CN116029012A - Integrated keel distribution diagram drawing, informationized labeling and statistics method and system - Google Patents

Abstract

The invention relates to an integrated keel distribution diagram drawing, informationized marking and counting method and system, belonging to the technical field of building design. According to the keel layout diagram, whether the size, the position and the specification of the keels are correct or not can be checked quickly, and whether the situation of missing statistics and the like exists or not is checked; the generated statistics can be used for sleeving materials, so that quick ordering of the materials is realized. The method can improve the statistical accuracy of materials, improve the efficiency of keel layout and information labeling, greatly lighten the workload of designers, and can improve the working efficiency by more than ten times compared with the traditional working mode.

Description

Integrated keel distribution diagram drawing, informationized labeling and statistics method and system

Technical Field

The invention belongs to the technical field of building design, and particularly relates to an integrated keel distribution diagram drawing, informationized labeling and statistics method and system.

Background

The traditional keel statistics needs to classify and count the keels with different specifications and different lengths, is time-consuming and labor-consuming, and is more likely to cause the conditions of more materials, less materials or less materials due to miscalculations, miscalculations and the like, thereby causing cost or construction period loss with different degrees; the keel layout is drawn, the correctness of keel blanking can be checked to a certain extent, the keels are arranged to corresponding positions one by adopting a traditional manual method, time and labor are consumed, large and medium-sized projects are consumed, the number of keels is tens of thousands, the keels are arranged to corresponding positions one by adopting the traditional manual method, information characters are marked according to the specifications of the keels, and the whole process is extremely large in workload, time and labor are consumed.

Disclosure of Invention

The invention aims to provide an integrated keel distribution diagram drawing, informationized labeling and statistics method and system for solving the technical problems.

Therefore, the invention provides an integrated keel distribution diagram drawing, informationized labeling and statistics method, which comprises the following steps:

s1, a function programming module, wherein a main function module for realizing function modularization comprises a layersch module, a txt-l module, a shuchu module, a dim-ang module, a dim9 module, a dim910 module, a dmp2 module and a dmm module;

s2, setting the width of the multi-section line as a certain value, reading the current file storage path as a statistical file storage path savepath, and closing object capturing;

s3, inputting keel information, assigning txt, inputting keel color and assigning color;

s4, calling a layerch module to find out whether a txt layer exists or not, and setting the existence as current; if not, newly creating a txt layer, wherein the color is color, and setting the layer with the txt as the layer name as the current layer;

s5, selecting dimension marking graphic elements needing to be counted and drawn into a keel layout, and putting the dimension marking graphic elements into a selection set ss;

s6, selecting dimension marking graphic elements representing keel distribution, and placing the dimension marking graphic elements into a selection set S1;

s7, respectively counting the element numbers n1 and n2 in the selection sets ss and S1, and assigning n=n1 and h=n2+1;

s8, sequentially reading the names of the dimension marking primitives in the S1, calling a dim910 module, repeating n2 times for the midpoints of the dimension marking in the elements of the selection set S1, and combining the midpoints and the primitive names into a new serial set sss;

s9, sequencing the serial set sss from small to large along the X, Y direction by taking the middle point as a reference;

s10, sequentially reading the pixel names of the pixels in the selection set ss for n1 times, respectively transmitting the pixel names and all the pixel names taken out from the serial set sss into a dmp2 module and a dmp module, selecting the first pixel in the serial set sss, calling the dmp2 module to draw a double keel, finishing keel drawing and keel information marking, and calling the dmp module to draw a single keel by the other pixels, finishing keel drawing and keel information marking until all the pixels in the ss are read;

s11, setting a member bar information statistical file name and a path, assigning the file name and the path to ff, calling a shuchu module to generate a header, and opening the ff in an additional mode;

s12, judging whether the number of elements in the selection set ss is 0, if not, taking out the 1 st element in the selection set ss, calling a dmm module, and calculating the text marking length or the size marking length as l; then sequentially taking out all other elements in the selection set ss, calling a dmm module, and calculating the text marking length or the size marking length as l1; comparing l1 with l, when the difference between l1 and l is smaller than 0.1mm, counting the unit k+1, putting the primitives with the same length into a selection set ss1, calling a shuchu module, respectively outputting txt, l and the number k, subtracting the primitives in ss1 from the selection set ss, and calculating the length of the selection set ss; repeating step S12 when not 0 until ending S12 when 0;

s13, closing the file ff and opening the object capture.

Preferably, the method for marking keel information in S10 comprises the following steps:

s101-1, reading a starting point and an ending point of a multi-segment line according to a graphic element;

s102-1, calling a dim-ang module, and calculating the dimension marking angle according to the positions of the end point and the starting point;

s103-1, calling a dim910 module, and calculating the midpoint of the dimension marking;

s104-1, calculating a character insertion point by taking the middle point as a base point and shifting 40mm to the direction perpendicular to the multi-section line;

s105-1, setting the character width to be 0.8 times of the length of the multi-section line;

s106-1, reading a global scale factor, a layer name and a current active tab name;

s107-1, judging whether the scale factor is 0, inputting the height of the characters when the scale factor is equal to 0, and setting the height of the characters to be 2.5 times of the scale factor when the scale factor is not equal to 0;

s108-1, creating a primitive definition data table;

s109-1, establishing a text graphic primitive.

Preferably, the method of calculating the dimensioning angle in S102-1 comprises the steps of:

s1021, reading annotation definition points 10 and 14 according to the primitive names;

s1022, calculating and defining the angle between the points 10 and 14, and subtracting 90 degrees from the angle value to obtain the dimension marking angle.

Preferably, the method of calculating the mid-point of the dimensioning in S103-1 comprises the steps of:

s1031, respectively reading annotation definition points 10, 13 and 14 according to the names of the primitives;

s1032, calculating an angle ang1 between the definition points 10 and 14;

s1033, subtracting 90 degrees from ang1 to obtain an angle ang2;

s1034, taking the definition point 13 as a reference point, and obtaining a temporary point 1 by shifting the ang1 direction by 100 mm; taking the definition point 10 as a reference point, and obtaining a temporary point 2 by shifting the ang2 direction by 100 mm;

s1035, calculating intersection points of the definition point 13, the temporary point 1, the definition point 10 and the temporary point 2;

s1036, assigning the intersection point to the definition point 9;

s1037, calculating the midpoint between the two points according to the definition points 9 and 10.

Preferably, the method for drawing the double keels and marking the keel information in the S10 comprises the following steps:

s101-2, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively;

s102-2, calling a dim-ang module, and respectively assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2;

s103-2, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a dimension marking dm1 marking value and assigning dis2;

s104-2, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, assigning a labeling value dis2 to dis;

s105-2, assigning a value of dis divided by 2 to dis;

s106-2, reading definition points 13, 14 and 10 of dim1 and respectively assigning values to p113, p114 and p110;

s107-2, calling a dim9 module, and calculating a custom point 9 with a dimension marked dm1 to be assigned with p19;

s108-2, reading definition points 13, 14 and 10 of dim2 and respectively assigning values to p213, p214 and p210;

s109-2, calling a dim9 module, and calculating a custom point 9 assigned with a dimension mark dm2 to be assigned with p29;

s1010-2, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; calculating points p110, p114, p210 and p214, and assigning points p 2; the intersection points of the calculation points p19, p113, p29 and p213 are assigned to pt11; the intersection points of the calculation points p110, p114, p29 and p213 are assigned to pt22;

s1011-2, calculating points pt1 and pt2, assigning points to pm, and calculating points pt11 and pt22, assigning points to pm1;

s1012-2, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe; taking pm1 as a base point, respectively assigning ps1 and pe1 to an ang1 direction and an ang1 opposite direction by a displacement distance dis;

s1013-2, creating a graphic element definition data table 1 by taking ps and pe as the starting points and the midpoints of the multi-segment lines; creating a graphic element definition data table 2 by taking ps1 and pe1 as the starting points and the midpoints of the multi-segment lines;

s1014-2, creating 50mm wide multi-segment line drawing elements according to a data table 1 and a data table 2, and assigning values e1 and e2;

s1015-2, calling a txt-l module, and marking the rod piece specification information by taking e1 and e2 and the input specification information as parameters.

Preferably, the method for drawing the single keel and marking the keel information in the S10 comprises the following steps:

s101-3, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively;

s102-3, calling a dim-ang module, and respectively assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2;

s103-3, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a dimension marking dm1 marking value and assigning dis2;

s104-3, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, assigning a labeling value dis2 to dis;

s105-3, assigning a value of dis divided by 2 to dis;

s106-3, reading definition points 13, 14 and 10 of dim1, and respectively assigning values to p113, p114 and p110;

s107-3, calling a dim9 module, and calculating a custom point 9 with a dimension marked dm1 to be assigned with p19;

s108-3, reading definition points 13, 14 and 10 of dim2, and respectively assigning values to p213, p214 and p210;

s109-3, calling a dim9 module, and calculating a custom point 9 assigned with a dimension mark dm2 to be assigned with p29;

s1010-3, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; calculating points p110, p114, p210 and p214, and assigning points p 2;

s1011-3, calculating points pt1 and pt2, and assigning points to pm;

s1012-3, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe;

s1013-3, creating a primitive definition data table by taking ps and pe as the starting points and midpoints of the multi-section lines;

s1014-3, establishing a 50mm wide multi-segment line drawing element, and assigning to e1;

s1015-3, calling a txt-l module, and marking the specification information of the rod piece by taking e1 and the input specification information as parameters.

Preferably, the primitive reading method of the selection set ss in S10 specifically includes the following steps:

s101-4, initializing parameters k and i to be 0;

s102-4, taking out the kth primitive in the selection set ss, and assigning the primitive name to dm1;

s103-4, taking out an ith primitive in the serial set sss, and assigning the name of the primitive to dm2;

s104-4, judging whether i is 0, if i is 0, calling a dmp2 module, drawing two multi-section lines and marking information with txt content; if i is not 0, invoking a dmp module, drawing a multi-section line and marking information with txt content;

s105-4, assigning i=i+1;

s106-4, judging whether i is smaller than n, if so, returning to S103-4; if not, the value i=0, the value k=k+1, n1=n1-1;

s107-4, whether n1 is not 0 is judged, if so, the process returns to S102-4, and if not, the process proceeds to S11.

Preferably, the method for calculating the length of the Chinese character label or the length of the dimension label in the S12 comprises the following steps:

s121-1, an incoming parameter primitive name and an object type;

s122-1, judging the object type, if the object type is the size marking, reading a size measurement value and a marking value, then judging whether the size marking value is 0, if the size marking value is 0, reading the size measurement value, and if the size marking value is not 0, reading the size marking value; if the object type is text, the text content is read and converted to real numbers.

Preferably, the primitive reading method of the selection set ss in S12 specifically includes the following steps:

s121-2, taking out one primitive in the selection set ss, and assigning the name of the primitive;

s122-2, reading the category of the primitive, and assigning js;

s123-2, calling a dmm module, and reading the length l corresponding to the graphic element ent;

s124-2, assigning k=0, i=0;

s125-2, taking out the ith graphic element in the selection set ss, and assigning the name of the graphic element to enter;

s126-2, reading the category of the primitive, and assigning jss;

s127-2, calling a dmm function, and reading the length l1 corresponding to the primitive enti.

In addition, the invention also provides an integrated keel distribution diagram drawing, informationized labeling and statistics system, which comprises:

the layerch module is used for searching the layer according to the layer name, and when the layer does not exist, the layer can be newly built according to the layer name and the input keel color;

the dim-ang module is used for calculating a dimension marking angle;

the dim9 module is used for calculating a dimension marking custom point 9;

the dim910 module is used for calculating the midpoints of the custom points 9 and 10;

the dmp2 module is used for drawing two multi-section lines according to the two dimension marking intersection points and marking keel information;

the dmp module is used for drawing a single multi-section line according to the intersection point of the two dimension labels and labeling keel information;

the shuchu module is used for outputting keel information, size and number;

the dmm module is used for calculating the text marking length or the dimension marking length;

and the txt-l module is used for marking characters at the arrangement positions of the keels according to the multi-section line drawing meta information and the input keel information.

Compared with the prior art, the invention has the characteristics and beneficial effects that: the invention utilizes drawing size marking and data processing to determine the positioning and the length of the keels, automatically calculates the length and the number of the keels, draws the keel arrangement diagram and marks the keel information at the keel arrangement position, replaces the complicated calculation process, the keel drawing process, the information marking process and the whole keel statistics process with programs, and generates the keel statistics file. According to the keel layout diagram, whether the size, the position and the specification of the keels are correct or not can be checked quickly, and whether the situation of missing statistics and the like exists or not is checked; the generated statistics can be used for sleeving materials, so that quick ordering of the materials is realized. The method can improve the statistical accuracy of materials, improve the efficiency of keel layout and information labeling, greatly lighten the workload of designers, and can improve the working efficiency by more than ten times compared with the traditional working mode.

Drawings

FIG. 1 is a first part of a main function flow diagram of an integrated keel distribution map drawing, informationized labeling and statistics method;

FIG. 2 is a second part of a main function flow diagram of an integrated keel distribution map drawing, informationized labeling and statistics method;

FIG. 3 is a schematic diagram of a laysearch module;

FIG. 4 is a schematic diagram of a dim-ang module;

FIG. 5 is a dim9 module schematic;

FIG. 6 is a diagram of a dim910 module;

FIG. 7 is a schematic diagram of a dmp2 module;

FIG. 8 is a schematic view of a dmp module;

FIG. 9 is a schematic diagram of a shuchu module;

FIG. 10 is a schematic diagram of a dmm module;

FIG. 11 is a schematic diagram of the txt-l module;

FIG. 12 is a schematic illustration of a dimensioning definition point;

FIG. 13 is a schematic illustration of a sizing distribution;

FIG. 14 is a schematic drawing of the treated dimension marking, namely the true blanking dimension of the keels, the vertical column is reduced by 20mm, and the cross beam is reduced by 74mm;

FIG. 15 is a layout of an informationized typeset Dragon diagram and an informationized annotation schematic diagram;

figure 16 is a schematic of the results file after statistical output of different sizes of keels.

Detailed Description

The technical solution of the present invention will be described in further detail with reference to the accompanying drawings, but the scope of the present invention is not limited to the following description. All of the features disclosed in this specification, or all of the steps in a method or process disclosed implicitly, may be combined in any combination, except for the mutually exclusive features and/or steps.

Any feature disclosed in this specification (including any accompanying claims, abstract and drawings), may be replaced by alternative features serving the same, equivalent or similar purpose, unless expressly stated otherwise. That is, each feature is one example only of a generic series of equivalent or similar features, unless expressly stated otherwise.

Specific embodiments of the invention will be described in detail below, it being noted that the embodiments described herein are for illustration only and are not intended to limit the invention. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present invention. However, it will be apparent to one of ordinary skill in the art that: no such specific details are necessary to practice the invention. In other instances, well-known circuits, software, or methods have not been described in detail in order not to obscure the invention.

The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.

Before describing the embodiments, some necessary terms need to be explained. For example:

if the terms "first," "second," etc. are used herein to describe various elements, these elements should not be limited by these terms. These terms are only used to distinguish one element from another element. Accordingly, a "first" element discussed below could also be termed a "second" element without departing from the teachings of the present invention. It will be understood that when an element is referred to as being "connected" or "coupled" to another element, it can be directly connected or coupled to the other element or intervening elements may also be present. In contrast, when an element is referred to as being "directly connected" or "directly coupled" to another element, there are no intervening elements present.

The various terms presented in this application are used solely for the purpose of describing particular embodiments and are not intended to be limiting of the invention, as singular forms are intended to include plural forms as well, unless the context clearly indicates otherwise.

When the terms "comprises" and/or "comprising" are used in this specification, they specify the presence of stated features, integers, steps, operations, elements, and/or components, but do not preclude the presence and/or addition of one or more other features, integers, steps, operations, elements, components, and/or groups thereof.

As shown in fig. 1 and 2, the present invention provides an integrated keel distribution drawing, informationized labeling and statistics method, comprising:

s1, a function programming module, as shown in fig. 3-11, wherein the main function module for realizing function modularization comprises a layersch module, a txt-l module, a shuchu module, a dim-ang module, a dim9 module, a dim910 module, a dmp2 module and a dmm module.

S2, setting the width of the multi-section line to be a certain value, specifically 50mm, reading the current file storage path to be a statistical file storage path savepath, and closing object capturing.

S3, inputting keel information, assigning txt, inputting keel color and assigning color.

S4, calling a layerch module to find out whether a txt layer exists or not, and setting the existence as current; if not, a txt layer is newly built, the color is color, and the layer with the txt as the layer name is set as the current layer.

S5, selecting dimension marking graphic elements which need to be counted and drawn into a keel layout, and putting the dimension marking graphic elements into a selection set ss.

S6, selecting dimension marking graphic elements representing keel distribution, and placing the graphic elements into the selection set S1.

And S7, respectively counting the element numbers n1 and n2 in the selection sets ss and S1, and assigning n=n1 and h=n2+1.

S8, sequentially reading the names of the dimension marking primitives in the S1, calling a dim910 module, repeating the steps of selecting the midpoints of the dimension marking in the elements of the set S1 for n2 times, and combining the midpoints and the primitive names into a new serial set sss.

S9, taking the middle point as a reference, and sorting the serial set sss from small to large along the X, Y direction.

S10, sequentially reading the pixel names of the pixels in the selection set ss for n1 times, respectively transmitting the pixel names and all the pixel names taken out from the serial set sss into a dmp2 module and a dmp module, selecting the first pixel in the serial set sss, calling the dmp2 module to draw a double keel, finishing keel drawing and keel information marking, and calling the dmp module to draw a single keel by the rest pixels, finishing keel drawing and keel information marking until all the pixels in ss are read.

S11, setting a file name and a path of the bar information statistics, assigning the file name and the path to ff, calling a shuchu module to generate a header, and opening the ff in an additional mode, wherein the information comprises specification, length, quantity and the like.

S12, judging whether the number of elements in the selection set ss is 0, if not, taking out the 1 st element in the selection set ss, calling a dmm module, and calculating the text marking length or the size marking length as l; and then sequentially taking out all the other elements in the selection set ss, calling a dmm module, and calculating the text labeling length or the dimension labeling length as l1. Comparing l1 with l, when the difference between l1 and l is smaller than 0.1mm, counting the unit k+1, putting the primitives with the same length into a selection set ss1, calling a shuchu module, respectively outputting txt, l and the number k, subtracting the primitives in ss1 from the selection set ss, and calculating the length of the selection set ss; and repeating the step S12 when the value is not 0 until the value is 0, and ending the step S12.

S13, closing the file ff and opening the object capture.

Specifically, as shown in fig. 11, the method for marking keel information in S10 includes the steps of:

s101-1, reading the starting point and the end point of the multi-segment line according to the graphic element.

S102-1, calling a dim-ang module, and calculating the dimension marking angle according to the positions of the end point and the starting point. Specifically, as shown in fig. 4, the method of calculating the dimensioning angle in S102-1 comprises the steps of: s1021, reading annotation definition points 10 and 14 according to the primitive names. S1022, calculating and defining the angle between the points 10 and 14, and subtracting 90 degrees from the angle value to obtain the dimension marking angle.

S103-1, calling a dim910 module, and calculating the midpoint of the dimension marking. Specifically, as shown in FIG. 6, the method of calculating the dimensioning midpoint in S103-1 includes the steps of: s1031, reading annotation definition points 10, 13 and 14 according to the names of the primitives respectively, as shown in FIG. 12. S1032, the angle ang1 between the definition points 10 and 14 is calculated. S1033, ang1 minus 90 degrees gives angle ang2. S1034, taking the definition point 13 as a reference point, and obtaining a temporary point 1 by shifting the ang1 direction by 100 mm; the temporary point 2 is obtained by shifting the defined point 10 by 100mm in the ang2 direction. S1035, defining point 13 and temporary point 1 are calculated, and the intersection of defining point 10 and temporary point 2 is determined. And S1036, assigning the intersection point to the definition point 9. S1037, calculating the midpoint between the two points according to the definition points 9 and 10.

S104-1, calculating a character insertion point by taking the middle point as a base point and shifting the base point by 40mm in the direction perpendicular to the multi-section line.

S105-1, setting the character width to be 0.8 times of the length of the multi-section line.

S106-1, reading the global scale factor, the layer name and the current active tab name.

S107-1, judging whether the scale factor is 0, inputting the character height when the scale factor is equal to 0, and setting the character height to be 2.5 times of the scale factor when the scale factor is not equal to 0.

S108-1, creating a primitive definition data table.

S109-1, establishing a text graphic primitive.

In addition, as shown in fig. 7, the method for drawing the double keels and marking the keel information in S10 includes the following steps:

s101-2, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively.

S102-2, calling a dim-ang module, and assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2 respectively.

S103-2, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a labeling value of the dimension labeling dm1 and assigning dis2.

S104-2, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, the labeling value dis2 is assigned to dis.

Values of S105-2, dis divided by 2 are assigned to dis.

S106-2, definition points 13, 14 and 10 of the reading dim1 are respectively assigned to p113, p114 and p110.

S107-2, calling a dim9 module, and calculating a p19 value of the custom point 9 with the dimension marked dm1.

S108-2, definition points 13, 14 and 10 of the reading dim2 are respectively assigned to p213, p214 and p210.

S109-2, calling a dim9 module, and calculating a p29 value of the custom point 9 with the dimension marked dm2.

S1010-2, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; calculating points p110, p114, p210 and p214, and assigning points p 2; the intersection points of the calculation points p19, p113, p29 and p213 are assigned to pt11; the points p110, p114, p29, p213 intersection are assigned to pt22.

And S1011-2, assigning points to pm in calculation points pt1 and pt2, and assigning points to pm1 in calculation points pt11 and pt22.

S1012-2, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe; with pm1 as a base point, the distances dis are shifted in the ang1 direction and the ang1 opposite direction, and ps1 and pe1 are respectively assigned.

S1013-2, creating a graphic element definition data table 1 by taking ps and pe as the starting points and the midpoints of the multi-segment lines; the primitive definition data table 2 is created with ps1, pe1 as the start and midpoint of the polyline.

S1014-2, creating 50mm wide multi-segment line drawing elements according to the data table 1 and the data table 2, and assigning values e1 and e2.

S1015-2, calling a txt-l module, and marking the rod piece specification information by taking e1 and e2 and the input specification information as parameters.

In addition, as shown in fig. 8, the method for drawing the single keel and marking the keel information in S10 includes the following steps:

s101-3, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively.

S102-3, calling a dim-ang module, and assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2 respectively.

S103-3, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a labeling value of the dimension labeling dm1 and assigning dis2.

S104-3, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, the labeling value dis2 is assigned to dis.

The value of S105-3, dis divided by 2 is assigned to dis.

S106-3, definition points 13, 14 and 10 of the reading dim1 are respectively assigned to p113, p114 and p110.

S107-3, calling a dim9 module, and calculating a p19 value of the custom point 9 with the dimension marked dm1.

S108-3, definition points 13, 14 and 10 of the reading dim2 are respectively assigned to p213, p214 and p210.

S109-3, calling a dim9 module, and calculating a p29 value of the custom point 9 with the dimension marked dm2.

S1010-3, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; the points p110, p114, p210, p214 intersection are assigned to pt2.

And S1011-3, calculating points pt1 and pt2, and assigning points to pm.

S1012-3, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe.

S1013-3, creating a primitive definition data table by taking ps and pe as the starting point and the middle point of the multi-segment line.

S1014-3, establishing a 50mm wide multi-segment line drawing element, and assigning the value to e1.

S1015-3, calling a txt-l module, and marking the specification information of the rod piece by taking e1 and the input specification information as parameters.

In addition, as shown in fig. 1, the primitive reading method of the selection set ss in S10 specifically includes the following steps:

s101-4, initializing parameters k and i are 0.

S102-4, taking out the kth primitive in the selection set ss, and assigning the name of the primitive to dm1.

S103-4, the ith primitive in the serial set sss is taken out, and the name of the primitive is assigned to dm2.

S104-4, judging whether i is 0, if i is 0, calling a dmp2 module, drawing two multi-section lines and marking information with txt content; if i is not 0, the dmp module is called, a multi-segment line is drawn, and the txt content is used for marking information.

S105-4, assigning i=i+1.

S106-4, judging whether i is smaller than n, if so, returning to S103-4; if not, the value i=0, the value k=k+1, n1=n1-1.

S107-4, whether n1 is not 0 is judged, if so, the process returns to S102-4, and if not, the process proceeds to S11.

Specifically, as shown in fig. 10, the method for calculating the character mark length or the dimension mark length in S12 includes the steps of:

s121-1, an incoming parameter primitive name and an object type.

S122-1, judging the object type, if the object type is the size marking, reading a size measurement value and a marking value, then judging whether the size marking value is 0, if the size marking value is 0, reading the size measurement value, and if the size marking value is not 0, reading the size marking value; if the object type is text, the text content is read and converted to real numbers.

In addition, as shown in fig. 2, the primitive reading method of the selection set ss in S12 specifically includes the following steps:

s121-2, one primitive in the selection set ss is taken out, and the name of the primitive is assigned.

S122-2, reading the category of the primitive, and assigning js.

S123-2, calling a dmm module, and reading the length l corresponding to the graphic element ent.

S124-2, assigned k=0, i=0.

S125-2, the ith primitive in the selection set ss is taken out, and the name of the primitive is assigned to enter.

S126-2, reading the primitive category and assigning jss.

S127-2, calling a dmm function, and reading the length l1 corresponding to the primitive enti.

Fig. 13 shows the size marking distribution, fig. 14 shows the size marking after treatment, the vertical keel is reduced by 20mm, and the horizontal keel is reduced by 74mm. Fig. 15 is a layout drawing and informatization marking of a keel obtained by using the CAD-based keel drawing and statistics method of the invention, and fig. 16 is a result file after statistical output of keels with different sizes.

On the other hand, the invention also provides an integrated keel distribution diagram drawing, informationized labeling and statistics system, which comprises a layersch module, a dim-ang module, a dim9 module, a dim910 module, a dmp2 module, a dmp module, a shuchu module, a dmm module and a txt-l module. As shown in fig. 3-11, the layerch module is configured to search for a layer according to a layer name, and when the layer does not exist, can create a layer with the layer name and the entered keel color. The dim-ang module is used for calculating the dimension marking angle. The dim9 module is used for calculating the dimension marking custom point 9. The dim910 module is used to calculate the midpoint of the custom points 9, 10. The dmp2 module is used for drawing two multi-section lines according to the intersection point of the two dimension labels and labeling keel information. The dmp module is used for drawing a single multi-section line according to the intersection point of the two dimension labels and labeling keel information. The shuchu module is used for outputting keel information, size and number. The dmm module is used for calculating the text marking length or the dimension marking length. the txt-l module is used for marking characters at the arrangement positions of the keels according to the multi-section line drawing meta information and the input keel information.

In another aspect, the invention also provides an electronic device comprising a processor and a memory for storing a computer program capable of running on the processor, wherein the processor is configured to perform the integrated keel profiling, informative labeling and statistics methods as described above when the computer program is run.

The invention can quickly realize the typesetting and informatization marking of keels and the statistics and output function of the specifications of keels of different sizes and types, and is limited to two-dimensional figures and vertical development figures.

The specific operation steps of the integral keel distribution diagram drawing, informationized marking and statistics method in the AutoCAD interactive section are as follows:

inputting hj commands by a command line, inputting keel information, inputting keel color, selecting dimension labels to be drawn and counted, selecting dimension labels for expressing keel distribution, and confirming the completion of keel arrangement and statistic result output.

In summary, the marking method adopted by the invention can realize the rapid and high-precision batch creation of arc marks according to the vertical face dividing lines, and can greatly improve the working efficiency and marking precision of designers.

The above examples are only illustrative of the preferred embodiments of the present invention and are not intended to limit the scope of the present invention, and various modifications and improvements made by those skilled in the art to the technical solution of the present invention should fall within the scope of protection defined by the claims of the present invention without departing from the spirit of the design of the present invention.

Claims (10)

1. An integrated keel distribution diagram drawing, informationized labeling and statistics method is characterized by comprising the following steps of:

s1, a function programming module, wherein a main function module for realizing function modularization comprises a layersch module, a txt-l module, a shuchu module, a dim-ang module, a dim9 module, a dim910 module, a dmp2 module and a dmm module;

s2, setting the width of the multi-section line as a certain value, reading the current file storage path as a statistical file storage path savepath, and closing object capturing;

s3, inputting keel information, assigning txt, inputting keel color and assigning color;

s4, calling a layerch module to find out whether a txt layer exists or not, and setting the existence as current; if not, newly creating a txt layer, wherein the color is color, and setting the layer with the txt as the layer name as the current layer;

s5, selecting dimension marking graphic elements needing to be counted and drawn into a keel layout, and putting the dimension marking graphic elements into a selection set ss;

s6, selecting dimension marking graphic elements representing keel distribution, and placing the dimension marking graphic elements into a selection set S1;

s7, respectively counting the element numbers n1 and n2 in the selection sets ss and S1, and assigning n=n1 and h=n2+1;

s8, sequentially reading the names of the dimension marking primitives in the S1, calling a dim910 module, repeating n2 times for the midpoints of the dimension marking in the elements of the selection set S1, and combining the midpoints and the primitive names into a new serial set sss;

s9, sequencing the serial set sss from small to large along the X, Y direction by taking the middle point as a reference;

s10, sequentially reading the pixel names of the pixels in the selection set ss for n1 times, respectively transmitting the pixel names and all the pixel names taken out from the serial set sss into a dmp2 module and a dmp module, selecting the first pixel in the serial set sss, calling the dmp2 module to draw a double keel, finishing keel drawing and keel information marking, and calling the dmp module to draw a single keel by the other pixels, finishing keel drawing and keel information marking until all the pixels in the ss are read;

s11, setting a member bar information statistical file name and a path, assigning the file name and the path to ff, calling a shuchu module to generate a header, and opening the ff in an additional mode;

s12, judging whether the number of elements in the selection set ss is 0, if not, taking out the 1 st element in the selection set ss, calling a dmm module, and calculating the text marking length or the size marking length as l; then sequentially taking out all other elements in the selection set ss, calling a dmm module, and calculating the text marking length or the size marking length as l1; comparing l1 with l, when the difference between l1 and l is smaller than 0.1mm, counting the unit k+1, putting the primitives with the same length into a selection set ss1, calling a shuchu module, respectively outputting txt, l and the number k, subtracting the primitives in ss1 from the selection set ss, and calculating the length of the selection set ss; repeating step S12 when not 0 until ending S12 when 0;

s13, closing the file ff and opening the object capture.

2. The integrated keel profiling, informative labeling and statistics method according to claim 1, wherein the method of labeling keel information in S10 comprises the steps of:

s101-1, reading a starting point and an ending point of a multi-segment line according to a graphic element;

s102-1, calling a dim-ang module, and calculating the dimension marking angle according to the positions of the end point and the starting point;

s103-1, calling a dim910 module, and calculating the midpoint of the dimension marking;

s104-1, calculating a character insertion point by taking the middle point as a base point and shifting 40mm to the direction perpendicular to the multi-section line;

s105-1, setting the character width to be 0.8 times of the length of the multi-section line;

s106-1, reading a global scale factor, a layer name and a current active tab name;

s107-1, judging whether the scale factor is 0, inputting the height of the characters when the scale factor is equal to 0, and setting the height of the characters to be 2.5 times of the scale factor when the scale factor is not equal to 0;

s108-1, creating a primitive definition data table;

s109-1, establishing a text graphic primitive.

3. The integrated keel profiling, informative labeling and statistics method according to claim 2, wherein the method of calculating the dimensioning angle in S102-1 comprises the steps of:

s1021, reading annotation definition points 10 and 14 according to the primitive names;

s1022, calculating and defining the angle between the points 10 and 14, and subtracting 90 degrees from the angle value to obtain the dimension marking angle.

4. The integrated keel profiling, informative labeling and statistics method according to claim 2, wherein the method of calculating the mid-point of the dimensioning in S103-1 comprises the steps of:

s1031, respectively reading annotation definition points 10, 13 and 14 according to the names of the primitives;

s1032, calculating an angle ang1 between the definition points 10 and 14;

s1033, subtracting 90 degrees from ang1 to obtain an angle ang2;

s1034, taking the definition point 13 as a reference point, and obtaining a temporary point 1 by shifting the ang1 direction by 100 mm; taking the definition point 10 as a reference point, and obtaining a temporary point 2 by shifting the ang2 direction by 100 mm;

s1035, calculating intersection points of the definition point 13, the temporary point 1, the definition point 10 and the temporary point 2;

s1036, assigning the intersection point to the definition point 9;

s1037, calculating the midpoint between the two points according to the definition points 9 and 10.

5. The method for drawing, informationized labeling and counting integrated keel distribution map according to claim 1, wherein the method for drawing double keels and labeling keel information in S10 comprises the following steps:

s101-2, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively;

s102-2, calling a dim-ang module, and respectively assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2;

s103-2, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a dimension marking dm1 marking value and assigning dis2;

s104-2, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, assigning a labeling value dis2 to dis;

s105-2, assigning a value of dis divided by 2 to dis;

s106-2, reading definition points 13, 14 and 10 of dim1 and respectively assigning values to p113, p114 and p110;

s107-2, calling a dim9 module, and calculating a custom point 9 with a dimension marked dm1 to be assigned with p19;

s108-2, reading definition points 13, 14 and 10 of dim2 and respectively assigning values to p213, p214 and p210;

s109-2, calling a dim9 module, and calculating a custom point 9 assigned with a dimension mark dm2 to be assigned with p29;

s1010-2, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; calculating points p110, p114, p210 and p214, and assigning points p 2; the intersection points of the calculation points p19, p113, p29 and p213 are assigned to pt11; the intersection points of the calculation points p110, p114, p29 and p213 are assigned to pt22;

s1011-2, calculating points pt1 and pt2, assigning points to pm, and calculating points pt11 and pt22, assigning points to pm1;

s1012-2, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe; taking pm1 as a base point, respectively assigning ps1 and pe1 to an ang1 direction and an ang1 opposite direction by a displacement distance dis;

s1013-2, creating a graphic element definition data table 1 by taking ps and pe as the starting points and the midpoints of the multi-segment lines; creating a graphic element definition data table 2 by taking ps1 and pe1 as the starting points and the midpoints of the multi-segment lines;

s1014-2, creating 50mm wide multi-segment line drawing elements according to a data table 1 and a data table 2, and assigning values e1 and e2;

s1015-2, calling a txt-l module, and marking the rod piece specification information by taking e1 and e2 and the input specification information as parameters.

6. The method for drawing, informationized labeling and counting integrated keel distribution map according to claim 1, wherein the method for drawing single keels and labeling keel information in S10 comprises the following steps:

s101-3, inputting function parameters, wherein the names of dimension marking graphic primitives are dm1 and dm2 respectively;

s102-3, calling a dim-ang module, and respectively assigning ang1 and ang2 to the angles of the dimension labels dm1 and dm2;

s103-3, reading a measurement value of the dimension marking dm1, and assigning dis1; reading a dimension marking dm1 marking value and assigning dis2;

s104-3, judging whether dis2 is 0, if dis2 is 0, assigning a measured value dis1 to dis; if dis2 is not 0, assigning a labeling value dis2 to dis;

s105-3, assigning a value of dis divided by 2 to dis;

s106-3, reading definition points 13, 14 and 10 of dim1, and respectively assigning values to p113, p114 and p110;

s107-3, calling a dim9 module, and calculating a custom point 9 with a dimension marked dm1 to be assigned with p19;

s108-3, reading definition points 13, 14 and 10 of dim2, and respectively assigning values to p213, p214 and p210;

s109-3, calling a dim9 module, and calculating a custom point 9 assigned with a dimension mark dm2 to be assigned with p29;

s1010-3, calculating points p19, p113, p210 and p214, and assigning intersection points to pt1; calculating points p110, p114, p210 and p214, and assigning points p 2;

s1011-3, calculating points pt1 and pt2, and assigning points to pm;

s1012-3, taking pm as a base point, shifting a distance dis to an ang1 direction and an ang1 opposite direction, and respectively assigning ps and pe;

s1013-3, creating a primitive definition data table by taking ps and pe as the starting points and midpoints of the multi-section lines;

s1014-3, establishing a 50mm wide multi-segment line drawing element, and assigning to e1;

s1015-3, calling a txt-l module, and marking the specification information of the rod piece by taking e1 and the input specification information as parameters.

7. The method for drawing, informationized labeling and counting an integrated keel distribution map according to claim 1, wherein the method for reading the primitives of the selection set ss in S10 specifically comprises the following steps:

s101-4, initializing parameters k and i to be 0;

s102-4, taking out the kth primitive in the selection set ss, and assigning the primitive name to dm1;

s103-4, taking out an ith primitive in the serial set sss, and assigning the name of the primitive to dm2;

s104-4, judging whether i is 0, if i is 0, calling a dmp2 module, drawing two multi-section lines and marking information with txt content; if i is not 0, invoking a dmp module, drawing a multi-section line and marking information with txt content;

s105-4, assigning i=i+1;

s106-4, judging whether i is smaller than n, if so, returning to S103-4; if not, the value i=0, the value k=k+1, n1=n1-1;

s107-4, whether n1 is not 0 is judged, if so, the process returns to S102-4, and if not, the process proceeds to S11.

8. The method for drawing, informationized labeling and counting an integrated keel distribution map according to claim 1, wherein the method for calculating the length of the Chinese character label or the length of the dimension label in S12 comprises the following steps:

s121-1, an incoming parameter primitive name and an object type;

s122-1, judging the object type, if the object type is the size marking, reading a size measurement value and a marking value, then judging whether the size marking value is 0, if the size marking value is 0, reading the size measurement value, and if the size marking value is not 0, reading the size marking value; if the object type is text, the text content is read and converted to real numbers.

9. The method for drawing, informationized labeling and counting an integrated keel distribution map according to claim 1, wherein the method for reading the primitives of the selection set ss in S12 comprises the following steps:

s121-2, taking out one primitive in the selection set ss, and assigning the name of the primitive;

s122-2, reading the category of the primitive, and assigning js;

s123-2, calling a dmm module, and reading the length l corresponding to the graphic element ent;

s124-2, assigning k=0, i=0;

s125-2, taking out the ith graphic element in the selection set ss, and assigning the name of the graphic element to enter;

s126-2, reading the category of the primitive, and assigning jss;

s127-2, calling a dmm function, and reading the length l1 corresponding to the primitive enti.

10. An integrated keel distribution diagram drawing, informationized marking and counting system is characterized by comprising:

the layerch module is used for searching the layer according to the layer name, and when the layer does not exist, the layer can be newly built according to the layer name and the input keel color;

the dim-ang module is used for calculating a dimension marking angle;

the dim9 module is used for calculating a dimension marking custom point 9;

the dim910 module is used for calculating the midpoints of the custom points 9 and 10;

the dmp2 module is used for drawing two multi-section lines according to the two dimension marking intersection points and marking keel information;

the dmp module is used for drawing a single multi-section line according to the intersection point of the two dimension labels and labeling keel information;

the shuchu module is used for outputting keel information, size and number;

the dmm module is used for calculating the text marking length or the dimension marking length;

and the txt-l module is used for marking characters at the arrangement positions of the keels according to the multi-section line drawing meta information and the input keel information.

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