CN112329118B - Method, device, terminal and storage medium for extracting maximum value in structure calculation graph - Google Patents
Method, device, terminal and storage medium for extracting maximum value in structure calculation graph Download PDFInfo
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- CN112329118B CN112329118B CN202011339617.8A CN202011339617A CN112329118B CN 112329118 B CN112329118 B CN 112329118B CN 202011339617 A CN202011339617 A CN 202011339617A CN 112329118 B CN112329118 B CN 112329118B
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- G06F30/00—Computer-aided design [CAD]
- G06F30/10—Geometric CAD
- G06F30/13—Architectural design, e.g. computer-aided architectural design [CAAD] related to design of buildings, bridges, landscapes, production plants or roads
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Abstract
The application relates to a method, a device, a terminal and a storage medium for extracting a maximum value in a structure calculation graph, wherein the method comprises the following steps: extracting a sketch of each layer; assigning rectangular boxes of the same size to each diagram; adjusting the positions of the rectangular boxes and the diagrams; respectively identifying the extracted sketches in each rectangular box, and generating a graph and a digital database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes; comparing numbers at the same position according to the graph and the number database to obtain the maximum number at each position corresponding to the rectangular box; outputting a final graph according to the identified sketch and rectangular box; and correspondingly marking the maximum number on the corresponding position of the final graph. The application has the technical effects that: the staff can quickly obtain the data maximum value of the data information required by each position according to the labeling of the final graph, so that the labor is saved, and the accuracy of the comparison result is improved.
Description
Technical Field
The present application relates to the technical field of architectural structure design and computation, and in particular, to a method, an apparatus, a terminal, and a storage medium for extracting a maximum value in a structural computation graph.
Background
In the process of building structure design, because data information about the area of the steel bars, the area of the stirrups, the area of the longitudinal bars, the area of the waist bars, the axial pressure ratio of wall column concrete and the like in a standard layer structure calculation diagram are different in each layer, a designer needs to obtain the maximum value by comparing the data of each layer when carrying out merging design on the data of multiple layers.
Conventionally, the comparison process needs to manually compare the structure calculation diagrams of all layers, but the manual comparison process is time-consuming and labor-consuming and the comparison result accuracy is low due to the large data volume required to be compared.
Disclosure of Invention
In order to solve the problems that the structure calculation graph data comparison process is time-consuming and labor-consuming and the comparison result accuracy is low, the application provides a method, a device, a terminal and a storage medium for extracting the maximum value in the structure calculation graph.
In a first aspect, the present application provides a method for extracting a maximum value in a structural calculation map, which adopts the following technical scheme: the method comprises the following steps:
extracting a sketch of each layer, wherein the sketch comprises a graph and a number;
Assigning rectangular boxes of the same size to each of the diagrams;
adjusting the positions of the rectangular boxes and the sketches, limiting the sketches to the rectangular boxes, and enabling the relative positions of each rectangular box and the sketches inside the rectangular boxes to be consistent;
Identifying the extracted sketches in each rectangular box, identifying the positions of the rectangular boxes and numbers in the sketches in the rectangular boxes, and generating a graph and number database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes;
Extracting all numbers in the same position in the rectangular box according to the graph and the number database, and comparing the numbers in the same position to obtain the maximum number in each position corresponding to the rectangular box;
outputting a final graph according to the identified sketch and rectangular box;
and correspondingly marking the maximum number on the corresponding position of the final graph.
Through the technical scheme, the maximum number in the numbers at the same position in the diagram can be rapidly extracted in a comparison and identification mode, and the maximum number in the compared numbers is marked at the corresponding position of the final graph, so that a worker can rapidly obtain the data maximum value of the data information required by each position according to the marking of the final graph, labor is saved, and accuracy of comparison results is improved.
Preferably, said adjusting the positions of said rectangular boxes and schematics such that the relative positions of each rectangular box and its internal schematic remain identical comprises:
selecting reference points in the graphs in the diagrams respectively, wherein the relative positions of each reference point and each number in the corresponding diagram are consistent;
And adjusting the positions of the corresponding rectangular boxes according to the positions of the reference points, so that the distance between the reference point in any one rectangular box and the four corners of the corresponding rectangular box is consistent with the distance between the reference point in all other rectangular boxes and the four corners of the corresponding rectangular box.
Through the technical scheme, when the position of the rectangular box is adjusted, the datum frame can be quickly adjusted to a proper position by taking the datum point as the adjusting reference point, so that the efficiency of adjusting the datum frame is improved.
Preferably, when identifying the diagrams in each rectangular box, the identified information further includes: and identifying the graph in the diagram, identifying the relative position relationship between the graph and the rectangular box in the diagram, and identifying the relative position relationship between the number and the rectangular box in the diagram.
Through the technical scheme, the accuracy of the diagram identification is improved by identifying each information element in the standard diagram and the relative position of each information element relative to the rectangular box, and the later processing of the identified related information is facilitated.
Preferably, said outputting a final graphic from said identified sketch includes:
stacking all the identified rectangular boxes at the same position;
Stacking the recognized patterns in the sketch within the respective rectangular boxes according to the recognized relative positional relationship between the patterns in the sketch and the corresponding rectangular boxes to form final patterns and outputting the final patterns.
According to the technical scheme, the final graph is the superposition set of graphs in all the diagrams, so that the final graph has all the characteristics of the diagrams, and a later-stage worker can conveniently and rapidly extract the data maximum value of each position data information.
Preferably, the marking the maximum value in the corresponding position number on the corresponding position of the final graph includes: and correspondingly labeling the compared maximum number in the final graph according to the recognized relative position relationship between the number in the diagram and the rectangular box.
Through the technical scheme, when the maximum value in the number is marked, the marking position of the number can be rapidly determined by taking the rectangular box as a reference standard, so that the efficiency of marking the maximum value of the number is improved.
Preferably, the identifying step is performed simultaneously with the performing of the identifying step for the diagrams within the respective rectangular boxes;
And establishing a progress bar, wherein the coverage progress of the progress bar is consistent with the progress of the steps for respectively identifying the diagrams in the rectangular boxes.
Through the technical scheme, the staff can acquire the recognition progress of the sketch in real time according to the indication of the progress bar, so that the possibility that the staff is difficult to distinguish the current recognition state or the dead halt state when recognizing a large amount of data at the same time is reduced, and the staff can accurately recognize the current recognition state.
Preferably, the coverage progress of the progress bar is synchronously displayed in a percentage form.
Through the technical scheme, the display of the progress bar is more visual in a percentage display mode, so that a worker can know the specific progress of current identification more intuitively and accurately.
In a second aspect, the present application provides a device for extracting a maximum value in a structural calculation map, which adopts the following technical scheme: the device comprises:
a data extraction module for extracting a sketch of each layer, the sketch including a graph and a number;
A frame allocation module for allocating rectangular boxes of the same size to each of the diagrams;
a frame adjustment module for adjusting the positions of the rectangular boxes and the sketches, limiting the sketches to the rectangular boxes, and keeping the relative positions of each rectangular box and the sketches inside the rectangular boxes consistent;
The data identification module is used for respectively identifying the extracted sketches in each rectangular box, identifying the positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes, and generating a graph and a number database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes;
The data processing module is used for extracting all numbers at the same position in the rectangular box according to the graph and the digital database, comparing the numbers at the same position and obtaining the maximum number at each position corresponding to the rectangular box;
a data output module for outputting a final graphic according to the identified sketch;
and the data labeling module is used for correspondingly labeling the maximum number on the corresponding position of the final graph.
Through the technical scheme, the device can rapidly extract the maximum number in the numbers positioned at the same position in the diagram, and then, by marking the maximum number in the compared numbers at the corresponding position of the final graph, a worker can rapidly obtain the data maximum value of the data information required by each position according to the marking of the final graph, so that the labor is saved, and the accuracy of the comparison result is improved.
In a third aspect, the present application provides an intelligent terminal, including a memory and a processor, where the memory stores a computer program capable of being loaded by the processor and executing any of the methods for extracting a maximum value in a structural calculation map.
Through the technical scheme, the processor in the intelligent terminal can realize the method for extracting the maximum value in the structure calculation graph according to the related computer program stored in the memory, so that a worker can quickly acquire the data maximum value of the data information required by each position, labor is saved, and the accuracy of the comparison result is improved.
In a fourth aspect, the present application provides a computer readable storage medium storing a computer program capable of being loaded by a processor and executing any one of the methods of extracting a maximum value in a structural calculation map described above.
By the technical scheme, the method for extracting the maximum value in the structure calculation graph can be stored in the readable storage medium, so that the computer program stored in the readable storage medium and used for extracting the maximum value in the structure calculation graph can be executed by a processor, and the effects of saving manpower and improving the accuracy of comparison results are achieved.
Drawings
FIG. 1 is a flow chart of a method for extracting maxima in a structural computation graph according to an embodiment of the application.
FIG. 2 is a flow chart of the substeps of step 30 in an embodiment of the application.
FIG. 3 is a flow chart of the substeps of step 70 in an embodiment of the application.
FIG. 4 is a block diagram of a device for extracting the maximum value in a structural calculation map according to an embodiment of the present application.
Reference numerals: 101. a data extraction module; 102. a frame allocation module; 103. a picture frame adjusting module; 104. a data identification module; 105. a data processing module; 106. a progress feedback module; 107. a data output module; 108. and a data labeling module.
Detailed Description
The application is described in further detail below with reference to fig. 1-4.
The embodiment of the application discloses a method for extracting a maximum value in a structure calculation graph.
As shown in fig. 1, the method comprises the steps of:
Step 10, extracting each layer of schematic diagram.
Wherein the diagram includes graphics and numbers.
At step 20, rectangular boxes of the same size are assigned to each diagram.
In particular, either diagram may be placed entirely within the corresponding rectangular box.
And step 30, adjusting the relative positions of the rectangular box and the sketch.
Specifically, the relative positions of the rectangular boxes and the schematic are adjusted until the relative positions of each rectangular box and its internal schematic remain consistent.
As shown in fig. 2, wherein step 30 comprises the following two sub-steps:
In step 301, a reference point is determined in each of the graphs, and the relative position between each reference point and each number in the corresponding graph is kept consistent.
And 302, respectively adjusting the positions of the rectangular boxes by taking the positions of the reference points as reference points, so that the distance between the reference point in any rectangular box and the four corners of the corresponding rectangular box is consistent with the distance between the reference point in all other rectangular boxes and the four corners of the corresponding rectangular box.
Specifically, the reference point, when selected, may be a common point in the graphics in each layer of the schematic, such as an end point at the lower left corner or lower right corner of the intersection of the walls, columns in each layer of the graphics. By means of determining the datum points first, the rectangular box can quickly adjust the position of the rectangular box by referring to the datum points, and therefore efficiency in adjusting the relative positions of the rectangular box and the sketch is improved.
Step 40, the sketches within each rectangular box are identified and a graphic and digital database is generated.
Specifically, the sketch can be displayed through drawing software such as CAD (computer aided design), PROE (program for engineering) and the like for drawing a two-dimensional building drawing, and the essence of identifying the sketch information is that the data information of the sketch in the drawing software is extracted and identified; the identified content includes: the position of the rectangular box, the relative positional relationship between the figure in the diagram and the rectangular box, the relative positional relationship between the number in the diagram and the rectangular box, the figure in the diagram, and the number in the diagram; the generated graphic and digital database is the collection of the above identified content.
And 50, extracting numbers at the same position in all the rectangular boxes in the graph and digital database, and comparing the numbers at the same position one by one to obtain the maximum value of the numbers at each position corresponding to the rectangular boxes.
Specifically, the relative position between the rectangular box and the number refers to: the exact position is determined by taking the distance between the number and the four sides of the rectangular box as a standard;
according to the positions of the recognized rectangular boxes and the relative position relation between the numbers and the corresponding rectangular boxes, the numbers can be rapidly determined to be positioned at the same position; comparing the numbers at the same position with each other to obtain the maximum numbers at the positions; if there is only one number at a location, the number is taken as the maximum number for that location.
Step 60, a progress bar is established.
Specifically, the progress bar starts to operate at the same time as the start of step 40; the identification progress of the progress bar is consistent with the completion progress of the step 40, and the coverage progress of the progress bar is synchronously displayed in a percentage form; when step 40 ends, the progress of the progress bar is synchronously covered to a hundred percent of completion state; therefore, the user can intuitively judge the running state of the current system according to the indication of the progress bar, so that the user can find out and quickly check and solve the problem in time when the system is in a dead halt or stuck state. Meanwhile, the progress bar can be set to be consistent with the step 40 and the step 50, the progress bar starts to operate at the same time when the step 40 starts, and the progress bar completely covers when the step 50 ends, so that the progress bar can uniformly indicate the progress of the step 40 and the step 50.
And step 70, outputting a final graph according to the identified sketch and the rectangular box.
As shown in fig. 3, wherein step 70 comprises the following two sub-steps:
in step 701, all the identified rectangular boxes are stacked in the same position.
Specifically, after all rectangular boxes are stacked on top of each other in the same position, they are still displayed as one rectangular box.
At step 702, the patterns in the identified sketches are stacked within respective rectangular boxes.
Specifically, according to the relative positional relationship between the rectangular box and the graphics in the diagrams, each graphic can be restored to the initial position in the corresponding rectangular box, so that the graphics in the final graphic are superposition of all the graphics, and all the graphics in each diagram are contained in the graphics in the final graphic.
And step 80, labeling the final graph.
Specifically, according to the relative position relationship between the numbers in the identified sketch and the rectangular boxes, the maximum numbers in the numbers at each position in the rectangular boxes obtained after comparison are correspondingly marked in the rectangular boxes in the final graph; or the maximum number in the numbers at each position in the rectangle box obtained after comparison is correspondingly marked in the rectangle box in the final graph according to the relative position relation between the numbers in the identified sketch and the graph; at the moment, the rectangular box of the final graph not only contains all graphs in each diagram, but also contains the maximum number at the corresponding position of all numbers in each diagram, and the maximum value in the numbers in the final graph is just marked at the corresponding position in the diagram information, so that a worker can quickly obtain the data maximum value of the data information required by each position according to the marking in the diagram information in the final graph, labor is saved, and the accuracy of the comparison result is improved; the 50 structural calculation diagrams can be compared and completed within one minute and the final graph is output.
The implementation principle of the embodiment of the application is as follows: when the data maximum value of the required data information is required to be counted, the figures and the numbers in different sketches in drawing software can be firstly identified in batches, then the numbers positioned at the same position are compared, and the maximum numbers at different positions in the numbers can be rapidly obtained; and then, mutually superposing the identified figures, and marking the largest number in the compared numbers to the corresponding position in the superposed figures, so that a worker can quickly acquire the data maximum value of the data information required by each position according to the digital maximum value marked in the superposed figures, thereby saving manpower and improving the accuracy of the comparison result.
The embodiment of the application also discloses a device for extracting the maximum value in the structure calculation graph.
As shown in fig. 4, the apparatus includes the following modules:
A data extraction module 101 for extracting a sketch of each layer, the sketch including a figure and a number;
A frame allocation module 102 for allocating rectangular boxes of the same size to each diagram;
a frame adjustment module 103 for adjusting the positions of the rectangular boxes and the sketches, restricting the sketches within the rectangular boxes, and keeping the relative positions of each rectangular box and its internal sketches consistent;
A data identification module 104, configured to identify the extracted sketches in each rectangular box, and generate a graph and a digital database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes;
The data processing module 105 is configured to extract numbers in the same position in all rectangular boxes in the graphic and digital database, and compare the numbers in the same position to obtain a maximum value of the numbers in each position corresponding to the rectangular boxes;
The progress feedback module 106 is configured to establish a progress bar, and the coverage progress of the progress bar is synchronously displayed in a percentage form;
A data output module 107 for outputting a final graphic according to the recognized sketch;
The data labeling module 108 is configured to label the corresponding position of the final graph with the corresponding maximum number.
The embodiment of the application also discloses an intelligent terminal.
In particular, the intelligent terminal comprises a memory and a processor, wherein the memory stores a computer program which can be loaded by the processor and execute the maximum value method in the extraction structure calculation graph.
The embodiment of the application also discloses a computer readable storage medium.
Specifically, the computer-readable storage medium storing a computer program capable of being loaded by a processor and executing the method of extracting the maximum value in the structure calculation map as described above, for example, includes: a usb disk, a removable hard disk, a Read-only memory (ROM), a random access memory (RandomAccessMemory, RAM), a magnetic disk, or an optical disk, or other various media capable of storing program codes.
The present embodiment is only for explanation of the present invention and is not to be construed as limiting the present invention, and modifications to the present embodiment, which may not creatively contribute to the present invention as required by those skilled in the art after reading the present specification, are all protected by patent laws within the scope of claims of the present invention.
Claims (8)
1. A method of extracting a maximum value in a structural computational graph, the method comprising:
extracting a sketch of each layer, wherein the sketch comprises a graph and a number;
Assigning rectangular boxes of the same size to each of the diagrams;
Adjusting the positions of the rectangular boxes and the sketches, limiting the sketches to the rectangular boxes, and enabling the relative positions of each rectangular box and the sketches inside the rectangular boxes to be consistent; the adjusting the positions of the rectangular boxes and the sketches so that the relative positions of each rectangular box and the internal sketches are consistent comprises: selecting reference points in the graphs in the diagrams respectively, wherein the relative positions of each reference point and each number in the corresponding diagram are consistent; the positions of the corresponding rectangular boxes are adjusted according to the positions of the reference points, so that the distance between the reference point in any rectangular box and the four corners of the corresponding rectangular box is consistent with the distance between the reference point in all other rectangular boxes and the four corners of the corresponding rectangular box;
Identifying the extracted sketches in each rectangular box, identifying the positions of the rectangular boxes and numbers in the sketches in the rectangular boxes, and generating a graph and number database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes; when the diagrams in the rectangular boxes are respectively identified, the identified information also comprises: identifying a graph in the diagram, identifying a relative position relationship between the graph and a rectangular box in the diagram, and identifying a relative position relationship between a number and a rectangular box in the diagram;
Extracting all numbers in the same position in the rectangular box according to the graph and the number database, and comparing the numbers in the same position to obtain the maximum number in each position corresponding to the rectangular box;
outputting a final graph according to the identified sketch and rectangular box;
and correspondingly marking the maximum number on the corresponding position of the final graph.
2. The method of extracting maxima in a structural computation graph of claim 1, wherein said outputting a final graph from said identified sketch comprises:
stacking all the identified rectangular boxes at the same position;
Stacking the recognized patterns in the sketch within the respective rectangular boxes according to the recognized relative positional relationship between the patterns in the sketch and the corresponding rectangular boxes to form final patterns and outputting the final patterns.
3. The method for extracting maximum values in a structural computation graph according to claim 1, wherein the marking the maximum number corresponding to the corresponding position of the final graph comprises: and correspondingly labeling the compared maximum number in the final graph according to the recognized relative position relationship between the number in the diagram and the rectangular box.
4. The method of extracting maximum values in a structural computation graph according to claim 1, wherein said identifying steps are performed simultaneously with said respectively identifying the sketches within each of said rectangular boxes;
And establishing a progress bar, wherein the coverage progress of the progress bar is consistent with the progress of the steps for respectively identifying the diagrams in the rectangular boxes.
5. The method for extracting maximum values in a structural calculation map according to claim 4, wherein the coverage progress of the progress bar is synchronously displayed in the form of a percentage.
6. An apparatus for extracting a maximum value in a structural computation graph, the apparatus comprising: a data extraction module (101) for extracting a sketch of each layer, the sketch comprising a graph and a number;
A frame allocation module (102) for allocating rectangular boxes of the same size to each of said diagrams;
A frame adjustment module (103) for adjusting the positions of the rectangular boxes and the sketches, limiting the sketches within the rectangular boxes, and keeping the relative positions of each rectangular box and the sketches inside the rectangular boxes consistent; the adjusting the positions of the rectangular boxes and the sketches so that the relative positions of each rectangular box and the internal sketches are consistent comprises: selecting reference points in the graphs in the diagrams respectively, wherein the relative positions of each reference point and each number in the corresponding diagram are consistent; the positions of the corresponding rectangular boxes are adjusted according to the positions of the reference points, so that the distance between the reference point in any rectangular box and the four corners of the corresponding rectangular box is consistent with the distance between the reference point in all other rectangular boxes and the four corners of the corresponding rectangular box;
A data identification module (104) for identifying the extracted sketches in each rectangular box and identifying the positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes, and generating a graph and a digital database according to the identified positions of the rectangular boxes and the numbers in the sketches in the rectangular boxes; when the diagrams in the rectangular boxes are respectively identified, the identified information also comprises: identifying a graph in the diagram, identifying a relative position relationship between the graph and a rectangular box in the diagram, and identifying a relative position relationship between a number and a rectangular box in the diagram;
The data processing module (105) is used for extracting numbers at the same position in all the rectangular boxes according to the graph and number database, comparing the numbers at the same position and obtaining the maximum number at each position corresponding to the rectangular boxes;
A data output module (107) for outputting a final graphic according to the identified sketch;
and the data labeling module (108) is used for correspondingly labeling the maximum number on the corresponding position of the final graph.
7. An intelligent terminal comprising a memory and a processor, the memory having stored thereon a computer program capable of being loaded by the processor and performing the method according to any of claims 1 to 5.
8. A computer readable storage medium, characterized in that a computer program is stored which can be loaded by a processor and which performs the method according to any one of claims 1 to 5.
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