Design method and system of power construction platform

Abstract

The main purpose of the present application is to provide a design method and system of a power construction platform, wherein the design method comprises the following steps: modeling workpieces according to workpiece design drawings to obtain different types of standard workpieces, configuring workpiece modules for the standard workpieces according to the specification data of the standard workpieces, and thus obtaining a standard workpiece library; obtaining a power construction platform drawing, and dividing the power construction platform into several construction processes according to the power construction platform drawing; sequentially obtaining the construction processes, calling the standard workpiece library according to the basic parameters of the process templates in the construction processes to perform adaptive combination of the mother templates, and obtaining multiple combination results; detecting the workpiece modules of the multiple combination results according to the combination paths respectively, and sequentially outputting the data sets of the workpiece modules according to the combination paths; and detecting the data sets of the workpiece modules according to the optimal path to obtain the combination result under the optimal path.

Description

Technical Field

[0001] This invention relates to the field of power construction platform technology, and particularly to a design method and system for a power construction platform. Background Technology

[0002] Traditional power construction mainly relies on manual construction platforms. There are no corresponding standards for construction specifications, and the platforms are basically built directly according to the construction drawings and experience. The construction process depends entirely on manual handling, which leads to different sizes of templates for different construction platforms. Furthermore, it is impossible to handle the positioning and support between different processes during the construction process. At the same time, the manual efficiency is low.

[0003] After the formwork was erected, due to the use of traditional templates with inconsistent sizes and specifications, the finished power platform experienced various problems, including unevenness and inconsistent elevations between different processes. Summary of the Invention

[0004] In view of this, the purpose of the present invention is to provide a design method and system for a power construction platform, in particular, by constructing standard template components, standardizing construction procedures and splicing procedures in the template splicing process, so as to standardize the entire power platform components and construction specifications.

[0005] The main objective of this application is to provide a design method for a power construction platform, comprising the following steps:

[0006] Model the workpiece according to the workpiece design drawings to obtain different types of standard workpieces. Configure the workpiece modulus for the standard workpieces according to the specification data of the standard workpieces, thereby obtaining a standard workpiece library.

[0007] Obtain the drawings of the power construction platform and divide the power construction platform into several construction procedures based on the drawings;

[0008] The construction process of each construction procedure is obtained sequentially. Based on the basic parameters of the process template in the construction process, the standard workpiece library is called to adaptively combine the master templates to obtain multiple combination results.

[0009] For multiple combined results, the workpiece modulus is detected according to the combined path, and the workpiece modulus dataset is output sequentially according to the combined path.

[0010] Optimal path detection is performed on the dataset of workpiece modulus to obtain the combined results under the optimal path.

[0011] Furthermore, when modeling the workpiece according to the workpiece design drawings, the following steps are included:

[0012] According to the design drawings, the workpiece is set as the master template. The parameter configuration of the master template is called and the parameters are configured as follows: based on the function classifier of the workpiece, the configuration parameter values ​​and global variables are set as partial restrictions in the parameter editor. The parameter editor is associated with the control module. Under the control of the control module, when the master template is called according to the set rules, the master template is formed into the corresponding specifications.

[0013] Furthermore, the master template is classified according to the use or construction function of the workpiece, and a functional classification symbol is formed on the workpiece.

[0014] Furthermore, methods for associating the parameter editor with the management module include:

[0015] Synchronize the configuration parameter values ​​and global variables in the parameter editor according to the function classifier, execute the target storage of the configuration parameter values ​​and global variables and the parent template on which they are applied, execute the constraint configuration of the configuration parameter values ​​and global variables with partial restrictions, and write control logic rules during the constraint configuration process. The control logic rules are to form the parent template into a corresponding specification with a limited form when the parent template is called according to the set rules by executing the constraint configuration.

[0016] Furthermore, the functional classifier is constructed according to the following method:

[0017] Obtain the master template, define classification parameters based on the parameter configuration and usage functions of the master template, and form functional classifiers through the classification parameters. The classification parameters include at least a function description section, a parameter configuration section, and an association symbol section.

[0018] Furthermore, the constrained configuration includes:

[0019] Get the storage directory of the target storage;

[0020] Establish a call path based on the storage directory, and set the call rules for the call path;

[0021] Utilize DSL to declare parameter constraints and construct logical control rules for coded execution;

[0022] Write the logic control rules into the master template form constraint unit set in the management module.

[0023] Furthermore, the adaptive combination of the process templates includes:

[0024] Obtain the basic parameters of the process template in the construction process to obtain the process template structure;

[0025] The corresponding function classifier is called according to the structure of the process template to retrieve the parent template, and the control module is called according to the basic parameters of the process template to form several standard part templates with corresponding rules from the parent template; multiple combination results of the process template are obtained by arbitrarily combining several standard part templates.

[0026] Furthermore, when arbitrarily combining standard parts templates, the following applies:

[0027] Obtain the static parameters of several standard part templates;

[0028] Obtain the splicing structure of the process template, identify the splicing structure and divide the splicing structure into several splicing segments, as well as the structural parameter values ​​of each splicing segment, and establish a splicing path based on each splicing segment;

[0029] The interval matching or interpolation calculation is performed according to the splicing path and structural parameter values. During this process, the conflict handling of the interval matching or interpolation calculation is adjusted by the rule engine to adjust the standard part templates of different specifications.

[0030] Among them, multiple splicing paths form a closed loop combined path according to the splicing structure.

[0031] Furthermore, the workpiece modulus detection is performed on multiple combined results according to the combined path, including:

[0032] Set the workpiece modulus according to the actual specifications and parameters of the several standard parts templates formed;

[0033] The standard part templates are connected according to the combination path to determine the order and position of the standard part templates. At the same time, the standard part templates are assigned values ​​according to the workpiece modulus to form a dataset.

[0034] Furthermore, optimal path detection on the workpiece modulus dataset includes:

[0035] Obtain the dataset of workpiece modulus output under the combined path;

[0036] Perform minimum-scale detection on the dataset, perform support verification on at least one candidate result obtained from the minimum-scale detection, and obtain the dataset under the optimal path through support verification.

[0037] Furthermore, the supporting verification refers to: verifying the supporting performance based on several calibration points set on the process template.

[0038] Furthermore, the calibration point is a connection point of the connecting template set on the process template for positioning, supporting, and calibrating the elevation position with other process templates.

[0039] This invention also provides a design system for a power construction platform, comprising:

[0040] The standard workpiece library construction module is used to model workpieces according to workpiece design drawings to obtain different types of standard workpieces, configure workpiece modulus for the standard workpieces according to the specification data of the standard workpieces, and thus obtain the standard workpiece library.

[0041] The construction process delineation module is used to obtain the drawings of the power construction platform and divide the power construction platform into several construction processes based on the drawings.

[0042] The combination module is used to sequentially obtain the construction process of the construction procedure, and call the standard workpiece library to adaptively combine the master template according to the basic parameters of the process template in the construction process, so as to obtain multiple combination results.

[0043] The dataset generation module is used to perform workpiece modulus detection on multiple combined results according to the combined path, and output the workpiece modulus dataset in sequence according to the combined path;

[0044] The optimal result output module is used to perform optimal path detection on the workpiece modulus dataset and obtain the combined result under the optimal path.

[0045] Furthermore, the standard workpiece library construction module includes:

[0046] The master template building unit is used to set the workpiece as a master template according to the design drawings;

[0047] The parameter configuration unit is used to set partial restrictions on the configuration parameter values ​​and global variables of the master template in the parameter editor based on the function classifier of the workpiece.

[0048] The synchronization unit is used to associate the parameter editor with the management module. Under the control of the management module, when the master template is called according to the set rules, the master template is formed into the corresponding specification.

[0049] Furthermore, the control module includes:

[0050] The storage unit is used to store the configuration parameter values ​​and global variables of the synchronized parameter editor.

[0051] The constrained configuration unit is used to perform constrained configuration by setting configuration parameter values ​​and global variables to partial restrictions, and to write control logic rules during the constrained configuration process;

[0052] Among them, the control logic rule is to form the corresponding specification of the limited form of the parent template when the parent template is called according to the set rules by executing the constraint configuration.

[0053] Furthermore, the parent template construction unit also includes a classifier setter;

[0054] The classifier setter includes:

[0055] The definition area is used to write classification parameters based on the parameter configuration and usage functions of the parent template;

[0056] A generator is used to form functional classifiers based on the classification parameters;

[0057] The definition area includes at least a functional description section, a parameter configuration section, and an associated symbol section.

[0058] Furthermore, the constrained configuration unit includes:

[0059] A call path generator is used to obtain the storage directory of the target storage; establish a call path based on the storage directory, and set the call rules for the call path;

[0060] A logic rule editor, used to declare parameter constraints and construct logic control rules for code execution using a DSL;

[0061] The constraint generator is used to write logical control rules into the master template form constraint unit set within the management module.

[0062] Furthermore, the combined module includes:

[0063] The structure identification unit is used to obtain the basic parameters of the process template in the construction process. Based on the layout of the process template and the basic parameters, the basic closed path of the process template is delineated, thereby obtaining the process template structure.

[0064] The structural division unit is used to obtain the process template structure, divide the process template into several splicing segments, set the structural parameter values ​​of each splicing segment, and establish a splicing path based on each splicing segment.

[0065] The splicing processing unit retrieves the parent template by calling the corresponding functional classifier according to the structure of the process template, and calls the control module according to the basic parameters of the process template to form several standard part templates with corresponding rules from the parent template. It obtains the static parameters of several standard part templates, and performs interval matching or interpolation calculation according to the splicing path and structural parameter values. During this process, the rule engine adjusts the conflict handling when performing interval matching or interpolation calculation on standard part templates of different specifications. Multiple combination results of the process template are obtained by arbitrarily combining several standard part templates.

[0066] Furthermore, the dataset generation module includes:

[0067] The workpiece modulus generator is used to set the workpiece modulus of several standard part templates according to actual specifications.

[0068] The dataset generator is used to determine the order and position of standard part templates by connecting them according to the combination path, and to assign values ​​to the standard part templates according to the workpiece modulus to form a dataset.

[0069] Furthermore, the optimal result output module includes:

[0070] The detection unit acquires a dataset of workpiece modulus output under the combined path; performs minimum scale detection on the dataset, performs support verification on at least one candidate result obtained from the minimum scale detection, and obtains the dataset under the optimal path through support verification.

[0071] The output unit is used to output the dataset under the optimal path.

[0072] The aforementioned support verification refers to: verifying the support by setting several calibration points on the process template and using these calibration points.

[0073] The calibration point is a connection point of the connector template set on the process template for positioning, support, and elevation calibration with other process templates.

[0074] This application has the following beneficial effects:

[0075] 1. By standardizing the workpieces in the construction process, the same type of workpiece is standardized. Therefore, according to the construction drawings, the template assembly under each process is carried out according to the same standardized workpieces, ensuring that the template assembly for the same process is consistent when constructing different platforms. At the same time, the standardized workpieces also increase the assembly efficiency during actual assembly operations and completely eliminate the possibility of arbitrary assembly. After assembly, it is possible to perform visual and simple inspection.

[0076] 2. Through the design of the overall power construction platform, different processes of the platform can form a unified whole. Specifically, the connection position is set on the process template by positioning, supporting, and calibrating with other process templates. On the one hand, it is convenient to verify the support of the obtained combination results and further optimize the combination results. On the other hand, it also sets the foundation positioning, support and elevation of different processes in multiple dimensions. Attached Figure Description

[0077] Figure 1 , 2 Schematic diagrams of the template construction of the power construction platform of the present invention from different orientations;

[0078] Figure 3 This is a flowchart illustrating the design method of the power construction platform of the present invention.

[0079] Figure 4 This is a schematic diagram illustrating the design system framework principle of the power construction platform of the present invention. Detailed Implementation

[0080] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0081] Example 1, refer to Appendix Figures 1 to 2 The power construction platform includes a foundation horizontal plane 7, a power construction base is set above the horizontal plane, a first platform is set on the power construction base, and a support column is set on the first platform.

[0082] In traditional construction, the baseline level is established through layout, formwork erection, rebar cage construction, and concrete pouring. The level is then manually smoothed during pouring. Even with a level instrument for planar positioning, a perfectly flat baseline cannot be achieved. Therefore, when constructing the power construction base, a leveling process is necessary. Traditional formwork, primarily made of wood or bamboo, is limited by its load-bearing and support capabilities, preventing the entire process from being completed in one go. Thus, the power construction base must be constructed and poured first. Because the flatness of the baseline cannot be guaranteed, a second leveling is required before constructing the first platform. This not only complicates the entire process but also compromises construction quality.

[0083] Meanwhile, since wooden and bamboo formwork are not standard components, they are assembled and selected according to the construction process, resulting in inconsistent formwork used for power construction platforms in different locations.

[0084] Reference Figure 3The main objective of this application is to provide a design method for a power construction platform, comprising the following steps: modeling the workpiece according to the workpiece design drawings to obtain different types of standard workpieces; configuring workpiece modulus for the standard workpieces according to their specification data to obtain a standard workpiece library; acquiring power construction platform drawings and dividing the power construction platform into several construction processes according to the drawings; sequentially acquiring the construction technology of the construction processes; calling the standard workpiece library to adaptively combine the master template according to the basic parameters of the process template in the construction process to obtain multiple combination results; performing workpiece modulus detection on the multiple combination results according to the combination path, and sequentially outputting the workpiece modulus dataset according to the combination path; performing optimal path detection on the workpiece modulus dataset to obtain the combination result under the optimal path.

[0085] Based on the above, the purpose of this application is to first standardize the workpieces in the construction process through design drawings. For example, steel formwork is uniformly used for the assembly of power construction bases. When designing standard workpieces, the service life, bending resistance, and dismantling difficulty of the steel formwork are fully considered. Only the master formwork needs to be designed during the steel formwork design process. Then, preliminary verification is carried out in different construction examples. Through the accumulation of a large amount of construction experience, basic steel formwork specifications are obtained. For example, assuming that the width and thickness of the steel formwork are consistent, 100cm, 50cm, and 20cm lengths are used as the basic specifications. The base formwork is built using these three specifications of steel formwork, and the steel formwork of different specifications is fixed together using screws, reeds, U-shaped clips, etc.

[0086] Based on the above, during the construction of the power construction base, several support rods 2 are set along the inner side of the steel formwork for the construction of the first platform and support columns, as well as for the formwork erection during construction. The support rods 2 are pre-fixed with screws embedded in the foundation horizontal plane. The height of the support rods 2 is uniformly marked after being leveled by the foundation horizontal plane. This ensures that the tops of all support rods 2 are on the same horizontal plane, thus marking the horizontal plane for subsequent construction. At the same time, the positions of the support rods 2 and the base formwork 1 are kept consistent. Then, the base reinforcement cage for pouring is constructed inside the base formwork 1. Using the support rods 2 as the foundation, the platform formwork 4 for pouring the first platform is built inward. The platform formwork 4 is located above the base reinforcement cage. Two connecting pieces 3 are set on the support rods for positioning and supporting the platform formwork 4. The connecting pieces 3 fix the upper and lower ends of the platform formwork 4 respectively. Therefore, it is only necessary to ensure that the connecting pieces 3 of the same height are on the same horizontal plane to achieve horizontal positioning and installation of the platform formwork 4.

[0087] As explained above, all workpieces in this application are standardized. Therefore, the support rod 2 also uses standardized workpieces. For example, when the length and width are consistent, the heights are 100cm, 50cm, and 20cm as the standard specifications. The support rods can be freely combined according to the height of the entire power construction platform, and the support rods are fixed to each other with fastening reeds.

[0088] After the platform formwork 4 is erected, a platform reinforcement cage is built inside the platform formwork 4. Then, the support column formwork 6 is erected above the platform formwork. When the support column formwork 6 is erected, in order to fully consider the support capacity of the platform formwork 6, horizontal support frames 5 are built at different heights on the support column. The horizontal support frames 5 are used to fix and support the support column formwork 6.

[0089] In the above, both the countertop formwork and the support column formwork can be assembled using standardized parts. This application can define the specifications of the standard parts used for steel formwork, support columns, countertop formwork, and support column formwork, as well as the materials used, according to the actual construction process requirements and the specifications required by the construction drawings.

[0090] In the above-described manner, to facilitate reuse, workpiece standardization, and construction standardization, this application employs the aforementioned design method. Firstly, by constructing standardized workpieces for the construction process, the same type of workpiece is standardized. Therefore, according to the construction drawings, the template assembly for each process is performed using the same standardized workpieces, ensuring consistency in template assembly for the same process across different platforms. Simultaneously, standardized workpieces increase assembly efficiency during actual assembly operations and completely eliminate the possibility of arbitrary assembly. After assembly, it allows for visual and simple inspection.

[0091] In order to achieve better design and construction results, this application can provide the combination results of standard workpieces according to different construction procedures and verify the supporting results, so that the different procedures of the entire platform can form a unified whole. That is to say, the purpose of standardized construction is achieved by setting up the formwork once and pouring it in stages. At the same time, the various procedures are organically combined. Specifically, the connection position is set on the process template and other process templates for positioning, support, and elevation. On the one hand, it is convenient to verify the supporting results of the obtained combination results and further optimize the combination results. On the other hand, the basic positioning, support and elevation of different procedures are set in multiple dimensions.

[0092] In some embodiments, when modeling a workpiece according to its design drawings, the process includes: setting the workpiece as a master template according to the design drawings; calling the parameter configuration of the master template; configuring the parameters as follows: based on the workpiece's functional classifier, setting the configuration parameter values ​​and global variables to partial restrictions in the parameter editor; associating the parameter editor with the control module; and under the control of the control module, when the master template is called according to the set rules, forming the master template to the corresponding specifications. In this application, the purpose of designing the master template is to avoid repetitive specification design for the same type of workpiece. Different specifications of standard parts can be obtained by stretching the master template. Specifically, taking a steel template as an example, setting the global variables to partial restrictions means setting the thickness and height of the steel template to be consistent, and only setting the length as a free variable under restrictions. As explained above, 100cm, 50cm, and 20cm lengths can be used as reference specifications. Therefore, when stretching the actual specification master template, 100cm, 50cm, and 20cm lengths can be obtained as reference specification steel templates. Similarly, the setting of support columns is also the same.

[0093] It should be noted that the purpose of the above design is to allow for the selection of the corresponding master template when modeling the power construction platform using modeling software, or when actually constructing the formwork for pouring concrete in a certain process. Then, by using the stretching operation (for example, selecting the template in CAD, where the thickness and height are completely restricted to be unmodifiable and the length is restricted to be a free variable under a constraint, so during stretching, only 100cm, 50cm, and 20cm long steel templates can be formed as the baseline specifications), the corresponding steel template can be obtained without repeated modeling, making the design more convenient.

[0094] In some embodiments, the master template is classified according to the workpiece's purpose or construction function, forming a functional category symbol for the workpiece. Further, the functional category symbol is constructed as follows: a master template is obtained; classification parameters are defined based on the master template's parameter configuration and its function; and a functional category symbol is formed using these classification parameters. The classification parameters at least include a function description section, a parameter configuration section, and an association symbol section. The category symbol setting allows different templates to be accessed without complex calling procedures; the corresponding master template can be obtained simply by using the category symbol and constructing its shortcut key or quick access symbol.

[0095] In some embodiments, the method of associating the parameter editor with the control module includes: synchronizing the configuration parameter values ​​and global variables in the parameter editor according to the function classifier; performing target storage of the configuration parameter values ​​and global variables and the parent template they are applied to; performing a constraint configuration that sets the configuration parameter values ​​and global variables to partial restrictions; and writing control logic rules during the constraint configuration process. The control logic rules are used to ensure that when the parent template is called according to the set rules after the constraint configuration is executed, the parent template will form a corresponding specification with a defined shape. As explained above, for example, when operating in CAD, because the thickness and height are completely restricted to be unmodifiable, and the length is restricted to free variables under a constraint state, during stretching, only steel templates with lengths of 100cm, 50cm, and 20cm as the base specifications can be formed. This method is obtained by setting the configuration parameter values ​​and global variables to partial restrictions through constraint configuration.

[0096] Furthermore, the constrained configuration includes: obtaining the storage directory of the target storage; establishing a call path based on the storage directory and setting the call rules for the call path; using DSL to declare parameter constraints and construct logic control rules for code execution; and writing the logic control rules into the master template form constraint unit set in the management module.

[0097] In the above, the adaptive combination of the process template includes: obtaining the basic parameters of the process template in the construction process to obtain the process template structure; calling the corresponding functional classifier according to the structure of the process template to retrieve the parent template, and calling the control module according to the basic parameters of the process template to form several standard component templates of corresponding rules from the parent template; and arbitrarily combining several standard component templates to obtain multiple combination results of the process template. Taking the base template as an example, in order to facilitate the retrieval of the parent template and the selection of specifications, the above settings ensure that the parent template can be quickly retrieved and different specifications can be quickly selected. For example, using 100cm long, 50cm long, and 20cm long steel templates as the basic specifications for combination will yield several combination results.

[0098] In the above, when arbitrarily combining standard part templates, the process includes: obtaining static parameters of several standard part templates; obtaining the splicing structure of the process template, identifying the splicing structure and dividing the splicing structure into several splicing segments, as well as the structural parameter value of each splicing segment, and establishing a splicing path based on each splicing segment; performing interval matching or interpolation calculation according to the splicing path and the structural parameter value. During this process, the conflict handling when performing interval matching or interpolation calculation on standard part templates of different specifications is adjusted through a rule engine; wherein, multiple splicing paths form a closed-loop combination path according to the splicing structure. Continuing with the example of base formwork, when using steel formwork of 100cm, 50cm, and 20cm lengths as the standard specifications for combination, each splicing segment may actually have several combination results. However, not every combination result is usable. Assuming the total length of the base formwork is 220cm, there are combinations such as (100cm steel formwork, 100cm steel formwork, 20cm steel formwork), (100cm steel formwork, 20cm steel formwork, 100cm steel formwork), (100cm steel formwork, 50cm steel formwork, 50cm steel formwork, 20cm steel formwork), (50cm steel formwork, 100cm steel formwork, 50cm steel formwork, 20cm steel formwork), and (50cm steel formwork, 50cm steel formwork, 50cm steel formwork, 50cm steel formwork, 20cm steel formwork), etc.

[0099] In the above, the workpiece modulus detection for multiple combination results according to the combination path includes: setting the workpiece modulus of several standard part templates according to actual specification parameters; calibrating the standard part templates according to the connection relationship of the combination path, and assigning values ​​to the standard part templates according to the workpiece modulus to form a dataset. Taking the above combination as an example, assuming the workpiece modulus of the 100cm steel template is 100, the workpiece modulus of the 50cm steel template is 50, and the workpiece modulus of the 20cm steel template is 20, then the above combination represented by the dataset is: (100, 100, 20) combination, (100, 20, 100) combination, (100, 50, 50, 20) combination, (50, 100, 50, 20) combination, (50, 50, 50, 50, 20) combination.

[0100] In the above, the optimal path detection for the workpiece modulus dataset includes: obtaining the workpiece modulus dataset output under the combined path; performing minimum scale detection on the dataset; performing support verification on at least one candidate result obtained from the minimum scale detection; and obtaining the dataset under the optimal path through the support verification. Further, the support verification refers to: verifying support based on several calibration points set on the process template. Further, the calibration points are connection positions of connecting templates set on the process template for positioning calibration, support calibration, and elevation position calibration with other process templates. Through this embodiment and the specific structural description of the power construction platform above, due to the existence of calibration points, when a calibration point is located as a support, it is necessary to ensure that the location can provide support. Therefore, generally, longer steel templates are selected as the support points, and a combination method with a small number and reasonable structure is used as much as possible, such as a (100, 100, 20) combination. This not only facilitates splicing and reduces the need for fixing between steel templates of different specifications during splicing, but also provides better disassembly performance due to the longer steel templates.

[0101] Example 2:

[0102] Reference Figure 1 , 2 and Figure 4 The present invention also provides a design system for a power construction platform, comprising: a standard workpiece library construction module, used to model workpieces according to workpiece design drawings to obtain different types of standard workpieces, and configure workpiece modulus for the standard workpieces according to the specification data of the standard workpieces, thereby obtaining a standard workpiece library; a construction process delineation module, used to obtain power construction platform drawings and divide the power construction platform into several construction processes according to the power construction platform drawings; a combination module, used to sequentially obtain the construction technology of the construction process, and call the standard workpiece library to perform adaptive combination of the master template according to the basic parameters of the process template in the construction process, thereby obtaining multiple combination results; a dataset generation module, used to perform workpiece modulus detection on the multiple combination results according to the combination path, and sequentially output the workpiece modulus dataset according to the combination path; and an optimal result output module, used to perform optimal path detection on the workpiece modulus dataset, and obtain the combination result under the optimal path.

[0103] Based on the above, the purpose of this application is to first standardize the workpieces in the construction process through design drawings. For example, steel formwork is uniformly used for the assembly of power construction bases. When designing standard workpieces, the service life, bending resistance, and dismantling difficulty of the steel formwork are fully considered. Only the master formwork needs to be designed during the steel formwork design process. Then, preliminary verification is carried out in different construction examples. Through the accumulation of a large amount of construction experience, basic steel formwork specifications are obtained. For example, assuming that the width and thickness of the steel formwork are consistent, 100cm, 50cm, and 20cm lengths are used as the basic specifications. The base formwork is built using these three specifications of steel formwork, and the steel formwork of different specifications is fixed together using screws, reeds, U-shaped clips, etc.

[0104] Based on the above, during the construction of the power construction base, several support rods are installed along the inner side of the steel formwork for the construction of the first platform and support columns, as well as for the formwork erection during construction. The support rods are pre-fixed with screws embedded in the foundation's horizontal plane. The height of the support rods is uniformly calibrated after being leveled by the foundation's horizontal plane, ensuring that the tops of all support rods are on the same horizontal plane, thus providing a horizontal calibration for subsequent construction. Simultaneously, the positions of the support rods and the base formwork are kept consistent. Then, a base reinforcement cage for pouring is constructed within the base formwork. Using the support rods as a foundation, the platform formwork for pouring the first platform is built inwards, with the platform formwork located above the base reinforcement cage. Two connecting pieces are installed on the support rods for positioning and supporting the platform formwork. These connecting pieces fix the upper and lower ends of the platform formwork respectively. Therefore, ensuring that connecting pieces of the same height are on the same horizontal plane is sufficient to achieve horizontal positioning and installation of the platform formwork.

[0105] As explained above, all workpieces in this application are standardized. Therefore, the support rods also use standardized workpieces. For example, when the length and width are consistent, the heights are 100cm, 50cm, and 20cm as the standard specifications. The support rods can be freely combined according to the height of the entire power construction platform, and the support rods are fixed to each other using fastening reeds.

[0106] After the platform formwork is erected, a platform reinforcement cage is built inside the platform formwork. Then, the support column formwork is erected above the platform formwork. When erecting the support column formwork, in order to fully consider the support capacity of the platform formwork, horizontal support frames are built at different heights on the support columns to fix and support the support column formwork.

[0107] In the above, both the countertop formwork and the support column formwork can be assembled using standardized parts. This application can define the specifications of the standard parts used for steel formwork, support columns, countertop formwork, and support column formwork, as well as the materials used, according to the actual construction process requirements and the specifications required by the construction drawings.

[0108] In the above-described manner, to facilitate reuse, workpiece standardization, and construction standardization, this application employs the aforementioned design method. Firstly, by constructing standardized workpieces for the construction process, the same type of workpiece is standardized. Therefore, according to the construction drawings, the template assembly for each process is performed using the same standardized workpieces, ensuring consistency in template assembly for the same process across different platforms. Simultaneously, standardized workpieces increase assembly efficiency during actual assembly operations and completely eliminate the possibility of arbitrary assembly. After assembly, it allows for visual and simple inspection.

[0109] In order to achieve better design and construction results, this application can provide the combination results of standard workpieces according to different construction procedures and verify the supporting results, so that the different procedures of the entire platform can form a unified whole. That is to say, the purpose of standardized construction is achieved by setting up the formwork once and pouring it in stages. At the same time, the various procedures are organically combined. Specifically, the connection position is set on the process template and other process templates for positioning, support, and elevation. On the one hand, it is convenient to verify the supporting results of the obtained combination results and further optimize the combination results. On the other hand, the basic positioning, support and elevation of different procedures are set in multiple dimensions.

[0110] In some embodiments, the standard workpiece library construction module includes: a master template construction unit, used to set workpieces as master templates according to design drawings; a parameter configuration unit, used to set the configuration parameter values ​​and global variables of the master template to partial restrictions based on the functional classification of the workpiece and in the parameter editor; and a synchronization unit, used to associate the parameter editor with the control module, so that when the master template is called according to the set rules under the control of the control module, the master template is formed into the corresponding specification. In this application, the purpose of designing the master template is that, for the same type of workpiece, it is not necessary to repeat the specification design. Standard parts of different specifications can be obtained by stretching the master template. Specifically, taking steel template as an example, setting the global variable to partial restriction means that the thickness and height of the steel template are set to be consistent, and only the length needs to be set as a free variable under the restriction state. As explained above, 100cm, 50cm, and 20cm lengths can be used as the reference specifications. Therefore, when stretching the actual specification master template, 100cm, 50cm, and 20cm lengths can be obtained as the reference specification steel templates. Similarly, the setting of the support column is also the same.

[0111] It should be noted that the purpose of the above design is to allow for the selection of the corresponding master template when modeling the power construction platform using modeling software, or when actually constructing the formwork for pouring concrete in a certain process. Then, by using the stretching operation (for example, selecting the template in CAD, where the thickness and height are completely restricted to be unmodifiable and the length is restricted to be a free variable under a constraint, so during stretching, only 100cm, 50cm, and 20cm long steel templates can be formed as the baseline specifications), the corresponding steel template can be obtained without repeated modeling, making the design more convenient.

[0112] In some embodiments, the master template is classified according to the workpiece's purpose or construction function, forming a functional category symbol for the workpiece. Further, the functional category symbol is constructed as follows: a master template is obtained; classification parameters are defined based on the master template's parameter configuration and its function; and a functional category symbol is formed using these classification parameters. The classification parameters at least include a function description section, a parameter configuration section, and an association symbol section. The category symbol setting allows different templates to be accessed without complex calling procedures; the corresponding master template can be obtained simply by using the category symbol and constructing its shortcut key or quick access symbol.

[0113] In some embodiments, the control module includes: a storage unit for storing configuration parameter values ​​and global variables synchronized with the parameter editor; and a constraint configuration unit for executing constraint configuration that sets the configuration parameter values ​​and global variables to partial restrictions, and writing control logic rules during the constraint configuration process. The control logic rules are used to ensure that when the parent template is called according to the set rules after executing the constraint configuration, the parent template is formed into a corresponding specification with a defined shape. As explained above, for example, when operating in CAD, because the thickness and height are completely restricted and cannot be modified, and the length is restricted to a free variable under a constraint state, during stretching, only steel templates with lengths of 100cm, 50cm, and 20cm as the base specifications can be formed. This method is obtained by setting the configuration parameter values ​​and global variables to partial restrictions through constraint configuration.

[0114] In some embodiments, the master template construction unit further includes a classifier setter; the classifier setter includes: a definition area for writing classification parameters according to the parameter configuration and usage function of the master template; and a generator for forming functional classifiers based on the classification parameters; wherein the definition area includes at least a function description section, a parameter configuration section, and an association symbol section.

[0115] In some embodiments, the constrained configuration unit includes: a call path generator, used to obtain the storage directory of the target storage; establish a call path based on the storage directory, and set the call rules for the call path; a logic rule editor, used to declare parameter constraints using DSL and construct logic control rules for code execution; and a constraint generator, used to write the logic control rules into the master template form constraint unit set within the management module. Taking the base template as an example, in order to facilitate the calling of the master template and the selection of specifications, the above settings ensure that the master template can be called quickly and different specifications can be selected quickly. For example, using 100cm long, 50cm long, and 20cm long as the basic specification steel templates for combination will yield several combination results.

[0116] In some embodiments, the combination module includes: a structure identification unit, used to acquire the basic parameters of the process template in the construction process, and to delineate the basic closed path of the process template according to the layout of the process template and the basic parameters, thereby obtaining the process template structure; a structure division unit, used to acquire the process template structure, divide the process template into several splicing segments, set the structural parameter value of each splicing segment, and establish a splicing path according to each splicing segment; a splicing processing unit, used to call the corresponding functional classifier according to the structure of the process template to retrieve the parent template, and to call the control module according to the basic parameters of the process template to form several standard part templates of corresponding rules from the parent template, acquire the static parameters of several standard part templates, and perform interval matching or interpolation calculation according to the splicing path and structural parameter values. During this process, the conflict handling when performing interval matching or interpolation calculation on standard part templates of different specifications is adjusted by the rule engine; and multiple combination results of the process template are obtained by arbitrarily combining several standard part templates. Continuing with the example of base formwork, when using steel formwork of 100cm, 50cm, and 20cm lengths as the standard specifications for combination, each splicing segment may actually have several combination results. However, not every combination result is usable. Assuming the total length of the base formwork is 220cm, there are combinations such as (100cm steel formwork, 100cm steel formwork, 20cm steel formwork), (100cm steel formwork, 20cm steel formwork, 100cm steel formwork), (100cm steel formwork, 50cm steel formwork, 50cm steel formwork, 20cm steel formwork), (50cm steel formwork, 100cm steel formwork, 50cm steel formwork, 20cm steel formwork), and (50cm steel formwork, 50cm steel formwork, 50cm steel formwork, 50cm steel formwork, 20cm steel formwork), etc.

[0117] In the above, the workpiece modulus detection for multiple combination results according to the combination path includes: setting the workpiece modulus of several standard part templates according to actual specification parameters; calibrating the standard part templates according to the connection relationship of the combination path, and assigning values ​​to the standard part templates according to the workpiece modulus to form a dataset. Taking the above combination as an example, assuming the workpiece modulus of the 100cm steel template is 100, the workpiece modulus of the 50cm steel template is 50, and the workpiece modulus of the 20cm steel template is 20, then the above combination represented by the dataset is: (100, 100, 20) combination, (100, 20, 100) combination, (100, 50, 50, 20) combination, (50, 100, 50, 20) combination, (50, 50, 50, 50, 20) combination.

[0118] In some embodiments, the dataset generation module includes: a workpiece modulus generator, used to set the workpiece modulus of several standard part templates according to actual specification parameters; and a dataset generator, used to calibrate the standard part templates according to the connection relationship of the standard part templates according to the combination path, and to assign values ​​to the standard part templates according to the workpiece modulus to form a dataset. Further, the optimal result output module includes: a detection unit, used to acquire the dataset of workpiece modulus output under the combination path; to perform minimum scale detection on the dataset, and to perform support verification on at least one candidate result obtained from the minimum scale detection, thereby obtaining the dataset under the optimal path through support verification; and an output unit, used to output the dataset under the optimal path; wherein, the support verification refers to: verifying support based on several calibration points set on the process template; the calibration points are connection positions of the connecting part templates set on the process template for positioning calibration, support calibration, and elevation position calibration with other process templates. Through this embodiment and the specific structural description of the power construction platform described above, due to the existence of the calibration point, it is necessary to ensure that the location of the calibration point as a support can be supported. Therefore, under normal circumstances, a longer steel formwork is selected as the support point, and a combination method with a small number and reasonable structure is used as much as possible, such as a (100, 100, 20) combination. This not only makes it easy to splice and reduces the need for fixing steel formwork of different specifications during the splicing process, but also provides better disassembly performance due to the longer steel formwork.

[0119] In the foregoing description, examples have been described with reference to specific exemplary embodiments. However, it will be apparent that various modifications and changes can be made to the specific examples without departing from the scope set forth in the appended claims, and the claims are not limited to the specific examples described above.

Claims

1. A design method for a power construction platform, characterized in that, Includes the following steps: Model the workpiece according to the workpiece design drawings to obtain different types of standard workpieces. Configure the workpiece modulus for the standard workpieces according to the specification data of the standard workpieces, thereby obtaining a standard workpiece library. When modeling a workpiece according to its design drawings, the following steps are included: According to the design drawings, the workpiece is set as the master template, the parameter configuration of the master template is called, and the parameters are configured as follows: based on the function classifier of the workpiece, the configuration parameter values ​​and global variables are set as partial restrictions in the parameter editor, and the parameter editor is associated with the control module. Under the control of the control module, when the master template is called according to the set rules, the master template is formed into the corresponding specifications. The master template is classified according to the use or construction function of the workpiece, and forms a functional classification symbol for the workpiece. The purpose of designing the master template is to eliminate the need for repeated specification design for the same type of workpiece. Standard parts of different specifications can be obtained by stretching through the master template. Obtain the drawings of the power construction platform and divide the power construction platform into several construction procedures based on the drawings; The construction process of each construction procedure is obtained sequentially. Based on the basic parameters of the process template in the construction process, the standard workpiece library is called to adaptively combine the master templates, resulting in multiple combination results. For multiple combined results, the workpiece modulus is detected according to the combined path, and the workpiece modulus dataset is output sequentially according to the combined path; Optimal path detection is performed on the workpiece modulus dataset to obtain the combined results under the optimal path; The adaptive combination of the process templates includes: Obtain the basic parameters of the process template in the construction process to obtain the process template structure; The corresponding function classifier is called according to the structure of the process template to retrieve the parent template, and the control module is called according to the basic parameters of the process template to form several standard part templates with corresponding rules from the parent template; multiple combination results of the process template are obtained by arbitrarily combining several standard part templates. When performing arbitrary combinations of standard parts templates, including: Obtain the static parameters of several standard part templates; Obtain the splicing structure of the process template, identify the splicing structure and divide the splicing structure into several splicing segments, as well as the structural parameter values ​​of each splicing segment, and establish a splicing path based on each splicing segment; The interval matching or interpolation calculation is performed according to the splicing path and structural parameter values. During this process, the conflict handling of the interval matching or interpolation calculation is adjusted by the rule engine to adjust the standard part templates of different specifications. Among them, multiple splicing paths form a closed loop combined path according to the splicing structure; The workpiece modulus is measured for each of the multiple combined results according to the combined path, including: Set the workpiece modulus according to the actual specifications and parameters of the several standard parts templates formed; The standard part templates are connected according to the combination path to determine the order and position of the standard part templates. At the same time, the standard part templates are assigned values ​​according to the workpiece modulus to form a dataset. Optimal path detection for the workpiece modulus dataset includes: Obtain the dataset of workpiece modulus output under the combined path; The dataset is subjected to minimum scale detection, and at least one candidate result obtained from the minimum scale detection is subjected to support verification. The dataset under the optimal path is obtained through support verification, so as to provide the combination result of standard workpieces according to different construction procedures, and the combination result is subjected to support verification, so that the different procedures of the entire platform can form a unified whole. The supporting verification refers to: verifying the supporting performance based on several calibration points set on the process template. The calibration point is a connection point of the connector template set on the process template for positioning, support, and elevation calibration with other process templates.

2. The design method for a power construction platform according to claim 1, characterized in that, The functional classifiers are constructed according to the following method: Obtain the master template, define classification parameters based on the parameter configuration and usage functions of the master template, and form functional classifiers through the classification parameters. The classification parameters include at least a function description section, a parameter configuration section, and an association symbol section.

3. The design method for a power construction platform according to claim 2, characterized in that, Methods for linking the parameter editor to the management module include: Synchronize the configuration parameter values ​​and global variables in the parameter editor according to the function classifier, execute the target storage of the configuration parameter values ​​and global variables and the parent template on which they are applied, execute the constraint configuration of the configuration parameter values ​​and global variables with partial restrictions, and write control logic rules during the constraint configuration process. The control logic rules are to form the parent template into a corresponding specification with a limited form when the parent template is called according to the set rules by executing the constraint configuration. The constrained configuration includes: Get the storage directory of the target storage; Establish a call path based on the storage directory, and set the call rules for the call path; Utilize DSL to declare parameter constraints and construct logical control rules for coded execution; Write the logic control rules into the master template form constraint unit set in the management module.

4. A design system for a power construction platform, characterized in that, include: The standard workpiece library construction module is used to model workpieces according to workpiece design drawings to obtain different types of standard workpieces, configure workpiece modulus for the standard workpieces according to the specification data of the standard workpieces, and thus obtain the standard workpiece library. The construction process delineation module is used to obtain the drawings of the power construction platform and divide the power construction platform into several construction processes based on the drawings. The combination module is used to sequentially obtain the construction process of the construction procedure, and call the standard workpiece library to adaptively combine the master template according to the basic parameters of the process template in the construction process, so as to obtain multiple combination results. The dataset generation module is used to perform workpiece modulus detection on multiple combined results according to the combined path, and output the workpiece modulus dataset in sequence according to the combined path; The optimal result output module is used to perform optimal path detection on the workpiece modulus dataset and obtain the combined result under the optimal path. The standard workpiece library construction module includes: The master template building unit is used to set the workpiece as a master template according to the design drawings; The parameter configuration unit is used to set partial restrictions on the configuration parameter values ​​and global variables of the master template in the parameter editor based on the function classifier of the workpiece. The synchronization unit is used to associate the parameter editor with the management module. Under the control of the management module, when the master template is called according to the set rules, the master template is formed into the corresponding specification. The parent template construction unit also includes a classifier setter; The classifier setter includes: The definition area is used to write classification parameters based on the parameter configuration and usage functions of the parent template; A generator is used to form functional classifiers based on the classification parameters; The definition area includes at least a functional description section, a parameter configuration section, and an associated symbol section; The combined module includes: The structure identification unit is used to obtain the basic parameters of the process template in the construction process. Based on the layout of the process template and the basic parameters, the basic closed path of the process template is delineated, thereby obtaining the process template structure. The structural division unit is used to obtain the process template structure, divide the process template into several splicing segments, set the structural parameter values ​​of each splicing segment, and establish a splicing path based on each splicing segment. The splicing processing unit retrieves the parent template by calling the corresponding functional classifier according to the structure of the process template, and calls the control module according to the basic parameters of the process template to form several standard part templates with corresponding rules from the parent template. It obtains the static parameters of several standard part templates, and performs interval matching or interpolation calculations according to the splicing path and structural parameter values. During this process, the rule engine adjusts the conflict handling when performing interval matching or interpolation calculations on standard part templates of different specifications. Multiple combination results of the process template are obtained by arbitrarily combining several standard part templates. The dataset generation module includes: The workpiece modulus generator is used to set the workpiece modulus of several standard part templates according to actual specifications. A dataset generator is used to determine the order and position of standard part templates by connecting them according to the combination path, and to assign values ​​to the standard part templates according to the workpiece modulus to form a dataset. The optimal result output module includes: The detection unit acquires a dataset of workpiece modulus output under the combined path; performs minimum scale detection on the dataset, performs support verification on at least one candidate result obtained from the minimum scale detection, and obtains the dataset under the optimal path through support verification. The output unit is used to output the dataset under the optimal path. The supporting verification refers to: verifying the supporting performance based on several calibration points set on the process template. The calibration point is a connection point of the connector template set on the process template for positioning, support, and elevation calibration with other process templates.

5. The design system for a power construction platform according to claim 4, characterized in that, The control module includes: The storage unit is used to store the configuration parameter values ​​and global variables of the synchronized parameter editor. The constrained configuration unit is used to perform constrained configuration by setting configuration parameter values ​​and global variables to partial restrictions, and to write control logic rules during the constrained configuration process; Among them, the control logic rule is to form the corresponding specification of the limited form of the parent template when the parent template is called according to the set rules by executing the constraint configuration; The constrained configuration unit includes: A call path generator is used to obtain the storage directory of the target storage; establish a call path based on the storage directory, and set the call rules for the call path; A logic rule editor, used to declare parameter constraints and construct logic control rules for code execution using a DSL; The constraint generator is used to write logical control rules into the master template form constraint unit set within the management module.

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