of building materials after configuration can be calculated;

[0090] As the actual performance of building materials in subsequent use and new data collection, it may be found that the originally calculated life damage index deviates from the actual situation. If it is found in subsequent monitoring that the loss rate of building materials is faster than expected, it may be due to the influence of new external factors. At this time, the module should be able to re-evaluate and adjust the life damage index in time to more accurately reflect the actual status of building materials;

[0091] After the cost module is able to extract 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 costs required for different scheme steps, and generate a comprehensive step table, a single step table and a repair step table respectively, where the change cost includes the cost required for the comprehensive configuration scheme and the cost required for the single configuration scheme;

[0092] With market price fluctuations, project schedule adjustments and changes in the external environment, the costs of different solution steps will also change. Obtain relevant information in a timely manner, recalculate the cost of each solution step based on the new situation, 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 bending performance information and daily bending performance information, the 3D display module will use SolidWorks to construct the building materials to obtain the 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 key frame settings;

[0094] Specific workflow: Analyze the composition of building materials, obtain sub-building materials, and then analyze the loss of sub-building materials in daily use, calculate the service life of different sub-building materials, sort them from short to long, extract the shortest sub-building material service life, and use it as the service life of building materials after comprehensive configuration schemes and single configuration schemes, calculate the life damage index of building materials after configuration schemes, decompose 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, generate a comprehensive step table, a single step table and a repair step table, use SolidWorks to construct the building materials, obtain the initial model, and then import the initial model into Blender, use Blender to adjust the bending angle of the initial model, and obtain image information through key frame settings;

[0095] Furthermore, the damage detection module can more accurately grasp the durability of each component within the building materials, allowing users to gain an in-depth understanding of the microscopic performance of building materials, which helps to take more targeted measures in the formulation of building maintenance plans, etc., and choose configuration plans that have less impact on the life of building materials as much as possible while meeting the performance requirements of the building structure. The cost module helps to make comprehensive considerations when formulating construction project budgets and selecting plans, and the three-dimensional display module helps to improve the understanding of building material performance and communication efficiency among all parties.

[0096] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached 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 can collect building material information, and is characterized in that: It also includes a performance detection module, a temporary change module, a damage detection module, a repair solution module, and a performance calculation module; The performance detection module extracts the building material information, then detects the bending performance of the building material in daily use, and generates daily bending performance information; The temporary change module collects environmental information that can change the bending properties of building materials, generates environmental change information, and simultaneously calculates the effects of different environmental change information, and analyzes whether different environmental change information can be used in conjunction with each other; When different environmental change information can be used together, the effects of the coordination between the different environmental change information will be analyzed, and then a comprehensive configuration plan will be generated; When different environment change information cannot be used together, a single configuration solution will be generated; The damage detection module extracts the comprehensive configuration scheme and the single configuration scheme, analyzes the damage of the building materials after the comprehensive configuration scheme and the single configuration scheme, generates damage information, and converts it into service life; The repair scheme module extracts damage information, analyzes methods to mitigate damage information, and generates repair schemes; The performance calculation module extracts daily bending performance information and building materials after comprehensive configuration schemes and single configuration schemes, generates temporary building material information, calculates the bending performance of temporary building material information according to the effects of the comprehensive configuration scheme and the single configuration scheme, and generates temporary bending performance information.

2. The building material bending calculation system based on big data according to claim 1 is characterized by: It also includes a cost module and a three-dimensional display module; The cost module extracts the comprehensive configuration plan, the single configuration plan and the repair plan information, calculates the cost, generates the change cost and the repair cost, and then displays the change cost information and the repair cost information; The three-dimensional display module extracts temporary bending performance information and daily bending performance information, simulates the bending degree of building materials based on the temporary bending performance information 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 is characterized by: When the performance detection module generates the bending performance information, it will add the performance level, and divide the daily bending performance information of the building material information 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 When 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 When the corresponding daily bending performance information and building material information are set to the intermediate bending level; When C 中级 <R 日常 ≤C 高级 When the corresponding daily bending performance information and building material information are set as advanced bending levels; When R 日常 >C 高级 When the corresponding daily bending performance information and building material information are set as the special bending grade; According to the above method, the building material information can be graded, and then sorted according to the size of daily bending performance, the cost of different building material information can be collected, and then the bending effectiveness information is generated according to the ratio of daily bending performance information to cost information, and the cost information and bending effectiveness information are converted into labels 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 is characterized by: The temporary change module collects the bending properties of the same building materials in the same environmental change information, and collects the bending properties of building materials under daily conditions, calculates the impact of different environmental change information on the bending properties of building materials, and assumes that the bending properties of building materials under daily conditions are R 日常 , assuming that the bending performance of the same building material in the same environmental change information is X T , let the number of the same building materials in the same environmental change information be N, let the bending performance ratio of the environmental change information be W 比值 ; The bending performance ratio of the environmental change information can be calculated according to the above formula. When the bending performance of the building materials under daily conditions is known, the bending performance of the building materials in the environmental change information can be calculated.

5. The building material bending calculation system based on big data according to claim 4 is characterized by: After generating the comprehensive configuration plan, the temporary change module will simultaneously collect the effects of different environment change information and set the matching threshold. The effect of the comprehensive configuration plan is Z 综合 , let the effect of different environmental change information that constitutes the comprehensive configuration plan be Z T , let the number of different environment change information in the comprehensive configuration plan be U, let the configuration effect index be P 指数 ; According to the above formula, the configuration effect index can be calculated. Let the matching threshold be P 阈值 ; When P 指数 ≥P 阈值 , it is determined that the corresponding different environment change information can generate a comprehensive configuration plan, and then the corresponding configuration plan is converted into comprehensive configuration plan information and recorded; When P 指数 <P 阈值 When the corresponding different environment change information is determined to be unable to generate a comprehensive configuration plan, the corresponding configuration method is deleted.

6. The building material bending calculation system based on big data according to claim 1 is characterized by: After analyzing the damage of building materials under the comprehensive configuration scheme and the single configuration scheme, the damage detection module will further analyze the composition of the building materials to obtain sub-building materials, and then analyze the loss of the sub-building materials in daily use. The damage information of the sub-building materials in daily use is set as R 损耗 , let the sub-building material information be Z J , assuming that the limit of normal use of building materials is J X , assuming the service life of the building material is Z 寿命 ; Z 寿命 =(Z J -J X )R 损耗 According to the above formula, the service life of different sub-building materials can be calculated.

7. The building material bending calculation system based on big data according to claim 6 is characterized by: After calculating the service life of different sub-building materials, the damage detection module will sort them from short to long, extract the shortest service life of the sub-building material, and use it as the service life of the building material after 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. Suppose the service life of the building material under daily conditions is R 寿命 , let the life damage index of building materials after configuration be S 损伤指数 ; According to the above formula, the life damage index of building materials after configuration can be calculated.

8. The building material bending calculation system based on big data according to claim 2 is characterized by: After the cost module is able to extract the comprehensive configuration plan information, the single configuration plan information and the repair plan information, it will decompose the comprehensive configuration plan information, the single configuration plan information and the repair plan information into corresponding plan steps, and then calculate the costs required for different plan 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 plan and the cost required for the single configuration plan.

9. The building material bending calculation system based on big data according to claim 2 is characterized by: When extracting temporary bending performance information and daily bending performance information, the three-dimensional display module uses SolidWorks to construct building materials to obtain an initial model, and 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.

Images