CN110990336A - Industrial control-oriented function design method and system - Google Patents
Industrial control-oriented function design method and system Download PDFInfo
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Abstract
The invention relates to a function design method, a system, a device, computer equipment and a storage medium for industrial control, wherein the method comprises the following steps: traversing a system model library according to the system model in the demand information; if the system model base does not have the engineering file corresponding to the system model, creating the engineering file corresponding to the system model according to the requirement information, and creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the engineering file; the engineering file and the partition are in a logic parent-child relationship, the partition and the primary function are in a logic parent-child relationship, the primary function and the secondary function are in a logic parent-child relationship, the secondary function and the tertiary function are in an incidence relationship, and the secondary function and the physical quantity flow are in a logic parent-child relationship, so that the waste of resources is reduced, the function of user demand information can be more detailed, and the function is more complete.
Description
Technical Field
The invention relates to the field of electromechanical management systems, in particular to a function design method, a system, a device, computer equipment and a storage medium for industrial control.
Background
With the deep implementation of the design mode of the top-down electromechanical management system, the requirements on the decomposition of the original required functions and the effective relationship among all engineering activities are higher and higher. At present, IBM DOORS tools are adopted for function refinement, but the DOORS is a set of general tools for a plurality of industries, and has the problems of resource waste and incomplete functions.
Disclosure of Invention
In view of the foregoing, it is necessary to provide a functional design method and system for industrial control, which is directed to the problem that the hierarchy is not fine enough and the customizable graphic design capability is not available.
A method of functional design for industrial control, the method comprising:
traversing a system model library according to the system model in the demand information;
if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is newly built according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file, wherein the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an incidence relationship, and the secondary function and the physical quantity stream are in a logical parent-child relationship.
In one embodiment, creating partitions, primary functional data, secondary functional data, tertiary functional data, and physical quantity streams under the engineering file includes:
creating related data of the partitions under the project files, wherein the related data of the partitions comprise names, locking information and updating time;
creating related data of a primary function under the partition, wherein the related data of the primary function comprises a function name and a function description of the primary function;
creating related data of a secondary function and a tertiary function under the primary function, wherein the related data of the secondary function comprises a function name and a function description of the secondary function; the related data of the three-level functions comprise function names and function descriptions of the three-level functions;
creating a physical quantity flow under the secondary function.
In one embodiment, the method further comprises:
if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow;
and operating the existing engineering file according to the operation flow to obtain the engineering file.
In one embodiment, the determining the operation flow according to the function level of the demand information includes:
if the function level belongs to the newly added partition, the operation flow comprises: creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the existing engineering files;
if the function level belongs to the newly added function data, the operation process comprises the following steps: and locking the partition according to the requirement information, and adding primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the locked partition.
In one embodiment, the method further comprises:
acquiring baseline establishment information;
establishing a new baseline for the engineering file according to the baseline establishing information;
acquiring a baseline difference between the newly-built baseline of the engineering file and a preset engineering file baseline; the preset engineering file is an existing engineering file or a default engineering file; the baseline difference is used to show modified baseline data.
In one embodiment, the method comprises:
acquiring an engineering file obtained by the method according to claims 1-5;
acquiring differential data of the engineering file and a preset engineering file, wherein the preset engineering file is an existing engineering file or a default engineering file;
and updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file.
In one embodiment, the method further comprises:
acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file;
determining the display position of the three-level functional data and the physical quantity flow in the interface of the client;
obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client;
and obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file.
An industrial control-oriented function design system comprises a server and a client, wherein the server is in communication connection with the client,
the server is used for receiving the demand information of the client and traversing the system model library according to the system model in the demand information; if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is newly built according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file, wherein the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an association relationship, and the secondary function and the physical quantity stream are in a logical parent-child relationship; if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow;
the client is used for acquiring the project file; acquiring differential data according to the project file and a preset project file, wherein the preset project file is an existing project file or a default project file; updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file, and acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file; determining the display position of the three-level functional data and the physical quantity flow in the interface of the client; obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client; obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file; sending the function tree of the engineering file and the picture to a server;
the server is also used for saving the function tree and the picture of the project file at a preset position.
A server comprising a memory, a processor and a computer program stored on the memory and executable on the processor, the processor implementing the steps of the method of any one of claims 1 to 6 when executing the computer program.
A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the steps of the method of any one of claims 1 to 7.
According to the function design method for industrial control, the engineering file is firstly established through hierarchical design according to the requirement information of the user, the partition, the first-level function data, the second-level function data, the third-level function data and the physical quantity stream are established under the engineering file, and the obtained requirement engineering file not only reduces the waste of resources, but also enables the function of the requirement information of the user to be more precise and complete.
Drawings
FIG. 1 is a diagram of an application environment of a functional design method for industrial control in one embodiment;
FIG. 2 is a flow diagram of a functional design methodology for industrial control in one embodiment;
FIG. 3 is a flow diagram illustrating a design process when an engineering document already exists in the industrial control-oriented functional design method, according to an embodiment;
FIG. 4 is a flow diagram of establishing a baseline in an industrial control oriented functional design method in one embodiment;
FIG. 5 is a flow diagram of obtaining a function tree in an industrial control-oriented function design method, under an embodiment;
FIG. 6 is a flow diagram of secondary function generation in the industrial control-oriented function design method in one embodiment;
FIG. 7 is a functional design system interaction diagram for industrial control in one embodiment;
fig. 8 is a schematic internal configuration diagram of a server in one embodiment.
Detailed Description
In order to make the objects, technical solutions and advantages of the present application more apparent, the present application is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present application and are not limiting of the present application.
The industrial control-oriented function design method provided by the application can be applied to the application environment shown in fig. 1. The client is used for collecting the demand information of the user, the demand information is sent to the server for the user according to the requirement provided by the user's own demand, and the server is used for receiving the demand information provided by the client, responding to the demand information, processing the demand information and sending the processing result to the client.
The server and the client establish TCP communication, and complete various requirements from the client through the TCP communication, optionally, the requirement information may include: newly building a project file in a database, and performing one or more of information such as newly adding partitions, newly adding functions, deleting functions, modifying function attributes, copying functions, locking/unlocking partitions by taking the function partitions as units on the existing project file in the database; wherein, the client can include: a GUI layer, a Control layer and a service layer; the GUI layer is used for displaying an interface operated by a user, the user fills in operation information, the control layer is used for identifying data received by the client, performing data packet packaging and performing TCP communication with the server, the service layer is used for providing an interface and corresponding interface functions, and the provided interface comprises: data interface, picture conversion interface, FTP interface, and the like. The server includes: the system comprises a thread pool, load balancing, TCP/UPD communication and a remote database, wherein the thread pool is used for managing threads responding to the requirements of a client, the load balancing is used for improving the data processing capacity of a server, the TCP/UPD communication is used for establishing communication connection with the client, and the remote database is used for receiving files uploaded by a user through the client.
Where a login is typically required before the server performs the operation. A user can typically log in by encrypting the code with a username.
Specifically, the user may log in through the following login procedures:
and the client sends the user name and the password to the server, and if the user name and the password pass the verification of the server, the client displays a selection picture.
And if the user name and the password cannot pass the verification of the server, the client prompts that the password of the user is wrong.
In one embodiment, as shown in fig. 2, there is provided an industrial control oriented function design method, which is described by taking the method as an example for the server in fig. 1, and includes the following steps:
step S110: and traversing the system model library according to the system model in the demand information.
Wherein the requirement information may include: and designing one or more of model data, partition names, function identifiers, function names, function description information and the like of the system. The model data of the design system comprises model numbers, names and baseline versions; for example, the model number of the design system is TCLXXX.
The system model library includes all engineering files created according to the design system.
Specifically, after the user successfully logs in, the client fills in the requirement information, and the client sends the requirement information to the server. And after receiving the demand information, the server searches a corresponding engineering file in a system model library according to the demand information.
Step S120: if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is created according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file.
The engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an association relationship, and the secondary function and the physical quantity flow are in a logical parent-child relationship.
Specifically, an engineering file corresponding to the system model is established, after the engineering file is established successfully, the engineering file is opened, a newly added partition is started under the engineering file, and functions including a primary function, a secondary function, a tertiary function and a physical quantity flow are newly added under the newly added partition.
According to the function design method facing the industrial control, the hierarchical design is carried out according to the requirement information of the user, the project file is established, and then the newly added partition and the newly added function are sequentially carried out, so that the hierarchical design is realized, the waste of resources is reduced, the function of the requirement information of the user is more precise, and the function is more complete.
In one embodiment, step S120 includes:
and creating related data of the partitions under the project files.
The related data of the partition comprises a name, locking information and updating time, wherein the name can be a Chinese name or an English name, and the locking information is a locking state and a locking user.
Specifically, the requirement information includes a newly added partition, a partition is established for the same type of functions under the newly created project file, and a Chinese name and an English name are established for the partition. Alternatively, the newly added partition may be a control partition, a display partition, or the like. Further, multiple functions may be included under each newly added partition. Such as: the newly added control partitions can comprise function 1 control, function 2 control and function 3 control; the newly added display partition may contain multiple display functions. Such as: the newly added display partitions may include function 1 display, function 2 display, and function 3 display.
In one embodiment, the data relating to the primary function is created under the partition, the data relating to the secondary function and the tertiary function is created under the primary function, and the physical quantity stream is created under the secondary function.
Wherein, the related data of the primary function comprises a function name and a function description of the primary function; the related data of the secondary function comprises a function name and a function description of the secondary function; the related data of the three-level function comprises a function name and a function description of the three-level function.
Specifically, the primary function, the secondary function, the tertiary function and the physical quantity stream of each partition are designed under different partitions, and the attributes of each function are edited, each attribute may include a plurality of contents for a user to select, and the user may also directly edit the contents of the attribute. Such as: the primary functional attribute can be edited as a subsystem, the secondary functional attribute is a takeoff system, and the tertiary functional attribute is a performance requirement.
In the function design method facing the industrial control, relevant data of partitions and functions are created, attributes of the functions are edited, and when the attributes of the functions are edited, the attributes of each level of functions do not have any relation, so that the independence of the attributes is realized.
In one embodiment, the method for designing functions for industrial control, as shown in fig. 3, further includes the following steps:
step S130: if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of a newly added partition, primary function data, secondary function data, tertiary function data and physical quantity flow.
Specifically, firstly, traversing the existing engineering files according to the system model, and determining whether the existing engineering files corresponding to the system model exist. Alternatively, the existing project files may be stored in a server or may be stored locally. Of course, the existing project files may be stored both locally and as backups at the server. The step aims to find out whether the existing engineering file corresponding to the system model exists or not, and the storage position of the file is not limited. Optionally, if an existing engineering file corresponding to the system model exists, the existing engineering file is obtained according to the existing position of the existing engineering file. Specifically, if the file is stored in the server, the existing project file is obtained from all the project directories stored in the server. And if the file is stored locally, acquiring the existing project file from the recently opened project file cached locally.
Optionally, when the server determines the operation flow according to the function level of the demand information, the operation flow may be determined by the following steps: and if the requirement information is the function grade of the newly-added partition, the operation flow sequentially comprises the steps of newly-added partitions, and newly-added primary function data, secondary function data, tertiary function data and physical quantity flow. And if the requirement information is the function grade of the newly added function, the operation flow sequentially comprises newly added primary function data, secondary function data, tertiary function data and physical quantity flow.
Step S140: and operating the existing engineering file according to the operation flow to obtain the engineering file.
Specifically, if the operation flow is a newly added partition, newly added primary function data, secondary function data, tertiary function data and physical quantity flow in sequence, the client sends partition information filled by a user to the server, the server receives the partition information and verifies the partition information, if the newly added partition information passes verification, newly added partition data is created, the primary function data, the secondary function data, the tertiary function data and the physical quantity flow are newly added under the partition, and the created partition related data function data are stored in a local cache. And if the partition information cannot pass the verification of the server, the client displays that the partition information is wrong.
If the operation flow is to add new primary function data, secondary function data, tertiary function data and physical quantity flow in sequence, the client sends the function data to the server, the server locks the partition state of the function being operated after receiving the function information, wherein the default unlocking state of the system partition is 0, when the state of the partition is changed from 0 to 1, the partition locking state is successful, and the locked user is added to the corresponding field. Optionally, when the state locking of the partition fails, the server may send the reason of the locking failure and the information of the locking failure to the client together, and at this time, the client may display information that the partition is not editable in editing by other users (i.e., the partition locking fails); and if the state locking of the partition is successful, the server verifies the function information.
In the function design method facing the industrial control, the user operates based on the framework of the client and the server, so that the partition is locked, and the problem of partition data collision when multiple users operate simultaneously is solved.
In one embodiment, when the server determines the operation flow according to the demand information, the server needs to verify the function information in the demand information according to a preset standard.
Wherein the preset criteria may include: whether the byte length of the function name is less than 200 bytes or not and whether the character type is one or more of Chinese or English information or not. The function information is related data of the function, and if the function information passes the verification of the server, the server creates related data of the function, and the related data of the function may include: information such as function name and function description, for example: the function is named brake control, and the function is described as controlling the brake of the automobile.
And if the function information cannot pass the verification of the server, sending the information with wrong function information to the client, and displaying the function information error on the interface of the client.
In one embodiment, the function design method for industrial control can also perform editing operation on functions in existing engineering files according to the requirement information to obtain engineering files corresponding to the requirement information, namely the engineering files meeting the requirement.
Specifically, a client requests a server to acquire function attribute editing data and function tree data corresponding to a device model; the server returns the function attribute editing data and the function tree data according to the request of the client, and the client receives the data returned by the server and displays the data through the interface layer. The user inputs the demand information, namely editing function information based on the content displayed on the interface, and the client sends the received demand information to the server through the service layer. Optionally, the client may save the received data to a local cache. Wherein, the function attribute editing data comprises: the system comprises a first-level function attribute list, a second-level function attribute list, a third-level function attribute list and a physical quantity flow list. The editing function information may include: and one or more of attribute information such as function identification, function name, function description and the like.
Specifically, the server determines a partition corresponding to the demand information according to the received demand information. And after determining the partition corresponding to the demand information, the server locks the partition, if the server successfully locks the partition, the server sends the information of successful partition locking to the client, and sends the editing function information to the client after editing the function attribute editing data in the partition. And the client calls the control layer to store the editing function information into a local cache.
Optionally, when the partition lock fails, the server may send the reason for the lock failure together with the information of the lock failure to the client, at which point the client may display information that the partition is not being edited by other users (i.e., the partition lock fails).
In the function design method facing the industrial control, the partition is locked when the function attribute is edited, so that the problem of conflict possibly caused during parallel development is avoided, and meanwhile, the existing function is edited, so that the waste of the function is avoided.
In one embodiment, the function design method for industrial control can also delete functions in existing engineering files according to the requirement information to obtain engineering files corresponding to the requirement information, and thus obtain engineering files meeting requirements.
Specifically, the client requests the server to obtain function-related data and function edit data corresponding to the device model, the server returns the function-related data and the function edit data to be deleted according to the request of the client, and the client receives the server-returned data and displays the data through the interface layer. The user inputs the demand information, namely deleting function information based on the content displayed on the interface, and the client sends the received demand information to the server through the service layer. And the server determines the partition corresponding to the demand information according to the received demand information. And after determining the partition corresponding to the requirement information, the server locks the partition, and if the server successfully locks the partition, the server sends the successfully locked partition information to the client, and deletes the relevant data of the functions and the editing data of the functions in the partition.
Optionally, when the partition locking fails, the server may send the reason of the locking failure and the information of the locking failure to the client, and at this time, the client may display information that the partition is not being edited by other users (i.e., the partition locking fails).
In the function design method facing the industrial control, the related data of the function and the edit data of the function are deleted, so that the function redundancy is avoided, and the resource waste is reduced.
In one embodiment, when the server deletes the relevant data of the function and the edit data of the function according to the requirement information, the verification of the parent-child relationship of the deleted function is required.
Wherein, the verification standard is as follows: if the function parent ID field in the database is null, it indicates that there is no parent-child relationship.
Specifically, if the function has a parent-child relationship with the previous-level function, the information that the parent-child relationship exists is sent to the client, and the client prompts the user to delete the parent-child relationship with the previous-level function and then delete the related data of the function and the editing data of the function.
And if the function does not have a parent-child relationship with the previous-level function, the data management module of the local cache of the client updates the function associated data table, and deletes the function attribute table, the drawing table, the sub-function relationship table and the sub-function drawing table in the local cache. The function attribute table may include: ID, attribute ID, and selected content value of attribute. The drawing table may include: ID of the secondary function diagram, and the review state of the diagram. The sub-function relationship table may include: ID, secondary function ID, tertiary function ID and the like. The sub-function drawing table may include: ID, coordinates of the tertiary function, high-level information of the tertiary function node and the like. The relationship between the functions and the sub-functions is as follows: the relationship of the primary function to the secondary function, or the relationship of the secondary function to the tertiary function.
In one embodiment, after the server completes the relevant operations of the operation flow, the data of the newly added partition or the newly added function is stored to obtain the project file. The newly added function data may include: function name, function description, and other attributes of the function.
In one embodiment, before exporting the obtained project file data, a baseline needs to be established, and after establishing the baseline, the design data is subjected to a filing process, so as to export the design data through a specified path, as shown in fig. 4, which includes the following steps:
step S150: baseline establishment information is obtained.
Specifically, the server receives a request for establishing a baseline sent by the client.
Step S160: and establishing a new baseline for the engineering file according to the baseline establishing information.
Specifically, the server creates a baseline database and searches data without establishing a baseline, writes the data without establishing a baseline into the baseline database, and stores the content of establishing a baseline into a log file.
Step S170: and acquiring the baseline difference between the new baseline of the engineering file and the baseline of the preset engineering file.
The preset engineering file is an existing engineering file or a default engineering file; the baseline difference is used to show modified baseline data.
The client requests to acquire the baseline difference between the newly-built baseline of the engineering file and the baseline of the preset engineering file, the server acquires baseline difference data from the log file and sends the baseline difference data to the client, and the client performs data format conversion and then displays the baseline difference data through the interface layer.
Wherein the baseline difference data is: the difference of the data in the two baselines, such as the data content of the addition, deletion and modification from the base line of the version A to the base line of the version B. And the client displays the baseline difference data.
In the function design method for industrial control, the establishment of the base line fixes the obtained engineering files, so that the engineering files are not frequently modified any more, and the efficiency of subsequent compiling work on the engineering files is effectively improved.
Based on the same inventive concept, the present application further provides a function design method for industrial control, as shown in fig. 5, including the following steps:
step S210: and acquiring the obtained engineering file.
Specifically, the engineering document can be obtained by referring to the above definition of the functional design method for industrial control, and is not described herein again.
Step S220: and acquiring differential data of the engineering file and a preset engineering file.
The preset engineering file is an existing engineering file or a default engineering file, and the differential data is as follows: the action of changing the functional attribute may include: one or more of adding, deleting, editing and the like.
Specifically, if the existing engineering file corresponding to the system model exists in the system model library, after the existing engineering file is operated according to the operation flow to obtain the engineering file, the client interface calls an interface of the control layer to request the server to acquire function difference data of the engineering file and a preset engineering file, and after the server receives the request sent by the client, the function difference data is returned to the client.
Specifically, the server compares the unique address of each function in the project file with a preset project file, and determines the change of the function attribute data in the project file compared with the original function attribute data of the preset project file.
Optionally, a specific implementation method for determining a change of the functional attribute data in the engineering file compared with the original functional attribute data of the preset engineering file is as follows: the three-level function in the engineering file determines the change of the attribute of the three-level function according to the unique address, and the two-level function judges whether the attribute of the two-level function is changed or not through the unique address and judges whether the associated three-level function is added or deleted. The primary function judges whether the attribute of the primary function is changed or not and whether the sub-secondary function is added or deleted or not through the unique address. And judging whether the sub-level function is added or deleted by the partition. And forming a nesting judgment relation until all the function difference points are found out, and sorting the changed function address contents into a specified format to obtain function difference data.
Step S230: and updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file.
Specifically, after obtaining the functional difference data, the server transmits the functional difference data to the client. And the client receives the functional differential data, and the client control layer calls the service layer interface to identify the functional differential data to obtain the states of the differential data and the information of each state. Wherein the state of the differential data may include: "delete", "add", "edit"; the information of the state is related data of the function and attribute data of the function. And the server updates the function tree of the preset engineering file according to the state of the differential data and the information of each state to obtain the function tree of the engineering file and update the log file. The log file is used for storing key information of the server database, such as date and summary change content, and the user can inquire and operate the log file through the client.
In one embodiment, the method for designing functions for industrial control, as shown in fig. 6, further includes the following steps:
step S240: and acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file.
Specifically, after the engineering file meeting the requirement is obtained according to the requirement information, one or more of information such as secondary function data, tertiary function data, physical quantity stream data, size of the tertiary function, position information of the baseline and the like in the engineering file are obtained. The size of the three-level function refers to the size of a three-level function module in a graphical display interface.
Step S250: and determining the display position of the three-level functional data and the physical quantity flow in the interface of the client.
Specifically, the position of the three-level function displayed on the client is obtained according to the size of the three-level module, wherein the position is described in a coordinate form, and the position of the baseline refers to the starting point coordinate.
Step S260: obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client;
wherein the design data of the secondary functional data comprises: the drawing information of the secondary function comprises the three-level functions and the physical quantity flow.
Step S270: and obtaining a picture according to the design data of the secondary functional data.
Wherein the picture is used to generate a design report, the design report being used to generate an executable file.
Specifically, the client calls a secondary function with a designed interface to generate a PNG picture, then the PNG picture is converted into a binary data stream and sent to the server, and the server converts the binary data stream into the PNG picture and stores the PNG picture in a disk of the server.
In one embodiment, generally, after the server successfully stores the picture in the server disk, the update data in the local cache needs to be cleaned, optionally, if the server fails to store the picture, a temporary storage process needs to be called to clean the update data in the local cache, where the cleaned cache data may include a function name, a function attribute, a function description, and the like.
In one embodiment, the client converts the format of the generated picture and all the designed data, uploads the converted picture and all the designed data to an FTP (File Transfer Protocol) path, and exports the function tree and the function attribute data by using an FTP server.
In the function design method facing the industrial control, the design data of the secondary function is generated into a picture form, so that the formulated function is graphical, and the level of the design function is more intuitively shown. FTP is used as a platform for software communication, so that the time consumed by repeatedly sending/copying files is saved. Meanwhile, the real-time performance and the accuracy of various interface files can be guaranteed.
Based on the same conception invention, the present application further provides an industrial control-oriented function design system, which includes a server and a client, as shown in fig. 7, the server is in communication connection with the client, and the specific implementation manner is as follows:
and the client sends the demand information to the server.
The server traverses a system model library according to the received demand information, and if the system model library does not have the engineering file corresponding to the system model, the server sends the information that the engineering file corresponding to the system model does not exist to the client.
And the client sends the information of the newly-built project file to the server according to the received project file information which does not exist and corresponds to the system model.
The server creates a project file corresponding to the system model according to the information of the newly created project file and the demand information, and creates a partition, primary function data, secondary function data, tertiary function data and a physical quantity flow under the project file, wherein the project file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an incidence relationship, and the secondary function and the physical quantity flow are in a logical parent-child relationship. And sending the obtained engineering file to a client.
The server traverses a system model library according to the received demand information, and if the system model library has the existing engineering files corresponding to the system model, the existing engineering file information corresponding to the system model is sent to the client.
And the client sends the function grade information of the newly added partition or the newly added function to the server according to the existing engineering file information corresponding to the system model.
The server determines an operation flow according to the function grade information of the newly added partition or the newly added function and executes the determined operation flow; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow.
And the client requests the server to edit or delete the functional attributes of the project file.
And the server edits or deletes the functional attribute in the project file according to the editing or deleting information. And storing the engineering file obtained after the operation is finished into a log file, and then sending the log file to the client.
The client requests the server for acquiring the engineering file and the preset engineering file to acquire the differential data.
And the server acquires the differential data from the log file and sends the differential data to the client.
And the client updates the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file, and obtains the secondary function data, the tertiary function data and the physical quantity stream in the engineering file. And determining the display position of the three-level functional data and the physical quantity flow in the interface of the client. Obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client; and obtaining a picture according to the design data of the secondary functional data. And sending the obtained picture to a server.
And if the server successfully stores the received picture in the disk, sending the information of successful storage to the client.
And the client requests the server to clear the cache data according to the information of successful picture storage.
And if the server fails to store the received picture in the disk, sending the information of the storage failure to the client.
And the client requests the server to call a temporary storage process according to the information of the failure of storing the picture, and the cache data is cleaned.
And the server clears the cache information.
The client requests the server to establish a baseline.
The server creates a base line database and searches data without a base line, writes the data without the base line into the base line database, and stores the content of the base line into a log file.
The client requests the server to obtain the differential data of the baseline.
The server acquires the baseline difference data from the log file and sends the baseline difference data to the client.
And the client converts the data format of the differential data of the baseline and displays the data through the interface layer.
It should be understood that although the various steps in the flow charts of fig. 2-6 are shown in order as indicated by the arrows, the steps are not necessarily performed in order as indicated by the arrows. The steps are not performed in the exact order shown and described, and may be performed in other orders, unless explicitly stated otherwise. Moreover, at least some of the steps in fig. 2-6 may include multiple sub-steps or multiple stages that are not necessarily performed at the same time, but may be performed at different times, and the order of performance of the sub-steps or stages is not necessarily sequential, but may be performed in turn or alternating with other steps or at least some of the sub-steps or stages of other steps.
For specific definition of the industrial control-oriented functional design system, reference may be made to the above definition of the industrial control-oriented functional design method, and details are not repeated here. Each terminal in the above-mentioned industrial control-oriented functional design system can be wholly or partially implemented by software, hardware and a combination thereof. The modules can be embedded in a hardware form or independent from a processor in the computer device, and can also be stored in a memory in the computer device in a software form, so that the processor can call and execute operations corresponding to the modules.
In one embodiment, a computer device is provided, which may be a server, and its internal structure diagram may be as shown in fig. 8. The computer device includes a processor, a memory, a network interface, and a database connected by a system bus. Wherein the processor of the computer device is configured to provide computing and control capabilities. The memory of the computer device comprises a nonvolatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program, and a database. The internal memory provides an environment for the operation of an operating system and computer programs in the non-volatile storage medium. The database of the computer device is used for storing functional data. The network interface of the computer device is used for communicating with an external terminal through a network connection. The computer program is executed by a processor to implement a functional design method for industrial control.
Those skilled in the art will appreciate that the architecture shown in fig. 8 is merely a block diagram of some of the structures associated with the disclosed aspects and is not intended to limit the computing devices to which the disclosed aspects apply, as particular computing devices may include more or less components than those shown, or may combine certain components, or have a different arrangement of components.
In one embodiment, a computer device is provided, comprising a memory, a processor, and a computer program stored on the memory and executable on the processor, the processor implementing the following steps when executing the computer program:
traversing a system model library according to the system model in the demand information;
if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is newly built according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file, wherein the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an incidence relationship, and the secondary function and the physical quantity stream are in a logical parent-child relationship.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
creating related data of the partitions under the project files, wherein the related data of the partitions comprise names, locking information and updating time;
creating related data of a primary function under the partition, wherein the related data of the primary function comprises a function name and a function description of the primary function;
creating related data of a secondary function and a tertiary function under the primary function, wherein the related data of the secondary function comprises a function name and a function description of the secondary function; the related data of the three-level functions comprise function names and function descriptions of the three-level functions;
creating a physical quantity flow under the secondary function.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow;
and operating the existing engineering file according to the operation flow to obtain the engineering file.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
if the function level belongs to the newly added partition, the operation flow comprises: creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the existing engineering files;
if the function level belongs to the newly added function data, the operation process comprises the following steps: and locking the partition according to the requirement information, and adding primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the locked partition.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
acquiring baseline establishment information;
establishing a new baseline for the engineering file according to the baseline establishing information;
acquiring a baseline difference between the newly-built baseline of the engineering file and a preset engineering file baseline; the preset engineering file is an existing engineering file or a default engineering file; the baseline difference is used to show modified baseline data.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
acquiring the obtained engineering file;
acquiring differential data of the engineering file and a preset engineering file, wherein the preset engineering file is an existing engineering file or a default engineering file;
and updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file.
In one embodiment, the processor, when executing the computer program, further performs the steps of:
acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file;
determining the display position of the three-level functional data and the physical quantity flow in the interface of the client;
obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client;
and obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file.
In one embodiment, a computer-readable storage medium is provided, having a computer program stored thereon, which when executed by a processor, performs the steps of:
traversing a system model library according to the system model in the demand information;
if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is newly built according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file, wherein the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an incidence relationship, and the secondary function and the physical quantity stream are in a logical parent-child relationship.
In one embodiment, the computer program when executed by the processor further performs the steps of:
creating related data of the partitions under the project files, wherein the related data of the partitions comprise names, locking information and updating time;
creating related data of a primary function under the partition, wherein the related data of the primary function comprises a function name and a function description of the primary function;
creating related data of a secondary function and a tertiary function under the primary function, wherein the related data of the secondary function comprises a function name and a function description of the secondary function; the related data of the three-level functions comprise function names and function descriptions of the three-level functions;
creating a physical quantity flow under the secondary function.
In one embodiment, the computer program when executed by the processor further performs the steps of:
if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow;
and operating the existing engineering file according to the operation flow to obtain the engineering file.
In one embodiment, the computer program when executed by the processor further performs the steps of:
if the function level belongs to the newly added partition, the operation flow comprises: creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the existing engineering files;
if the function level belongs to the newly added function data, the operation process comprises the following steps: and locking the partition according to the requirement information, and adding primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the locked partition.
In one embodiment, the computer program when executed by the processor further performs the steps of:
acquiring baseline establishment information;
establishing a new baseline for the engineering file according to the baseline establishing information;
acquiring a baseline difference between the newly-built baseline of the engineering file and a preset engineering file baseline; the preset engineering file is an existing engineering file or a default engineering file; the baseline difference is used to show modified baseline data.
In one embodiment, the computer program when executed by the processor further performs the steps of:
acquiring the obtained engineering file;
acquiring differential data of the engineering file and a preset engineering file, wherein the preset engineering file is an existing engineering file or a default engineering file;
and updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file.
In one embodiment, the computer program when executed by the processor further performs the steps of:
acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file;
determining the display position of the three-level functional data and the physical quantity flow in the interface of the client;
obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client;
and obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file.
It will be understood by those skilled in the art that all or part of the processes of the methods of the embodiments described above can be implemented by hardware instructions of a computer program, which can be stored in a non-volatile computer-readable storage medium, and when executed, can include the processes of the embodiments of the methods described above. Any reference to memory, storage, database, or other medium used in the embodiments provided herein may include non-volatile and/or volatile memory, among others. Non-volatile memory can include read-only memory (ROM), Programmable ROM (PROM), Electrically Programmable ROM (EPROM), Electrically Erasable Programmable ROM (EEPROM), or flash memory. Volatile memory can include Random Access Memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in a variety of forms such as Static RAM (SRAM), Dynamic RAM (DRAM), Synchronous DRAM (SDRAM), Double Data Rate SDRAM (DDRSDRAM), Enhanced SDRAM (ESDRAM), Synchronous Link DRAM (SLDRAM), Rambus Direct RAM (RDRAM), direct bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).
The technical features of the above embodiments can be arbitrarily combined, and for the sake of brevity, all possible combinations of the technical features in the above embodiments are not described, but should be considered as the scope of the present specification as long as there is no contradiction between the combinations of the technical features.
The above-mentioned embodiments only express several embodiments of the present application, and the description thereof is more specific and detailed, but not construed as limiting the scope of the invention. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the concept of the present application, which falls within the scope of protection of the present application. Therefore, the protection scope of the present patent shall be subject to the appended claims.
Claims (10)
1. An industrial control-oriented function design method, characterized by comprising:
traversing a system model library according to the system model in the demand information;
if the system model base does not have the engineering file corresponding to the system model, creating the engineering file corresponding to the system model according to the requirement information, and creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the engineering file; the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an association relationship, and the secondary function and the physical quantity flow are in a logical parent-child relationship.
2. The method of claim 1, wherein creating partitions, primary functional data, secondary functional data, tertiary functional data, and physical quantity streams under the engineering file comprises:
creating related data of the partitions under the project files, wherein the related data of the partitions comprise names, locking information and updating time;
creating related data of a primary function under the partition, wherein the related data of the primary function comprises a function name and a function description of the primary function;
creating related data of a secondary function and a tertiary function under the primary function, wherein the related data of the secondary function comprises a function name and a function description of the secondary function; the related data of the three-level functions comprise function names and function descriptions of the three-level functions;
creating a physical quantity flow under the secondary function.
3. The method of claim 1, further comprising:
if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of a newly added partition, primary function data, secondary function data, tertiary function data and physical quantity flow;
and operating the existing engineering file according to the operation flow to obtain the engineering file.
4. The method of claim 3, wherein determining an operational flow based on the functional level of the demand information comprises:
if the function level belongs to the newly added partition, the operation flow comprises: creating partitions, primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the existing engineering files;
if the function level belongs to the newly added function data, the operation process comprises the following steps: and locking the partition according to the requirement information, and adding primary functional data, secondary functional data, tertiary functional data and physical quantity flow under the locked partition.
5. The method of claim 1, further comprising:
acquiring baseline establishment information;
establishing a new baseline for the engineering file according to the baseline establishing information;
acquiring a baseline difference between the newly-built baseline of the engineering file and a preset engineering file baseline; the preset engineering file is an existing engineering file or a default engineering file; the baseline difference is used to show modified baseline data.
6. An industrial control-oriented function design method, characterized by comprising:
acquiring an engineering file obtained by the method according to claims 1-5;
acquiring differential data of the engineering file and a preset engineering file, wherein the preset engineering file is an existing engineering file or a default engineering file;
and updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file.
7. The method of claim 6, further comprising:
acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file;
determining the display position of the three-level functional data and the physical quantity flow in the interface of the client;
obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client;
and obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file.
8. An industrial control-oriented function design system comprises a server and a client, wherein the server is in communication connection with the client,
the server is used for receiving the demand information of the client and traversing the system model library according to the system model in the demand information; if the system model base does not have the engineering file corresponding to the system model, the engineering file corresponding to the system model is newly built according to the requirement information, and a partition, primary function data, secondary function data, tertiary function data and a physical quantity stream are created under the engineering file, wherein the engineering file and the partition are in a logical parent-child relationship, the partition and the primary function are in a logical parent-child relationship, the primary function and the secondary function are in a logical parent-child relationship, the secondary function and the tertiary function are in an association relationship, and the secondary function and the physical quantity stream are in a logical parent-child relationship; if the system model library has the existing engineering files corresponding to the system models, determining an operation flow according to the function level of the demand information; the operation flow comprises one or more of creating partitions, primary function data, secondary function data, tertiary function data and physical quantity flow;
the client is used for acquiring the project file; acquiring differential data according to the project file and a preset project file, wherein the preset project file is an existing project file or a default project file; updating the function tree of the preset engineering file according to the differential data to obtain the function tree of the engineering file, and acquiring secondary function data, tertiary function data and physical quantity flow in the engineering file; determining the display position of the three-level functional data and the physical quantity flow in the interface of the client; obtaining design data of the secondary functional data according to the display positions of the tertiary functional data and the physical quantity flow in the interface of the client; obtaining a picture according to the design data of the secondary function data, wherein the picture is used for generating a design report which is used for generating an executable file; sending the function tree of the engineering file and the picture to a server;
the server is also used for saving the function tree and the picture of the project file at a preset position.
9. A server comprising a memory, a processor and a computer program stored on the memory and executable on the processor, characterized in that the steps of the method of any of claims 1 to 6 are implemented when the computer program is executed by the processor.
10. A computer-readable storage medium, on which a computer program is stored, which, when being executed by a processor, carries out the steps of the method of any one of claims 1 to 7.
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