CN116956523A - A logical inspection method and device for three-dimensional pipeline model levels - Google Patents

Abstract

The invention discloses a logic inspection method of three-dimensional pipeline model level, comprising the following steps: s1, acquiring basic data of a three-dimensional pipeline model; s2, carrying out multi-parameter combination on the basic data to obtain multi-parameter combination data, wherein the multi-parameter combination data comprises pipeline grades, pipeline branch grades, element grades, grades contained in pipeline names and grades contained in pipeline branch names; s3, matching the multi-parameter combination data; s4, judging whether the pipeline and the element level in the three-dimensional pipeline model have problems or not according to the matching result. The invention also discloses a logic inspection device of the three-dimensional pipeline model level. The invention can rapidly and accurately identify the pipeline and element grade problems in the three-dimensional pipeline model, and effectively solve the actual problems of engineering design.

Description

A logical inspection method and device for three-dimensional pipeline model levels

Technical field

The invention specifically relates to a logical inspection method and device for three-dimensional pipeline model levels that can be used in spent fuel reprocessing plant engineering design.

Background technique

In the 3D design of spent fuel reprocessing plant construction drawings, incorrect expressions of pipeline ISO diagrams, inaccurate material statistics, and different levels of pipelines in the 3D model often occur, which seriously affects the design progress, material procurement, digital delivery, and construction. schedule. After reviewing the model, it was found that there are often problems in the data where pipeline levels are different. Moreover, pipeline level problems are not easy to find and cannot be found through visualization. At present, there are no relevant patents or public pipeline grade inspection methods at home and abroad.

Contents of the invention

The technical problem to be solved by the present invention is to provide a logical inspection method and device for three-dimensional pipeline model levels in view of the above-mentioned shortcomings of the existing technology, which can quickly and accurately identify pipeline and component level problems in the three-dimensional pipeline model, and effectively Solve practical problems in engineering design.

According to a first aspect of the present invention, a three-dimensional pipeline model level logical inspection method is provided, including:

S1, obtain the basic data of the three-dimensional pipeline model;

S2. Perform multi-parameter combination on the basic data to obtain multi-parameter combination data. The multi-parameter combination data includes pipeline level, pipeline branch level, component level, the level included in the pipeline name, and the level included in the pipeline branch name. ;

S3, match the multi-parameter combination data;

S4: Based on the matching results, determine whether there are problems with the pipeline and component levels in the three-dimensional pipeline model.

Preferably, the basic data includes basic data of pipeline PIPE, basic data of pipeline branch BRAN, and basic data of component COMP;

Step S2 performs multi-parameter combination on the basic data to obtain multi-parameter combination data, which specifically includes:

According to the basic data of pipeline PIPE, the basic data of pipeline branch BRAN, and the fields representing the combination of level and project code in the basic data of component COMP, PIPEDJ, BRANDJ, and COMPDJ are extracted respectively;

According to the basic data of the pipeline PIPE, the basic data of the pipeline branch BRAN, and the fields representing the levels in the basic data attributes of the component COMP, PIPEDJ2, BRANDJ2, and COMPDJ2 are extracted respectively, and based on the basic data of the pipeline PIPE and the basic data of the pipeline branch BRAN, PIPEDJ2, BRANDJ2, and COMPDJ2 are extracted respectively. The fields representing the level in the NAME of the basic data are extracted to obtain PIPENAME and BRANNAME respectively;

BRANDJ3 is extracted based on the field representing the level in the HSTUBE of the basic data of the pipeline branch BRAN, and COMPDJ3 is extracted based on the field representing the level in the LSTUBE of the basic data of the component COMP.

Preferably, the basic data of the pipeline PIPE includes the NAME and PSPEC attributes of the pipeline PIPE;

The basic data of the pipeline branch BRAN includes the NAME, PSPEC, and HSTUBE attributes of the pipeline branch BRAN;

The basic data of the component COMP includes the NAME, SPREF, and LSTUBE attributes of the component COMP;

The three-dimensional pipeline model is a three-dimensional pipeline based on PDMS12.1SP2.

Preferably, based on the basic data of pipeline PIPE, the basic data of pipeline branch BRAN, and the fields representing the combination of level and project code in the basic data of component COMP, PIPEDJ, BRANDJ, and COMPDJ are extracted respectively, specifically including:

Obtain the NAME, PSPEC, and NAME OF ZONE attributes of PIPE in the specified area, and extract the PIPEDJ;

Obtain the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, and extract the BRANDJ;

Obtain the REFNO, SPREF, and NAME OF ZONE attributes of COMP in the specified area, and extract the COMPDJ.

Preferably, based on the basic data of the pipeline PIPE, the basic data of the pipeline branch BRAN, and the fields representing the levels in the basic data attributes of the component COMP, PIPEDJ2, BRANDJ2, and COMPDJ2 are respectively extracted, and, based on the basic data of the pipeline PIPE The fields representing the level in the NAME of the basic data of the data and pipeline branch BRAN are respectively extracted to obtain PIPENAME and BRANNAME, specifically including:

Get the NAME, PSPEC, and NAME OF ZONE attributes of PIPE in the specified area, get the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, get the REFNO, SPREF, and NAME OFZONE attributes of COMP in the specified area, and get all said PIPEDJ, said BRANDJ, and said COMPDJ;

After intercepting and processing the above-obtained data, the PIPEDJ2, the BRANDJ2, the COMPDJ2, the PIPENAME, and the BRANNAME are extracted.

Preferably, the field representing the level in the HSTUBE of the basic data of the pipeline branch BRAN is extracted to obtain BRANDJ3, and the field representing the level of the LSTUBE of the basic data of the component COMP is extracted to obtain COMPDJ3, which specifically includes:

Obtain the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, and extract the BRANDJ3;

Obtain the REFNO, SPREF, LSTUBE, and NAME OF ZONE attributes of COMP in the specified area, and extract the COMPDJ3.

Preferably, step S3 matches the multi-parameter combination data, specifically including:

(1) Compare PIPEDJ, BRANDJ, and COMPDJ. If the three are the same, it is determined that the pipeline and component levels are correct; otherwise, they are incorrect;

(2) Compare PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME. If the five are the same, it will be determined that the pipeline and component levels are correct, otherwise they are incorrect;

(3) Compare BRANDJ2 and BRANDJ3. If the two are equal, it is determined that the level of the pipeline branch itself is correct, otherwise it is incorrect, and,

Compare COMPDJ2 and COMPDJ3. If they are equal, it is judged that the component's own grade is correct, otherwise it is incorrect.

Preferably, step (1) compares PIPEDJ, BRANDJ, and COMPDJ, specifically including:

(101) Compare COMPDJ and PIPEDJ. If they are equal, it is determined that the pipeline level and the pipeline branch level are consistent; otherwise, they are inconsistent;

(102) Compare COMPDJ and BRANDJ. If they are equal, it is determined that the pipeline branch level is consistent with the component level, otherwise it is inconsistent;

If the judgment results of step (101) and step (102) are consistent, then PIPEDJ, BRANDJ, and COMPDJ are the same, otherwise they are not the same.

Preferably, step (2) compares PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME, specifically including:

(201) Compare PIPEDJ2 and COMPDJ2. If they are equal, it is determined that the pipeline grade is consistent with the component grade, otherwise they are inconsistent;

(202) Compare BRANDJ2 and COMPDJ2. If they are equal, it is determined that the pipeline branch level is consistent with the component level, otherwise it is inconsistent;

(203) Compare PIPENAME with COMPDJ2. If they are equal, it is determined that the name of the pipe is consistent with the component level, otherwise it is inconsistent;

(204) Compare BRANNAME with COMPDJ2. If they are equal, it is determined that the NAME of the pipeline branch is consistent with the component level, otherwise it is inconsistent;

(205) Compare PIPENAME with PIPEDJ2. If they are equal, it is determined that the NAME of the pipeline is consistent with the pipeline level, otherwise it is inconsistent;

(206) Compare BRANNAME with BRANDJ2. If they are equal, it is determined that the NAME of the pipeline branch is consistent with the pipeline branch level, otherwise it is inconsistent;

If the judgment results from step (201) to step (206) are all consistent, then PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME are the same, otherwise they are not the same.

According to a second aspect of the present invention, a three-dimensional pipeline model level logical inspection device is also provided, including an acquisition module, a calculation module, an inspection module, and a determination module, wherein:

The acquisition module is used to acquire basic data of the three-dimensional pipeline model;

The calculation module is connected to the acquisition module and is used to perform multi-parameter combination on the basic data to obtain multi-parameter combination data;

The inspection module is connected to the calculation module and used to match the multi-parameter combination data;

The determination module is connected to the inspection module and is used to determine whether there are problems with the pipelines and component levels in the three-dimensional pipeline model based on the matching results.

Preferably, the basic data includes basic data of pipeline PIPE, basic data of pipeline branch BRAN, and basic data of component COMP;

The computing module includes a first processing unit, a second processing unit, and a third processing unit, wherein:

The first processing unit is used to extract PIPEDJ, PIPEDJ2, and PIPENAME according to the basic data of the pipeline PIPE;

The second processing unit is used to extract BRANDJ, BRANDJ2, and BRANDJNAME according to the basic data of the pipeline branch BRAN;

The third processing unit is used to extract COMPDJ, COMPDJ2, and COMPNAME according to the basic data of the component COMP.

Preferably, the inspection module includes a first comparison unit, a second comparison unit, and a third comparison unit, wherein:

The first processing unit is connected to the first processing unit, the second processing unit, and the third processing unit respectively, and is used to obtain PIPEDJ, BRANDJ, and COMPDJ and compare them. If the three are the same , then it is determined that the pipeline and component grades are correct, otherwise they are incorrect;

The second processing unit is connected to the first processing unit, the second processing unit, and the third processing unit respectively, and is used to obtain PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME and compare them, If the five are the same, the pipe and component levels are determined to be correct, otherwise they are incorrect;

The third processing unit is connected to the second processing unit and the third processing unit respectively, and is used to obtain BRANDJ2 and BRANDJ3 and compare them. If the two are equal, it is determined that the level of the pipeline branch is correct, otherwise It is wrong, and it is also used to obtain COMPDJ2 and COMPDJ3 and compare them. If the two are equal, it is judged that the component's own level is correct, otherwise it is wrong.

Preferably, the logic inspection device further includes a display module, which is connected to the determination module and is used to display the reason why the determination result is that there are problems with the pipelines and component levels in the three-dimensional pipeline model.

According to a third aspect of the present invention, a three-dimensional pipeline model level logic inspection device is also provided, including a memory and a processor. A computer program is stored in the memory, and the processor is configured to run the computer program to implement Logic checking method at 3D piping model level as described above.

The three-dimensional pipeline model level logical inspection method and device provided by the present invention at least have beneficial effects:

(1) It can quickly and accurately identify problems at the pipeline and component levels in the three-dimensional piping model, especially for the identification of grade problems with multiple materials and types in large engineering models that affect the quality of engineering drawings. The effect is remarkable;

(2) It has strong versatility and operability, can be applied to three-dimensional pipeline models based on PDMS12.1SP2, and is upward and downward compatible with all versions of PDMS;

(3) It can be used to inspect pipeline grades in engineering design and can effectively solve practical problems in engineering design.

Description of the drawings

Figure 1 is a flow chart of a three-dimensional pipeline model level logical inspection method according to Embodiment 1 of the present invention;

Figure 2 is a schematic structural diagram of a three-dimensional pipeline model level logical inspection device according to Embodiment 2 of the present invention;

Figure 3 is a schematic structural diagram of a three-dimensional pipeline model level logical inspection device according to Embodiment 3 of the present invention.

In the figure: 21-acquisition module; 22-calculation module; 23-check module; 24-judgment module; 25-display module; 31-memory; 32-processor.

Detailed ways

In order to enable those skilled in the art to better understand the technical solutions of the present invention, the embodiments of the present invention will be described in further detail below in conjunction with the accompanying drawings.

It can be understood that the specific embodiments and drawings described here are only used to explain the present invention, but not to limit the present invention.

It can be understood that, without conflict, the embodiments and features in the embodiments of the present invention can be combined with each other.

It can be understood that, for convenience of description, only the parts related to the present invention are shown in the drawings of the present invention, and the parts irrelevant to the present invention are not shown in the drawings.

It can be understood that each unit and module involved in the embodiments of the present invention may correspond to only one entity structure, or may be composed of multiple entity structures, or multiple units and modules may be integrated into one entity structure.

It can be understood that, provided there is no conflict, the functions and steps marked in the flowcharts and block diagrams of the present invention may occur in a sequence different from that marked in the drawings.

It can be understood that the flowcharts and block diagrams of the present invention illustrate the architecture, functions, and operations of the systems, devices, equipment, and methods that may be implemented according to various embodiments of the present invention. Each box in the flow chart or block diagram may represent a unit, module, program segment, or code, which contains executable instructions for realizing the specified function. Furthermore, each block or combination of blocks in the block diagrams and flowchart illustrations may be implemented by a hardware-based system that performs the specified functions, or by a combination of hardware and computer instructions.

It can be understood that the units and modules involved in the embodiments of the present invention can be implemented in software or hardware. For example, the units and modules can be located in a processor.

Example 1

As shown in Figure 1, this embodiment discloses a logical inspection method for three-dimensional pipeline model levels, including:

S1, obtain the basic data of the three-dimensional pipeline model;

S2, based on the R&D rules, specifically, the naming rules for pipelines and component levels, perform multi-parameter combination on the basic data to obtain multi-parameter combination data;

S3, based on the research and development rules, match the parameter combination data;

S4, based on the R&D rules and matching results, determine whether there are problems with the pipeline and component levels in the three-dimensional pipeline model.

It should be noted that this three-dimensional pipeline model level logic inspection method is suitable for logical inspection of pipelines and component levels in engineering design. For example, it is used for the logic inspection of three-dimensional pipeline model levels in spent fuel reprocessing plants. It is also suitable for applications including For other three-dimensional models of the data described above and below, especially for the identification of hierarchical problems that affect the quality of engineering drawings in large engineering models, the attribute names listed when obtaining the data are only examples, because the attribute descriptions with the same meaning but different names are based on the logic of the present invention. The examples produced fall within the scope of the present invention. The pipeline system in the spent fuel reprocessing plant is large and complex. During the process of drawing the three-dimensional pipeline model, workers are prone to data errors in aspects such as the levels of pipelines and related components. These errors are not easy to find and cannot be visually searched. Currently, there are no relevant patents or published pipeline grade inspection methods at home and abroad.

Further, the basic data described in step S1 includes basic data of the pipeline (PIPE), basic data of the pipeline branch (BRAN), and basic data of the related components (COMP).

In step S2, multi-parameter combination is performed on the basic data to obtain multi-parameter combination data, which specifically includes:

According to the basic data of pipeline (PIPE), the basic data of pipeline branch (BRAN), and the fields representing the combination of level and project code in the basic data of component (COMP), PIPEDJ, BRANDJ, and COMPDJ are extracted respectively;

According to the basic data of the pipeline (PIPE), the basic data of the pipeline branch (BRAN), and the fields representing the levels in the basic data attributes of the component (COMP), PIPEDJ2, BRANDJ2, and COMPDJ2 are extracted respectively, and, according to the pipeline (PIPE) The fields representing the level in the NAME of the basic data and the basic data of the pipeline branch (BRAN) are extracted to obtain PIPENAME and BRANNAME respectively;

According to the field representing the grade in HSTUBE (straight pipe section) of the basic data of the pipeline branch (BRAN), BRANDJ3 is extracted, and according to the field representing the grade in the LSTUBE (straight pipe section) of the basic data of the component (COMP), COMPDJ3 is extracted .

In some embodiments, the basic data of the pipeline (PIPE) includes the NAME (name), PSPEC (level) attributes, etc. of the pipeline PIPE, and the basic data of the pipeline branch (BRAN) includes the NAME, PSPEC, HSTUBE attributes, etc. of the pipeline branch BRAN. The basic data of the component (COMP) includes the NAME of the component COMP, SPREF (an attribute of COMP used to store the component grade and pipe diameter information), LSTUBE attributes, etc.

In some embodiments, the three-dimensional pipeline model is preferably a three-dimensional pipeline based on PDMS12.1SP2, which is upwardly and downwardly compatible with various versions of PDMS (ie, factory three-dimensional layout design management system) (provided that the software architecture and data structure do not change) , with BRAN as the unit, the basic data obtained for the three-dimensional pipeline model in step S1 includes: obtaining the NAME, PSPEC, HSTUBE attributes, etc. of BRAN (i.e., pipeline branch), and extracting the BRANDJ, BRANDJ2, BRANDJ3, and BRANNAME of BARN; obtaining the PIPE ( That is, pipe, PIPE is the OWNER of BRAN) NAME, PSPEC and other attributes, and extract the PIPEDJ, PIPEDJ2, PIPENAME of PIPE; obtain the NAME, SPREF, LSTUBE attributes, etc. of COMP (that is, the component, all MEMBERS "members" under BRAN), etc. And extract the COMPDJ, COMPDJ2, and COMPDJ3 of COMP.

In some embodiments, PIPEDJ and BRANDJ are respectively extracted from the basic data of pipeline (PIPE), the basic data of pipeline branch (BRAN), and the fields representing the combination of level and project code in the basic data of component (COMP). , and COMPDJ, specifically including:

Obtain the NAME, PSPEC, and NAME OF ZONE (the upper level of PIPE, used to store PIPE) attributes of PIPE in the specified area, and extract the PIPEDJ. For example, intercept the PSPEC attribute of PIPE with "/" as the segmentation symbol. The second part is PIPEDJ;

Obtain the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, and extract the BRANDJ. For example, intercept the second part of the PSPEC attribute of BRAN with "/" as the segmentation symbol to be BRANDJ;

Obtain the REFNO (reference number), SPREF, and NAME OFZONE attributes of COMP (all components under the BRAN) in the specified area, and extract the COMPDJ. For example, intercept the first part of the SPREF attribute of COMP with "/" as the segmentation character , for COMPDJ.

In some embodiments, based on the basic data of the pipeline (PIPE), the basic data of the pipeline branch (BRAN), and the fields representing the levels in the basic data attributes of the component (COMP), PIPEDJ2, BRANDJ2, and COMPDJ2 are respectively extracted. , and, based on the field representing the level in the NAME of the basic data of the pipeline (PIPE) and the basic data of the pipeline branch (BRAN), extract PIPENAME and BRANNAME respectively, specifically including:

Get the NAME, PSPEC, and NAME OF ZONE attributes of PIPE in the specified area, get the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, get the REFNO, SPREF, and NAME OFZONE attributes of COMP in the specified area, and get all said PIPEDJ, said BRANDJ, and said COMPDJ;

After intercepting and processing the above obtained data, the PIPEDJ2, the BRANDJ2, the COMPDJ2, the PIPENAME, and the BRANNAME are extracted. More specifically, for example:

Intercept the part of PIPEDJ with the last 5 digits removed as PIPEJ2;

Intercept the part of BRANDJ with the last 5 digits removed as BRANDJ2;

Intercept the part of COMPDJ with the last 5 digits removed as COMPDJ2;

The fifth part of the NAME of PIPE that is separated by "-" is intercepted as PIPENAME;

Intercept the fifth part of BRAN's NAME that is delimited by "-" and remove the "/" and the part after "/" as BRANNAME.

In some embodiments, BRANDJ3 is extracted based on the field representing the level in the HSTUBE of the basic data of the pipeline branch BRAN, and COMPDJ3 is extracted based on the field representing the level in the LSTUBE of the basic data of the component COMP, specifically including:

Obtain the NAME, PSPEC, HSTUBE, and NAME OF ZONE attributes of BRAN in the specified area, and extract the BRANDJ3. For example, intercept the first part of the HSTUBE attribute of BRAN with "/" as the segmentation symbol, and remove the last 5 digits. , as BRANDJ3;

Obtain the REFNO, SPREF, LSTUBE, and NAME OF ZONE attributes of COMP in the specified area, and extract the COMPDJ3. For example, intercept the first part of the LSTUBE attribute of COMP with "/" as the segmentation symbol, and remove the last 5 digits. , as COMPDJ3.

In some embodiments, the multi-parameter combination data is matched in step S3, which at least includes comparison of pipeline levels, pipeline branch levels, component levels, levels included in pipeline names, levels included in pipeline branch names, and pipeline and Comparison of pipeline branch levels, including:

(1) Compare PIPEDJ, BRANDJ, and COMPDJ (that is, the fields representing the combination of grade and project code in PIPE, BRAN, and COMP). If the three are the same, it is determined that the pipe and component grades are correct, that is, the pipe and component grades are not correct. There is a problem, otherwise it is wrong, that is, there is a problem with the pipes and component levels;

(2) Combine PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME (that is, the fields representing the level in the PIPE, BRAN, and COMP attributes, as well as the fields representing the level in the NAME of PIPE and the fields representing the level in the NAME of BRAN). Compare between them. If the five are the same, it is determined that the pipeline and component levels are correct, that is, there is no problem with the pipeline and component levels. Otherwise, it is incorrect, that is, there is a problem with the pipeline and component levels;

(3) Compare BRANDJ2 and BRANDJ3 (i.e. BRAN's own level). If the two are equal, it is determined that the pipeline branch's own level is correct, that is, there is no problem with the pipeline branch's own level. Otherwise, it is wrong, that is, there is a problem with the pipeline branch's own level. And, compare COMPDJ2 with COMPDJ3 (that is, COMP's own level). If the two are equal, it is determined that the component's own level is correct, that is, there is no problem with the component's own level. Otherwise, it is wrong, that is, there is a problem with the component's own level.

In some more specific implementations, step (1) compares PIPEDJ, BRANDJ, and COMPDJ, specifically including:

(101) Compare COMPDJ and PIPEDJ. If they are equal, it is determined that the pipeline level and the pipeline branch level are consistent; otherwise, they are inconsistent;

(102) Compare COMPDJ and BRANDJ. If they are equal, it is determined that the pipeline branch level is consistent with the component level, otherwise it is inconsistent;

If the judgment results in step (101) and step (102) are consistent, then PIPEDJ, BRANDJ, and COMPDJ are the same, that is, the pipeline and component levels are determined to be correct. Otherwise, they are not the same, that is, in step (101) and step (102) If any one of the judgment results is inconsistent, the pipe and component grades are judged to be incorrect.

In some more specific implementations, step (2) compares PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME, specifically including:

(201) Compare PIPEDJ2 and COMPDJ2. If they are equal, it is determined that the pipeline grade is consistent with the component grade, otherwise they are inconsistent;

(202) Compare BRANDJ2 and COMPDJ2. If they are equal, it is determined that the pipeline branch level is consistent with the component level, otherwise it is inconsistent;

(203) Compare PIPENAME with COMPDJ2. If they are equal, it is determined that the name of the pipe is consistent with the component level, otherwise it is inconsistent;

(204) Compare BRANNAME with COMPDJ2. If they are equal, it is determined that the NAME of the pipeline branch is consistent with the component level, otherwise it is inconsistent;

(205) Compare PIPENAME with PIPEDJ2. If they are equal, it is determined that the NAME of the pipeline is consistent with the pipeline level, otherwise it is inconsistent;

(206) Compare BRANNAME with BRANDJ2. If they are equal, it is determined that the NAME level of the pipeline branch is consistent with the pipeline branch level, otherwise it is inconsistent;

If the determination results from steps (201) to (206) are consistent, then PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME are the same, that is, the pipeline and component levels are determined to be correct. Otherwise, they are not the same, that is, step (101) and step If any one of the judgment results in (102) is inconsistent, then the pipeline and component grades are judged to be incorrect.

It should be noted that the grade in this article is the part of the attribute indicating the pipe grade assigned to PIPE and BRAN in the database, and the SPREF of COMP (an attribute of COMP, used to store this component grade and pipe diameter information). Different The database may have different level values, which may be any letters, numbers, or a combination of letters and numbers. All similar logical methods expressed in the form of variables are within the scope of the present invention. In this article, the separation and number of parts with certain symbols are not absolute. The intention is to obtain the character segment where the pipeline level is located. Use the delimiter to get a segment or get the number from the front, middle, back, forward or backward of a certain character, etc. All are within the protection scope of the present invention.

Take the PSPEC attribute of BRAN and PIPE as "HJ1-BASE" in this article as an example. The first H represents the wall thickness grade of the pipe, the second J represents the pipe material, and the four digits after "-" represent the project code. , this logic checking method is described in detail, as follows:

PIPEDJ (variable name) represents the field in PIPE that represents the combination of level and project code (that is, the PSPEC attribute of PIPE, such as HJ1-BASE);

PIPEDJ2 (variable name) represents the field representing the level in PIPE (extracted from PSPEC, such as HJ1-BASE after extraction);

BRANDJ (variable name) represents the field in BRAN that represents the combination of level and project code;

BRANDJ2 (variable name) represents the field representing the level in BRAN (extracted from PSPEC, such as HJ1-BASE after extraction);

BRANDJ3 (variable name) represents the field representing the level in BRAN (extracted from HSTUBE, such as HJ1-BASE/TUBE-15 after extraction to HJ1);

COMPDJ (variable name) represents the field in COMP that represents the combination of level and project code;

COMPDJ2 (variable name) represents the field characterizing the level in COMP (extracted from SPREF);

COMPDJ3 (variable name) represents the field characterizing the level in COMP (extracted from LSTUBE);

PIPENAME (variable name) represents the field representing the level in the NAME of PIPE;

BRANNAME (variable name) represents the field in the NAME of BRAN that represents the level.

If the values of PIPEDJ and COMPDJ are equal, and the values of BRANDJ and COMPDJ are the same, the pipe and component grades are correct;

If the values of PIPEDJ and COMPDJ are different, it is determined that the PIPE level is inconsistent with the COMP level;

If the values of BRANDJ and COMPDJ are different, it is determined that the BRAN level and the COMP level are inconsistent.

If the values of PIPEDJ2 and COMPDJ2 are the same, the values of BRANDJ2 and COMPDJ2 are the same, the values of BRANNAME and COMPDJ2 are the same, the values of PIPENAME and COMPDJ2 are the same, the values of BRANNAME and BRANDJ2 are the same, the values of PIPENAME and PIPEDJ2 are the same, then there is no problem with the pipeline grade;

If the values of PIPEDJ2 and COMPDJ2 are different, it is determined that the PIPE level is inconsistent with the COMP level;

If the values of BRANDJ2 and COMPDJ2 are different, it is determined that the BRAN level and the COMP level are inconsistent;

If the values of PIPENAME and COMPDJ2 are different, it is determined that the NAME of PIPE is inconsistent with the COMP level.

If the values of BRANNAME and COMPDJ2 are different, it is determined that the NAME of BRAN is inconsistent with the COMP level;

If the values of PIPENAME and PIPEDJ2 are different, it is determined that the NAME of PIPE is inconsistent with the PIPE level;

If the values of BRANNAME and BRANDJ2 are different, it is determined that the NAME of BRAN is inconsistent with the BRAN level.

If the values of BRANDJ2 and BRANDJ3 are the same, then BRAN's own level is correct. If the values of BRANDJ2 and BRANDJ3 are different, it is determined that there is a problem with BRAN's own level;

If the values of COMPDJ2 and COMPDJ3 are the same, it is determined that the level of COMP itself is correct. If the values of COMPDJ2 and COMPDJ3 are different, it is determined that there is a problem with the level of COMP itself.

The three-dimensional pipeline model level logical inspection method disclosed in this embodiment can at least achieve the following technical effects:

(1) Ability to quickly and accurately identify problems with pipelines and component grades in three-dimensional pipeline models (including grade inconsistencies, name errors, etc.), especially for multiple materials and types (especially micro and small) in large engineering models. Inconsistent grades that affect the quality of engineering drawings have significant effects;

(2) It has strong versatility and operability, can be applied to three-dimensional pipeline models based on PDMS12.1SP2, and is upward and downward compatible with all versions of PDMS;

(3) It can be used to inspect pipeline grades in engineering design and can effectively solve practical problems in engineering design.

Example 2

As shown in Figure 2, this embodiment discloses a three-dimensional pipeline model level logic inspection device for use in the logic inspection method described in the embodiment. The device includes an acquisition module 21, a calculation module 22, an inspection module 23, and a determination module. 24, of which:

Acquisition module 21, used to obtain basic data of the three-dimensional pipeline model;

The calculation module 22 is connected to the acquisition module 21 and is used to perform multi-parameter combination on the basic data obtained by the acquisition module to obtain multi-parameter combination data;

The inspection module 23 is connected to the calculation module 22 and is used to match the multi-parameter combination data obtained by the calculation module;

The determination module 24 is connected to the inspection module 23 and is used to determine whether there are problems with the pipelines and component levels in the three-dimensional pipeline model based on the matching results.

Specifically, the acquisition module 21 in the logic inspection device is connected to the three-dimensional design software and is used for the basic data of the three-dimensional pipeline model in the three-dimensional design software. The basic data includes the basic data of the pipeline (PIPE) and the pipeline branch (BRAN). The basic data of the pipeline (PIPE) and the basic data of the component (COMP). The basic data of the pipeline (PIPE) includes the NAME and PSPEC attributes of the pipeline PIPE. The basic data of the pipeline branch (BRAN) includes the NAME, PSPEC and HSTUBE of the pipeline branch BRAN. Attributes, etc. The basic data of the component (COMP) includes the NAME, SPREF, LSTUBE attributes of the component COMP, etc.

In some embodiments, the computing module 22 includes a first processing unit, a second processing unit, and a third processing unit, and the first processing unit, the second processing unit, and the third processing unit are all connected to the acquisition module 21, wherein:

The first processing unit is used to extract PIPEDJ, PIPEDJ2, and PIPENAME based on the basic data of the pipeline (PIPE);

The second processing unit is used to extract BRANDJ, BRANDJ2, and BRANDJNAME based on the basic data of the pipeline branch (BRAN);

The third processing unit is used to extract COMPDJ, COMPDJ2, and COMPNAME based on the basic data of the component (COMP).

In some embodiments, the inspection module 23 includes a first comparison unit, a second comparison unit, and a third comparison unit, wherein:

The first processing unit is connected to the first processing unit, the second processing unit, and the third processing unit respectively, and is used to obtain PIPEDJ, BRANDJ, and COMPDJ and compare them. If the three are the same, determine that the pipeline and component levels are correct. , that is, there is no problem with the pipeline and component level, otherwise it is wrong, that is, there is a problem with the pipeline and component level;

The second processing unit is connected to the first processing unit, the second processing unit, and the third processing unit respectively, and is used to obtain PIPEDJ2, BRANDJ2, COMPDJ2, PIPENAME, and BRANNAME and compare them. If the five are the same, determine the pipeline and component levels are correct, that is, there are no problems with the pipelines and component levels; otherwise, there are errors, that is, there are problems with the pipelines and component levels;

The third processing unit is connected to the second processing unit and the third processing unit respectively, and is used to obtain BRANDJ2 and BRANDJ3 and compare them. If the two are equal, it is determined that the pipeline branch's own level is correct, that is, the pipeline branch's own level does not exist. problem, otherwise it is wrong, that is, there is a problem with the level of the pipeline branch itself, and it is also used to obtain COMPDJ2 and COMPDJ3 and compare them. If the two are equal, it is determined that the level of the component itself is correct, that is, there is no problem with the level of the component itself, otherwise Wrong, that is, there is a problem with the component's own grade.

The determination module 24 is connected to the first comparison unit, the second comparison unit, and the third comparison unit respectively, and is used to obtain the comparison results in the first comparison unit, the second comparison unit, and the third comparison unit, thereby completing the above determination.

It is easy to understand that, regarding the above comparison results of the pipelines and component levels in the three-dimensional pipeline model, as long as any comparison result is different or unequal, it is determined that the pipelines and component levels in the three-dimensional pipeline model are incorrect, that is, there is question.

In some embodiments, the logic checking device also includes a display module 25, which is connected to the determination module 24 and used to display the reasons why the determination result is a problem.

Specifically, if the values of PIPEDJ and COMPDJ are different, that is, when it is determined that the PIPE level is inconsistent with the COMP level, NAME OF ZONE, COMP's NAME, COMPDJ, BRANDJ, PIPEDJ, etc. will be displayed in the window list, and the reason for the inconsistency will be marked as "PIPE level" "Inconsistent with COMP level", by obtaining the REFNO attribute of this PIPE, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of BRANDJ and COMPDJ are different, that is, when it is determined that the BRAN level is inconsistent with the COMP level, NAME OFZONE, COMP's NAME, COMPDJ, BRANDJ, PIPEDJ, etc. will be displayed in the window list, and the reason for the inconsistency will be marked as "BRAN level is inconsistent with COMP level". By obtaining the REFNO attribute of this BRAN, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of PIPEDJ2 and COMPDJ2 are different, that is, when it is determined that the PIPE level is inconsistent with the COMP level, NAMEOF ZONE, COMP's NAME, COMPDJ, BRANDJ, PIPEDJ, are displayed in the window list, and the reason for the inconsistency is marked as "PIPE level is inconsistent with COMP level" , by obtaining the REFNO attribute of this BRAN, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of BRANDJ2 and COMPDJ2 are different, that is, when it is determined that the BRAN level is inconsistent with the COMP level, NAMEOF ZONE, COMP's NAME, COMPDJ, BRANDJ, PIPEDJ, are displayed in the window list, and the reason for the inconsistency is marked as "BRAN level is inconsistent with COMP level" , by obtaining the REFNO attribute of this BRAN, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of PIPENAME and COMPDJ2 are different, that is, when it is determined that the NAME of PIPE is inconsistent with the level of COMP, the NAME OF ZONE, the NAME of COMP, COMPDJ, BRANDJ, PIPEDJ, BRANNAME, and PIPENAME are displayed in the window list, and the reason for the inconsistency is marked as "PIPE's NAME is inconsistent with the COMP level." By obtaining the REFNO attribute of this PIPE, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of BRANNAME and COMPDJ2 are different, that is, when it is determined that the NAME of BRAN is inconsistent with the level of COMP, the NAME OF ZONE, the NAME of COMP, COMPDJ, BRANDJ, PIPEDJ, BRANNAME, and PIPENAME are displayed in the window list, and the reason for the inconsistency is marked as "BRAN's NAME is inconsistent with the COMP level." By obtaining the REFNO attribute of this BRAN, you can right-click to load it into the three-dimensional view and display it in the center;

If the values of PIPENAME and PIPEDJ2 are different, that is, when it is determined that the NAME of PIPE is inconsistent with the PIPE level, NAME OF ZONE, PIPEDJ, and PIPENAME will be displayed in the window list, and the reason for the inconsistency is marked as "The NAME of PIPE is inconsistent with the PIPE level", and the obtained The REFNO attribute of this PIPE can be loaded into the three-dimensional view by right-clicking and displayed in the center;

If the values of BRANNAME and BRANDJ2 are different, that is, when it is determined that the NAME of BRAN is inconsistent with the BRAN level, NAME OF ZONE, BRANDJ, PIPEDJ, BRANNAME, and PIPENAME are displayed in the window list, and the reason for the inconsistency is marked as "The NAME of BRAN is inconsistent with the BRAN level." By obtaining the REFNO attribute of this BRAN, you can right-click to load it into the three-dimensional view and display it in the center.

If the values of BRANDJ2 and BRANDJ3 are different, that is, when it is determined that there is a problem with BRAN's own level, NAME OFZONE, BRANNAME, BRANDJ, PIPEDJ, etc. will be displayed in the window list, and the reason for the inconsistency is marked as "There is a problem with BRAN's own level". Through the obtained BRAN's REFNO attribute can be loaded into the 3D view by right-clicking and displayed in the center;

If the values of COMPDJ2 and COMPDJ3 are different, that is, when it is determined that there is a problem with COMP's own level, NAME OFZONE, COMP's NAME, COMPDJ, BRANDJ, PIPEDJ, etc. are displayed in the window list, and the reason for the inconsistency is marked as "There is a problem with COMP's own level", and the The REFNO attribute of this COMP can be loaded into the three-dimensional view by right-clicking and displayed in the center.

In summary, the logic checking device for three-dimensional pipeline model levels in this embodiment can quickly and accurately identify problems (including level inconsistencies, name errors, etc.) in pipelines and component levels in three-dimensional pipeline models, especially for large-scale engineering models. The effect is significant when there are multiple materials and types (especially micro and small) with inconsistent levels that affect the quality of engineering drawings. Compared with visual manual recognition, its efficiency and accuracy have obvious advantages. This logic inspection device is used to inspect pipeline levels in engineering design, and can effectively solve practical problems in engineering design.

Example 3

As shown in Figure 3, this embodiment discloses a three-dimensional pipeline model level logical inspection device, which includes a memory 31 and a processor 32. A computer program is stored in the memory, and the processor is configured to run the computer program. To implement the three-dimensional pipeline model level logical inspection method as described in Embodiment 1.

The logic inspection device for the three-dimensional pipeline model level disclosed in this embodiment can quickly and accurately identify problems (including level inconsistencies, name errors, etc.) in the pipeline and component levels in the three-dimensional pipeline model, especially for multiple types of large-scale engineering models. The effect is significant when the material, type (especially micro and small) and the grade that affect the quality of engineering drawings are inconsistent. Compared with visual manual identification, its efficiency and accuracy have obvious advantages. This logic inspection device is used to inspect pipeline levels in engineering design, and can effectively solve practical problems in engineering design.

It can be understood that the above embodiments are only exemplary embodiments adopted to illustrate the principles of the present invention, but the present invention is not limited thereto. For those of ordinary skill in the art, various modifications and improvements can be made without departing from the spirit and essence of the present invention, and these modifications and improvements are also regarded as the protection scope of the present invention.

Claims (14)

1. A method for logically inspecting a three-dimensional pipeline model level, comprising:

s1, acquiring basic data of a three-dimensional pipeline model;

s2, carrying out multi-parameter combination on the basic data to obtain multi-parameter combination data, wherein the multi-parameter combination data comprises pipeline grades, pipeline branch grades, element grades, grades contained in pipeline names and grades contained in pipeline branch names;

s3, matching the multi-parameter combination data;

s4, judging whether the pipeline and the element level in the three-dimensional pipeline model have problems or not according to the matching result.

2. The method of claim 1, wherein the base data includes base data of PIPE, base data of PIPE branch BRAN, and base data of component COMP;

step S2, carrying out multi-parameter combination on the basic data to obtain multi-parameter combination data, wherein the method specifically comprises the following steps:

extracting PIPEDJ, BRANDJ and COMPDJ respectively according to the basic data of the pipeline PIPE, the basic data of the pipeline branch BRAN and the fields of the combination of the expression level and the project code of the basic data of the element COMP;

Extracting fields of the expression level according to the basic data of the pipeline PIPE, the basic data of the pipeline branch BRAN and the basic data attribute of the element COMP to obtain PIPEDJ2, BRANDJ2 and COMPDJ2 respectively, and extracting PIPENAME, BRANNAME according to the basic data of the pipeline PIPE and the fields of the expression level of NAME of the basic data of the pipeline branch BRAN respectively;

and extracting BRANDJ3 according to the field of the grade of the expression in the HSTUBE of the basic data of the pipeline branch BRAN, and extracting COMPDJ3 according to the field of the grade of the expression in the LSTUBE of the basic data of the element COMP.

3. The method of claim 2, wherein the base data of the PIPE includes NAME, PSPEC attributes of the PIPE;

the basic data of the pipeline branch BRAN comprises NAME, PSPEC, HSTUBE attributes of the pipeline branch BRAN;

the basic data of the element COMP includes NAME, SPREF, LSTUBE attributes of the element COMP;

the three-dimensional pipeline model is a PDMS12.1SP2-based three-dimensional pipeline.

4. A method for inspecting a three-dimensional pipeline model according to claim 3, wherein the extracting the fields of the combination of the representation level and the item code according to the basic data of the pipeline PIPE, the basic data of the pipeline branch BRAN, and the basic data of the component COMP respectively to obtain PIPEDJ, BRANDJ and COMP dj specifically comprises:

Acquiring NAME, PSPEC and NAME OF ZONE attributes OF PIPE in a designated area, and extracting to obtain PIPEDJ;

acquiring NAME, PSPEC, HSTUBE and NAME OF ZONE attributes OF BRAN in a designated area, and extracting to obtain BRANDJ;

and obtaining REFNO, SPREF and NAME OF ZONE attributes OF COMP in the designated area, and extracting to obtain the COMPDJ.

5. A method for inspecting a three-dimensional pipeline model according to claim 3, wherein the extracting the fields characterizing the grades according to the basic data of pipeline PIPE, the basic data of pipeline branch BRAN, and the basic data attribute of component COMP to obtain pipdj 2, BRANDJ2, and COMPDJ2, respectively, and extracting the fields characterizing the grades according to the basic data of pipeline PIPE and the NAME of the basic data of pipeline branch BRAN to obtain PIPENAME, BRANNAME, respectively, specifically includes:

acquiring NAME, PSPEC and NAME OF ZONE attributes OF PIPE in a specified area, acquiring NAME, PSPEC, HSTUBE and NAME OF ZONE attributes OF BRAN in the specified area, acquiring REFNO, SPREF and NAME OF ZONE attributes OF COMP in the specified area, and acquiring PIPEDJ, BRANDJ and COMPDJ;

and after intercepting the acquired data, extracting to obtain the PIPEDJ2, the BRANDJ2, the COMPDJ2, the PIPENAME and the BRANNAME.

6. A method for checking logic of three-dimensional pipeline model level according to claim 3, wherein the extracting the field of the level in HSTUBE of the basic data of the branch of pipeline to obtain BRANDJ3, and extracting the field of the level in LSTUBE of the basic data of the component COMP to obtain COMP dj3 specifically includes:

acquiring NAME, PSPEC, HSTUBE and NAME OF ZONE attributes OF BRAN in a designated area, and extracting to obtain BRANDJ3;

and acquiring REFNO, SPREF, LSTUBE and NAME OF ZONE attributes OF COMP in the designated area, and extracting to obtain COMPDJ3.

7. The method for checking the logic of the three-dimensional pipeline model level according to claim 2, wherein step S3 matches the multi-parameter combination data, specifically comprises:

(1) PIPEDJ, BRANDJ, COMPDJ is compared, if the three are the same, the pipeline and the element grade are judged to be correct, otherwise, the pipeline and the element grade are judged to be correct;

(2) Comparing the PIPEDJ2, BRANDJ2, COMPDJ2 and PIPENAME, BRANNAME, if the five are the same, judging that the grades of the pipeline and the element are correct, otherwise, judging that the grades of the pipeline and the element are correct;

(3) Comparing BRANDJ2 with BRANDJ3, if the two are equal, judging that the grade of the pipeline branch is correct, otherwise, the pipeline branch is incorrect, and,

Comparing COMPDJ2 with COMPDJ3, if the two are equal, judging that the self grade of the element is correct, otherwise, judging that the element is incorrect.

8. The method of logical inspection of three-dimensional pipeline model ratings according to claim 7, wherein step (1) compares PIPEDJ, BRANDJ, COMPDJ, and specifically comprises:

(101) Comparing COMPDJ with PIPEDJ, if the COMPDJ and the PIPEDJ are equal, judging that the pipeline grade is consistent with the pipeline branch grade, otherwise, judging that the COMPDJ and the PIPEDJ are inconsistent;

(102) Comparing COMPDJ with BRANDJ, if the COMPDJ and the BRANDJ are equal, judging that the branch grade of the pipeline is consistent with the grade of the element, otherwise, judging that the branch grade of the pipeline is inconsistent with the grade of the element;

if the judging results of the step (101) and the step (102) are consistent, the PIPEDJ, BRANDJ, COMPDJ are the same, otherwise, the PIPEDJ, BRANDJ, COMPDJ are different.

9. The method for checking the logic of the three-dimensional pipeline model according to claim 7, wherein the step (2) compares five of PIPEDJ2, BRANDJ2, COMPDJ2 and PIPENAME, BRANNAME, and specifically comprises:

(201) Comparing PIPEDJ2 with COMPDJ2, if the PIPEDJ2 and COMPDJ2 are equal, judging that the pipeline grade is consistent with the element grade, otherwise, judging that the pipeline grade is inconsistent with the element grade;

(202) Comparing BRANDJ2 with COMPDJ2, if the BRANDJ2 and COMPDJ2 are equal, judging that the branch grade of the pipeline is consistent with the grade of the element, otherwise, judging that the branch grade of the pipeline is inconsistent with the grade of the element;

(203) Comparing the PIPENAME with COMPDJ2, if the PIPENAME and COMPDJ2 are equal, judging that NAME of the pipeline is consistent with the element level, otherwise, judging that NAME of the pipeline is inconsistent with the element level;

(204) Comparing BRANNAME with COMPDJ2, if the BRANNAME and COMPDJ2 are equal, judging that NAME of the pipeline branch is consistent with the element grade, otherwise, judging that NAME of the pipeline branch is inconsistent with the element grade;

(205) Comparing the PIPENAME with the PIPEDJ2, if the PIPENAME and the PIPEDJ2 are equal, judging that NAME of the pipeline is consistent with the pipeline grade, otherwise, judging that NAME of the pipeline is inconsistent;

(206) Comparing BRANNAME with BRANDJ2, if the BRANNAME and the BRANDJ2 are equal, judging that NAME of the pipeline branch is consistent with the pipeline branch grade, otherwise, judging that NAME of the pipeline branch is inconsistent with the pipeline branch grade;

if the determination results in steps (201) to (206) are all consistent, the five steps of PIPEDJ2, BRANDJ2, COMPDJ2 and PIPENAME, BRANNAME are the same, otherwise, the determination results are different.

10. A logic inspection device for three-dimensional pipeline model grade is characterized by comprising an acquisition module, a calculation module, an inspection module and a judgment module,

the acquisition module is used for acquiring basic data of the three-dimensional pipeline model;

the computing module is connected with the acquisition module and is used for carrying out multi-parameter combination on the basic data to obtain multi-parameter combination data;

The checking module is connected with the calculating module and is used for matching the multi-parameter combination data;

and the judging module is connected with the checking module and is used for judging whether the pipeline and the element level in the three-dimensional pipeline model have problems according to the matching result.

11. The logic inspection apparatus of three-dimensional pipeline model level according to claim 10, wherein the base data includes base data of pipeline PIPE, base data of pipeline branch BRAN, and base data of component COMP;

the computing module comprises a first processing unit, a second processing unit and a third processing unit,

the first processing unit is configured to extract PIPEDJ, PIPEDJ and PIPE according to the basic data of the PIPE;

the second processing unit is configured to extract BRANDJ, BRANDJ2 and BRANDJNAME according to the basic data of the pipeline branch BRAN;

the third processing unit is configured to extract COMPDJ, COMPDJ and COMP name according to the basic data of the component COMP.

12. The apparatus of claim 11, wherein the inspection module comprises a first comparison unit, a second comparison unit, and a third comparison unit,

The first processing unit is respectively connected with the first processing unit, the second processing unit and the third processing unit and is used for acquiring PIPEDJ, BRANDJ, COMPDJ and comparing the PIPEDJ, BRANDJ, COMPDJ, if the PIPEDJ, BRANDJ, COMPDJ and the PIPEDJ, BRANDJ, COMPDJ are the same, the pipeline and the element grade are judged to be correct, otherwise, the pipeline and the element grade are judged to be correct;

the second processing unit is respectively connected with the first processing unit, the second processing unit and the third processing unit and is used for acquiring PIPEDJ2, BRANDJ2, COMPDJ2 and PIPENAME, BRANNAME and comparing the PIPEDJ2, BRANDJ2, COMPDJ2 and COMPDJ2 with the COMPDJ2 and the COMPDJ 48, and if the PIPEDJ2, the BRANDJ2, the COMPDJ2 and the COMPDJ 48 are the same, the pipeline and the element grade are judged to be correct, and otherwise, the pipeline and the element grade are judged to be correct;

the third processing unit is respectively connected with the second processing unit and the third processing unit and is used for acquiring and comparing BRANDJ2 and BRANDJ3, if the two are equal, judging that the grade of the pipeline branch is correct, otherwise, the pipeline branch is incorrect,

and the device is also used for acquiring COMPDJ2 and COMPDJ3 and comparing the COMPDJ2 and the COMPDJ3, if the COMPDJ2 and the COMPDJ3 are equal, the self grade of the element is judged to be correct, otherwise, the element is judged to be correct.

13. The apparatus for logical inspection of three-dimensional pipeline model level according to claim 10, further comprising a display module,

The display module is connected with the judging module and used for displaying the reason that the judging result is that the pipeline and the element level in the three-dimensional pipeline model are problematic.

14. A logic inspection device for three-dimensional pipeline model classes, characterized in that it comprises a memory in which a computer program is stored and a processor arranged to run the computer program to implement the logic inspection method for three-dimensional pipeline model classes according to any of claims 1-9.