Template turnover path optimization application software design method

Abstract

The invention discloses a template turnover path optimization application software design method. The method comprises the steps of template matching design and JSON (JavaScript Object Notation) data packet analysis; turnover object selection; carrying out turnover calculation, and measuring and calculating a turnover result; and external system output and data output report form. The method has the beneficial effects that the turnover efficiency is improved, batch rapid selection of the turnover path and sequence of the formworks can be achieved through the technology, the manual selection and planning time is remarkably shortened, and therefore the turnover efficiency of the formworks is improved, and in the industries such as building construction, the turnover efficiency of the formworks directly affects the construction progress and cost; application is of great significance to improvement of the overall construction efficiency, automation and intelligence can be achieved through application of the technology, the labor cost is greatly reduced, manual intervention is reduced, errors and delay caused by human factors are reduced, the decision-making accuracy is improved, and through algorithm and data analysis, the decision-making efficiency is improved. And advantages and disadvantages of different turnover paths and sequences can be predicted and evaluated more accurately.

Description

Technical Field

[0001] The present invention relates to the technical field of construction engineering, and in particular to a method for designing application software for optimizing template turnover paths. Background Art

[0002] The formwork turnover path should be aligned with the overall construction deployment and construction schedule to ensure a smooth and efficient construction process. When removing formwork, the principle of supporting first and then removing should be followed, meaning that the first installed formwork should be removed last, and the last installed formwork should be removed first. This contributes to the stability and safety of the structure.

[0003] Arrange the turnover path reasonably according to the type and specifications of the formwork. For high-rise towers, multiple sets of wall column formwork and beam and slab formwork can be used in a turnover from bottom to top.

[0004] In construction projects, formwork is a crucial tool, and the rationality of its circulation path is directly related to construction efficiency, cost control, and project quality. Traditional formwork circulation path management relies primarily on manual experience, which is not only inefficient but also difficult to ensure optimality. With the rapid development of information technology, the use of computer software to intelligently optimize formwork circulation paths has become a trend.

[0005] Currently, many construction sites still rely on manual management of formwork turnover routes. This method is not only cumbersome but also prone to travel, which affects management efficiency. Manual management can also lead to inaccurate formwork usage data and cannot provide a reliable basis for optimizing turnover routes.

[0006] The limited number of turnaround path selection software on the market has limited functionality and fails to meet users' needs for diverse path selection options, limiting their options. Turnaround paths may fail to fully utilize the template's turnover potential, resulting in fewer template turnovers, increased template loss, and increased costs.

[0007] Therefore, it is necessary to propose a template turnover path optimization application software design method to address the above technical problems. Summary of the Invention

[0008] The purpose of the present invention is to provide a template turnover path optimization application software design method, which uses specific algorithms and logic to rationally plan and optimize the template turnover path in construction projects, thereby improving construction efficiency and reducing costs.

[0009] To achieve the above object, the present invention provides the following technical solutions:

[0010] A template turnover path optimization application software design method, the method steps are as follows:

[0011] S1. Template design and JSON data packet parsing;

[0012] S2. Selection of turnover objects;

[0013] S3. Turnover calculation, measuring turnover results;

[0014] S4. External system output, data output report.

[0015] In step S1, the BIMMAKE template is matched, and the Glodon JSON data package is exported to quantify the size, coordinates, orientation and other information of the template used in the project by building, floor, area and model; the project building / floor / area information is displayed in the form of a floor plan.

[0016] The turnover object selection in step S2 includes directly selecting the turnover path, quickly selecting the turnover path and referencing the turnover path.

[0017] Among them, directly selecting the turnover path shows the contact area information of each building, area, and floor template on the project floor plan diagram page; the solution of directly selecting the turnover path requires selecting the original floor area and the target floor area respectively; in the original floor area column, the user uses the mouse to check the area / floor in the plan as the original turnover object, and in the target floor area column, the user uses the mouse to check the area / floor in the plan as the target turnover object; after the turnover object path is selected, the turnover calculation is performed, and the relevant turnover results are output according to the turnover calculation results.

[0018] The steps for quickly selecting a turnover path are as follows:

[0019] S11: Quick path selection function, which enables users to select the turnover floor path on the floor plan in sequence through software, and load the selected paths into the designated area in sequence. When the user confirms the selected content, the event is triggered to save the data of the selected path into the existing path display area.

[0020] S12: Path adjustment function provides path editing tools, allowing users to drag, delete or add new paths to the selected path to meet the changing needs of actual construction;

[0021] S13: Calculation order setting function. In the calculation order setting page, users can adjust the calculation order of each path and save the setting results by dragging or using up and down arrows.

[0022] S14: Project path generation and turnover calculation function, based on the path and calculation sequence set by the user, automatically generates the project turnover path through the algorithm, and displays it on the turnover result page. On the turnover result page, the user can view the specific plan of the template turnover and perform necessary calculations and analysis.

[0023] The reference turnover path selection steps are:

[0024] S21: Establish a turnover path library, create a unique path identifier, and define an independent turnover path library. Each path contains a unique ID and detailed parameters.

[0025] S22: Associate template types with paths, bind path IDs to template types, add fields to template type configurations, and directly reference IDs in the turnover path library instead of repeatedly defining paths.

[0026] S23: Path reference and override mechanism, supports parameter inheritance and override. If a certain type of template requires fine-tuning of path parameters, custom parameters can be extended when referencing the path, with template type parameters being given priority.

[0027] S24: Unified path operation interface, centralized management of path operations, all path modifications are performed through the turnover path library, ensuring that template types that reference the path are automatically updated synchronously.

[0028] Among them, step S3 turnover result is previewed according to different turnover plans of the project to determine whether there are invalid plans. If there are, the optimal turnover plan selection is entered. If not, a new plan is created and recalculated, and the optimal turnover plan selection is entered to obtain the project turnover calculation result.

[0029] The external systems in step S4 include BIMMAKE system, supply chain management system, material management system, business and cost management system, technical management system, safety management system and quality management system.

[0030] The data output reports in step S4 include project reports, formwork drawings, floor turnover plans, floor turnover details, cost analysis reports, new formwork demand reports, wood demand analysis, and material usage analysis.

[0031] Compared with the prior art, the present invention has the following beneficial effects:

[0032] 1. Improve turnover efficiency. This technology can realize batch and rapid selection of template turnover paths and sequences, significantly reducing the time for manual selection and planning, thereby improving the turnover efficiency of templates. In industries such as construction, the turnover efficiency of templates directly affects the construction progress and cost. Its application is of great significance to improving overall construction efficiency.

[0033] 2. Reduce labor costs. Traditional template turnover paths and sequence selection often rely on a lot of manual operation and judgment. The application of this technology can achieve automation and intelligence, greatly reducing labor costs. At the same time, by reducing manual intervention, it also reduces errors and delays caused by human factors.

[0034] 3. Improve decision-making accuracy. Through algorithms and data analysis, this technology can more accurately predict and evaluate the advantages and disadvantages of different turnover paths and sequences, providing decision-makers with a more scientific and reasonable basis. This helps improve the accuracy and timeliness of decisions and ensure the smooth implementation of construction plans. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] Figure 1 It is the overall flow chart of the application software;

[0036] Figure 2 Parsing page for project information;

[0037] Figure 3 View page for project data;

[0038] Figure 4 Set up a page for construction time;

[0039] Figure 5 Set up a page for template usage counts;

[0040] Figure 6 Set up a page for using a one-time template;

[0041] Figure 7 To directly select the turnover path page;

[0042] Figure 8 A page for quickly selecting a turnover path;

[0043] Figure 9 To cite the turnover path page;

[0044] Figure 10 Borrowing pages for the entire board;

[0045] Figure 11 To determine the optimal solution page;

[0046] Figure 12 This is the remaining material details query page;

[0047] Figure 13 Set up a page for turnover rules;

[0048] Figure 14 Turnover results - detailed results page;

[0049] Figure 15 For the turnover results-results comparison page;

[0050] Figure 16 For turnover results - mold matching page;

[0051] Figure 17 Turnover results - Turnover details page;

[0052] Figure 18This is the turnover comprehensive report page;

[0053] Figure 19 Statistics page for new templates;

[0054] Figure 20 Analyzes pages for template usage. DETAILED DESCRIPTION

[0055] It should be noted that, in the absence of conflict, the embodiments of the present invention and the features therein may be combined with each other.

[0056] The embodiments of the present invention are described in detail below with reference to the accompanying drawings. However, the present invention can be implemented in many different ways as defined and covered by the claims.

[0057] like Figure 1 Combined with Figures 2 to 20 As shown, a template turnover path optimization application software design method, the method steps are:

[0058] S1. Template design and JSON data packet parsing;

[0059] S2. Selection of turnover objects;

[0060] S3. Turnover calculation, measuring turnover results;

[0061] S4. External system output, data output report.

[0062] In step S1, the BIMMAKE template is matched, and the Glodon JSON data package is exported to quantify the size, coordinates, orientation and other information of the template used in the project by building, floor, area and model; the project building / floor / area information is displayed in the form of a floor plan.

[0063] The turnover object selection in step S2 includes directly selecting the turnover path, quickly selecting the turnover path and referencing the turnover path.

[0064] Among them, directly selecting the turnover path shows the contact area information of each building, area, and floor template on the project floor plan diagram page; the solution of directly selecting the turnover path requires selecting the original floor area and the target floor area respectively; in the original floor area column, the user uses the mouse to check the area / floor in the plan as the original turnover object, and in the target floor area column, the user uses the mouse to check the area / floor in the plan as the target turnover object; after the turnover object path is selected, the turnover calculation is performed, and the relevant turnover results are output according to the turnover calculation results.

[0065] The steps for quickly selecting a turnover path are as follows:

[0066] S11: Quick path selection function, which enables users to select the turnover floor path on the floor plan in sequence through software, and load the selected paths into the designated area in sequence. When the user confirms the selected content, the event is triggered to save the data of the selected path into the existing path display area.

[0067] S12: Path adjustment function provides path editing tools, allowing users to drag, delete or add new paths to the selected path to meet the changing needs of actual construction;

[0068] S13: Calculation order setting function. In the calculation order setting page, users can adjust the calculation order of each path and save the setting results by dragging or using up and down arrows.

[0069] S14: Project path generation and turnover calculation function, based on the path and calculation sequence set by the user, automatically generates the project turnover path through the algorithm, and displays it on the turnover result page. On the turnover result page, the user can view the specific plan of the template turnover and perform necessary calculations and analysis.

[0070] Unlike direct route selection, Quick Route Selection allows you to select areas / floors in the floor plan in a more convenient way. This allows you to select them in batches, using your mouse. Existing routes are displayed in the order they were selected, and you can adjust them and set the calculation order. This streamlines the user's workflow and allows you to complete large-scale route calculations sequentially according to the set calculation order.

[0071] The reference turnover path selection steps are:

[0072] S21: Establish a turnover path library, create a unique path identifier, and define an independent turnover path library. Each path contains a unique ID and detailed parameters.

[0073] S22: Associate template types with paths, bind path IDs to template types, add fields to template type configurations, and directly reference IDs in the turnover path library instead of repeatedly defining paths.

[0074] S23: Path reference and override mechanism, supports parameter inheritance and override. If a certain type of template requires fine-tuning of path parameters, custom parameters can be extended when referencing the path, with template type parameters being given priority.

[0075] S24: Unified path operation interface, centralized management of path operations, all path modifications are performed through the turnover path library, ensuring that template types that reference the path are automatically updated synchronously.

[0076] If the turnover paths for multiple types of components (beams, slabs, walls, and columns) are identical, you can set the operation to be performed once for all components, completing four comparison operations for the same set of comparison objects. This operation mode greatly reduces user operations.

[0077] The main functions of the template turnover path application software include: project information input module, file data management, turnover path selection, and result output module.

[0078] Among them, step S3 turnover result is previewed according to different turnover plans of the project to determine whether there are invalid plans. If there are, the optimal turnover plan selection is entered. If not, a new plan is created and recalculated, and the optimal turnover plan selection is entered to obtain the project turnover calculation result.

[0079] The external systems in step S4 include BIMMAKE system, supply chain management system, material management system, business and cost management system, technical management system, safety management system and quality management system.

[0080] The data output reports in step S4 include project reports, formwork drawings, floor turnover plans, floor turnover details, cost analysis reports, new formwork demand reports, wood demand analysis, and material usage analysis.

[0081] Compared with the prior art, the present invention has the following beneficial effects:

[0082] 1. Improve turnover efficiency. This technology can realize batch and rapid selection of template turnover paths and sequences, significantly reducing the time for manual selection and planning, thereby improving the turnover efficiency of templates. In industries such as construction, the turnover efficiency of templates directly affects the construction progress and cost. Its application is of great significance to improving overall construction efficiency.

[0083] 2. Reduce labor costs. Traditional template turnover paths and sequence selection often require a lot of manual operation and judgment. The application of this technology can achieve automation and intelligence, greatly reducing labor costs. Since manual intervention is reduced, errors and delays caused by human factors are also reduced.

[0084] 4. Improved decision-making accuracy: Through algorithms and data analysis, this technology can more accurately predict and evaluate the advantages and disadvantages of different turnover paths and sequences, providing decision-makers with a more scientific and reasonable basis. This helps improve the accuracy and timeliness of decisions and ensure the smooth implementation of construction plans.

[0085] Project information analysis: Export project JSON data from the BIMMAKE system. Select the imported JSON format data to upload, and parse the file according to the parsing rules after uploading. The data after parsing can be viewed on the page, such as Figure 2 shown.

[0086] Project data viewing: After the analysis is completed, you can view the detailed information of the project, including the project building, floor, section, model, template structure information, and template coordinates, area, and size details, such as Figure 3 shown.

[0087] Construction time setting: After exporting the project information file, maintain the relevant construction time (template rack activation time, template demoulding completion time) and then import it. When calculating turnover, check whether there is a conflict in the construction time of the turnover object. You can quickly clear the construction time setting by clicking the Clear Setting button. Figure 4 shown.

[0088] Template usage times setting: Set the usage times limit for different types of templates. After setting, the usage times of templates will be considered when performing turnover calculation. Click the [Set] button in the Template usage times column on the turnover calculation main page to pop up the template usage times setting page. Enter the usage times of plate beam column wall type templates on the page. Figure 5 shown.

[0089] Use one-time template settings: Set the width of templates used only once for different types of templates. After the settings are completed, this type of template will not be included in the turnover calculation. On the turnover calculation main page, click the [Set] button in the Width Constraint column of the Use one-time template. The template usage width setting page will pop up. Enter the usage width of the plate beam column wall type template on the page. Figure 6 shown.

[0090] Select the workaround plan version: check the template type (plate / beam / column / wall) and select the plan version (Scheme 1 / Scheme 2 / Scheme 3).

[0091] Directly select the turnover path, such as Figure 7 shown.

[0092] 1. Click the [Add] button in the Original Floor area. A row of data will be added to the Original Floor area column. Then click a floor in the project floor plan on the left. The clicked floor information will be filled in the Original Floor area. If there are multiple Original Floor areas, click the [Add] button to add multiple.

[0093] 2. Click the [Add] button in the target floor area to add a row of data to the target original floor area column. Then click the floor in the project floor plan on the left. The floor information after clicking will be filled in the target floor area.

[0094] 3. After selecting the original floor area and target floor area, click the original floor area information to enter the information into the text box of the original floor / section of the turnover object. Click the target floor area information to enter the information into the text box of the target floor / section of the turnover object.

[0095] 4. Click the [Reselect] button in the turnover object column to clear the selected turnover area and reselect.

[0096] 5. After completing the turnover object settings, click [Save]. The page will load the Turnover Calculation Comparison column. This column includes information about the current template type, turnover area, template contact area and quantity, template information used for turnover, residual template area, newly cut template area, fit rate, and loss rate (excluding residual material). At this point, calculations have not yet been performed. Only the template contact area and quantity fields contain values; all other fields are blank.

[0097] Quickly select a turnover path, such as Figure 8 shown.

[0098] 1. In the project layout on the left, select floors in the order of the turnover path. The selected floors will be displayed in the selected path section. If the path is correct, click [Confirm] to display the data in the existing path display area. To reselect a path, click [Clear].

[0099] 2. The selected path section will display detailed floor / section flow in the existing path display column. You can adjust the path again. After confirming the path, click the [Set Calculation Order] button to enter the calculation order setting page and edit the calculation order.

[0100] 3. After all paths and corresponding calculation sequences are set, click [Generate Project Path] to generate the project turnover path and return to the "Turnover Results" page to perform turnover calculations.

[0101] Reference turnover paths, such as Figure 9 shown.

[0102] 1. If the turnover paths of different types of templates ("plate, beam, wall, and column") are exactly the same, you only need to operate the turnover path once. Other template types can complete the path selection operation by referencing the turnover path.

[0103] 2. After the turnover path reference is completed, the turnover path and calculation sequence content are updated, and the turnover calculation is performed in sequence according to the calculation sequence.

[0104] 3. On the [Turnover Calculation] page, click the [Reference Turnover Path] button to pop up the reference turnover path pop-up page. In the reference turnover path pop-up page, select the original path (the template type (default first) and plan information selected in the current interface are obtained), and select the remaining template types and plans in the target path. For each template type, only one plan can be selected or not. At the same time, there must be no turnover objects in the selected plan.

[0105] 4. After the reference turnover path is set, click the [Save] button to generate the project turnover path and return to the "Turnover Results" page to perform turnover calculations.

[0106] Turnover calculation: After the turnover path is selected, the turnover calculation is automatically performed according to the turnover calculation rules. After the calculation is completed, the calculation results such as the turnover adaptation rate are displayed.

[0107] Secondary turnover calculation: After the turnover calculation is completed, the initial turnover adaptation rate is displayed. Click the [Complete Calculation] button on the turnover calculation pop-up page. The system will push the cutting board without turnover object to the BIMMAKE software for conversion and calculation into the whole board demand, and return it to the turnover software for secondary calculation to improve the turnover adaptation rate.

[0108] Borrow the whole plate: If the adaptation rate of the "beam" template is low during the calculation process, and there are surplus whole plates of the "plate" template on the same layer, click the [Compute Whole Plate] button to borrow the whole plate of the "plate" template to continue the calculation. Figure 10 shown.

[0109] Determine the optimal solution: There are multiple solutions for calculation during the turnover process. The optimal solution is selected based on the calculation results of each version. Click the [Determine the optimal solution] button on the turnover result main page to pop up the optimal solution page, and check the optimal solution for plates, beams, columns and walls respectively. The optimal solution page displays the new cutting area and the number of new templates for each version of the solution for easy comparison and confirmation. After the optimal solution is determined, the optimal mark is added after the version of each template type solution on the turnover calculation main page. Figure 11 shown.

[0110] Residual material details query: During the project template turnover calculation process, the templates that have not been turned over are transferred to the residual material library. After the turnover calculation is completed, you can query the remaining whole boards in the residual material library and other information. Click the [Residual Material Details Query] button on the turnover result main page to pop up the residual material details query page, which contains detailed information such as the building, floor / section, length, width, height, coordinates, and orientation of the residual material library. You can enable / disable the residual material template, such as Figure 12 shown.

[0111] Turnover rule settings: Set the coordinate value difference, cutting ratio, and priority calculation rules for different template types. Click the [Default Turnover Rule Settings] button on the turnover result main page to pop up the default turnover rule settings page, where you can edit, enable / disable, and adjust the priority (up / down) of the calculation rules. Figure 13 shown.

[0112] Turnover results: View the turnover results after the turnover calculation is completed. You can view the turnover results by template type and solution version. The turnover results show the original floor, number of times, sequence, turnover path, adaptation rate, new mold demand and other information for each floor / area. Click [Detailed Results] to view the result comparison, mold matching diagram and turnover details, such as Figure 14 shown.

[0113] Result comparison: The turnover result comparison page contains four parts: Area 1: Comparison of original floor, target floor, and residual material information. Area 2: Detailed turnover calculation results, including overall turnover results, turnover results of different template types, and data summary of each turnover type. Area 3: Comparison of original floor and target floor model information. Area 4: Archive query of turnover calculation rules. Figure 15 shown.

[0114] Formwork diagram: The formwork diagram shows the turnover results of each template on the floor / area in a graphical way. Double-clicking the template will display the detailed template turnover data, such as Figure 16 shown.

[0115] Turnover details: The turnover details page can query the turnover details of each template. According to the original template number, the turnover path of each template can be traced. Figure 17 shown.

[0116] Turnover comprehensive report: supports query statistics by project / building / floor / template type, including template overall contact area, turnover reuse area, new template project quantity, newly purchased whole board quantity, cutting surplus rate, etc.; query results can be exported, such as Figure 18 shown.

[0117] New template statistics: support query statistics by project / building / floor, template overall contact area, new template quantity, and "plate beam wall column" new template quantity; query results can be exported. Figure 19 shown.

[0118] Template usage analysis: supports querying and counting the number of templates of different sizes and usage times by project / template type; query results can be exported, such as Figure 20 shown.

[0119] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "provided with", "connected", etc. should be understood in a broad sense. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, or it can be a connection between the internal parts of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0120] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A method for designing template turnover path optimization application software, characterized by: The method steps are: S1. Template design and JSON data packet parsing; S2. Selection of turnover objects; S3. Turnover calculation, measuring turnover results; S4. External system output, data output report.

2. The method for designing template turnover path optimization application software according to claim 1, characterized in that: In step S1, the BIMMAKE template is matched, and the Glodon JSON data package is exported to quantify the size, coordinates, and orientation information of the template used in the project by building, floor, area, and model; and the project building / floor / area information is displayed in the form of a floor plan.

3. The method for designing template turnover path optimization application software according to claim 1, wherein: The turnover object selection in step S2 includes directly selecting the turnover path, quickly selecting the turnover path and referencing the turnover path.

4. The method for designing template turnover path optimization application software according to claim 3, wherein: Among them, directly selecting the turnover path shows the contact area information of each building, area, and floor template on the project floor plan diagram page; the solution of directly selecting the turnover path requires selecting the original floor area and the target floor area respectively; in the original floor area column, the user uses the mouse to check the area / floor in the plan as the original turnover object, and in the target floor area column, the user uses the mouse to check the area / floor in the plan as the target turnover object; after the turnover object path is selected, the turnover calculation is performed, and the relevant turnover results are output according to the turnover calculation results.

5. The method for designing template turnover path optimization application software according to claim 3, characterized in that: The steps for quickly selecting a turnover path are as follows: S11: Quick path selection function, which enables the user to select the turnover floor path on the floor plan in sequence through the software, and load the selected path into the designated area in order. When the user confirms the selected content, the trigger event saves the selected path data into the existing path display area; S12: Path adjustment function provides path editing tools, allowing users to drag, delete or add new paths to the selected path to meet the changing needs of actual construction; S13: Calculation order setting function. In the calculation order setting page, users can adjust the calculation order of each path and save the setting results by dragging or using up and down arrows. S14: Project path generation and turnover calculation function, based on the path and calculation sequence set by the user, automatically generates the project turnover path through the algorithm, and displays it on the turnover result page. On the turnover result page, the user can view the specific plan of the template turnover and perform necessary calculations and analysis.

6. The method for designing template turnover path optimization application software according to claim 3, characterized in that: The reference turnover path selection steps are: S21: Establish a turnover path library, create a unique path identifier, and define an independent turnover path library. Each path contains a unique ID and detailed parameters. S22: Associate template types with paths, bind path IDs to template types, add fields to template type configurations, and directly reference IDs in the turnover path library instead of repeatedly defining paths. S23: Path reference and override mechanism, supports parameter inheritance and override. If a certain type of template requires fine-tuning of path parameters, custom parameters can be extended when referencing the path, with template type parameters being given priority. S24: Unified path operation interface, centralized management of path operations, all path modifications are performed through the turnover path library, ensuring that template types that reference the path are automatically updated synchronously.

7. The method for designing template turnover path optimization application software according to claim 1, wherein: Among them, step S3 turnover result is previewed according to different turnover plans of the project to determine whether there are invalid plans. If there are, the optimal turnover plan selection is entered. If not, a new plan is created and recalculated, and the optimal turnover plan selection is entered to obtain the project turnover calculation result.

8. The method for designing template turnover path optimization application software according to claim 1, wherein: The external systems in step S4 include BIMMAKE system, supply chain management system, material management system, business and cost management system, technical management system, safety management system and quality management system.

9. The method for designing template turnover path optimization application software according to claim 1, wherein: The data output reports in step S4 include project reports, formwork drawings, floor turnover plans, floor turnover details, cost analysis reports, new formwork demand reports, wood demand analysis, and material usage analysis.

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