CN115857882A - Integrated development environment system - Google Patents
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- CN115857882A CN115857882A CN202211617279.9A CN202211617279A CN115857882A CN 115857882 A CN115857882 A CN 115857882A CN 202211617279 A CN202211617279 A CN 202211617279A CN 115857882 A CN115857882 A CN 115857882A
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Abstract
The invention discloses an integrated development environment system, which relates to the technical field of visual development and comprises flow components, a plurality of functional components and a plurality of visual display modules, wherein the flow components are used for completing corresponding processing flows of the flow components; the control flow component is used for determining the operation sequence among the flow components and among the functional components; and the data flow component is used for determining the data transmission direction between the flow components and between the functional components. The invention forms the flow components for realizing the development of the target project through the predefined functional components, realizes the control of the operation logic and the data transmission between the flow components through the control flow components and the data flow components, does not need a user to understand a programming language, does not need to write codes, and does not need operations such as compiling, running, debugging and the like, thereby not only reducing the complexity of the user development, but also improving the development efficiency of the user.
Description
Technical Field
The invention relates to the technical field of visualization development, in particular to an integrated development environment system.
Background
With the rapid development of the software industry, computer programming is no longer the work of IT professionals, but users of various industries use tools for achieving targets in respective fields. However, the traditional programming language based on text and symbols is extremely difficult for non-IT industry personnel to understand, and the work of writing, compiling, debugging and the like of codes further increases the use difficulty of the non-IT personnel.
Disclosure of Invention
The technical problem to be solved by the invention is to overcome the defects of the prior art and provide an integrated development environment system.
In order to solve the technical problems, the technical scheme of the invention is as follows:
an integrated development environment system, comprising:
the flow components are used for completing the corresponding processing flow, each flow component comprises a plurality of predefined functional components, and each functional component is used for realizing the corresponding function;
the control flow component is used for determining the operation sequence among the flow components and among the functional components;
and the data flow component is used for determining the data transmission direction between the flow components and between the functional components.
As a preferable solution of the integrated development environment system of the present invention, wherein: the target item further comprises functional components connected between the process components;
the control flow component is further configured to determine an operation sequence between the flow component and the functional component, and the data flow component is further configured to determine a data transmission direction between the flow component and the functional component.
As a preferable solution of the integrated development environment system of the present invention, wherein: the flow component comprises a main flow and a sub flow;
the main process is used as a starting process component of the target project, and the sub-processes are used for completing some independent process associated with the main process.
As a preferable solution of the integrated development environment system of the present invention, wherein: each flow component comprises a flow starting functional component and a flow returning functional component;
the flow starting functional component is used as a starting functional component of the flow component, and the flow returning functional component is used for defining return value data when the flow component returns.
As a preferable solution of the integrated development environment system of the present invention, wherein: the flow starting functional assembly comprises a thread management module, the thread management module comprises a plurality of threads, each thread is associated with one sub-flow, and the flow starting functional assembly can simultaneously run a plurality of threads so as to control the plurality of sub-flows to run simultaneously.
As a preferable solution of the integrated development environment system of the present invention, wherein: the flow starting functional component comprises a trigger module, the trigger module is associated with a certain sub-flow, and the trigger module is used for predefining a trigger event and controlling the sub-flow to run when the event is triggered.
As a preferable solution of the integrated development environment system of the present invention, wherein: the flow starting functional assembly comprises a timer module, the timer module is associated with a certain sub-flow, and the timer module is used for setting a time value and controlling the corresponding sub-flow to run when the set time value is reached.
As a preferable solution of the integrated development environment system of the present invention, wherein: the control flow component comprises a sequential control flow component, a single-value judgment control flow component, a multi-value comparison control flow component, a branch judgment control flow component, a cycle number control flow component, a cycle traversal control flow component, a serial branch control flow component, an abnormal capture control flow component and an interrupt continuous control flow component;
the sequence control flow component is used for controlling the flow components or the functional components to sequentially run according to a connection sequence;
the single-value judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the specific value;
the multi-value comparison control flow component is used for generating a judgment result according to the comparison results of a plurality of specific values and determining the operation sequence of the subsequent branch components according to the judgment result;
the branch judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the parameter logic value;
the circulation time control flow component is used for controlling the running sequence of circulation;
the circular traversal control flow component is used for dividing and traversing a data set;
the series branch control flow component is used for decomposing a single flow Cheng Fenzhi into a plurality of flow branches;
the exception capture control flow component is used for capturing an exception component when the exception component occurs;
the interrupt continuation control flow component is used for interrupting the currently running loop or directly jumping to the starting position of the next loop in the currently running loop.
As a preferable solution of the integrated development environment system of the present invention, wherein: the flow assembly and the functional assembly both comprise an input parameter pin and a return value pin, and two ends of the data flow assembly are respectively connected with the input parameter pin and the return value pin.
As a preferable solution of the integrated development environment system of the present invention, wherein: the data types of the pins connected with the two ends of any data flow component are the same.
The invention has the beneficial effects that:
(1) The invention forms the flow components for realizing the development of the target project through the predefined functional components, realizes the control of the operation logic and the data transmission between the flow components through the control flow components and the data flow components, realizes the software development of the project, does not need a user to understand a programming language, does not need to write codes, does not need operations such as compiling, running, debugging and the like, not only reduces the complexity of the user development, but also improves the development efficiency of the user.
(2) The control flow component can be refined into different scene control structures, and different modularized flow architectures can be established according to the complexity of the project so as to realize the development of the complex project.
(3) The functional components of the invention all comprise input parameter pins and return value pins, letters in the round pins on each component are used for representing the data types of the data streams, and the data types of the pins connected with the two ends of any data stream component are the same, thus effectively avoiding the situation that users use the data stream components by mistake and further reducing the development complexity.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required to be used in the description of the embodiments are briefly introduced below, and it is obvious that the drawings in the description below are only some embodiments of the present invention, and it is obvious for those skilled in the art that other drawings can be obtained according to the drawings without inventive labor.
FIG. 1 is a schematic diagram of a main process in an integrated development environment system provided by the present invention;
FIG. 2 is a schematic diagram of another main process in the integrated development environment system provided by the present invention;
FIG. 3 is a schematic diagram of a control flow component and a data flow component in an integrated development environment system provided by the present invention;
FIG. 4 is a schematic diagram illustrating the use of sequential control flow components in the integrated development environment system provided by the present invention;
FIG. 5 is a schematic diagram illustrating the use of a single-valued decision control flow component in the integrated development environment system provided by the present invention;
FIG. 6 is a schematic diagram illustrating the use of a multiple-valued comparison control flow component in the integrated development environment system provided by the present invention;
FIG. 7 is a schematic diagram illustrating the use of a branch judgment control flow component in the integrated development environment system according to the present invention;
FIG. 8 is a schematic diagram illustrating the use of a cycle number control flow component in the integrated development environment system provided by the present invention;
FIG. 9 is a schematic diagram illustrating the use of a loop traversal control flow component in the integrated development environment system provided by the present invention;
FIG. 10 is a schematic diagram illustrating the use of a loop traversal control flow component in the integrated development environment system provided by the present invention;
FIG. 11 is a diagram illustrating the use of a serial branch control flow component in the integrated development environment system provided by the present invention;
FIG. 12 is a schematic diagram illustrating the use of an exception capture control flow component in the integrated development environment system provided by the present invention;
FIG. 13 is a schematic diagram illustrating the use of an interrupt resume control flow component in the integrated development environment system provided by the present invention;
FIG. 14 is a schematic diagram illustrating the use of an interrupt resume control flow component in the integrated development environment system provided by the present invention;
FIG. 15 is a pin diagram of a standard functional component in the integrated development environment system provided by the present invention;
FIG. 16 is a diagram illustrating a process start function component and a process return function component of the integrated development environment system in accordance with the present invention;
FIG. 17 is a schematic diagram illustrating the use of a thread management module in a thread start function component in the integrated development environment system according to the present invention;
FIG. 18 is a schematic diagram illustrating the use of a trigger module within the flow initiation function component of the integrated development environment system of the present invention;
FIG. 19 is a diagram illustrating the use of a timer module in the process initiation feature of the integrated development environment system provided by the present invention;
FIG. 20 is a diagram illustrating custom function components in the integrated development environment system provided by the present invention;
FIG. 21 is a diagram illustrating a programming language configuration of functional components in the integrated development environment system according to the present invention.
Detailed Description
In order that the present invention may be more readily and clearly understood, a more particular description of the invention briefly described above will be rendered by reference to specific embodiments that are illustrated in the appended drawings.
The embodiment of the application provides an integrated development environment system. The system includes a flow component, a control flow component, and a data flow component. And for each development project, the development project comprises a plurality of flow components, and each flow component is used for completing the corresponding processing flow. The control flow component is used to determine the order of execution between the flow components. The data flow components are used to determine the direction of data transfer between the flow components. The development of the target project can be realized by completing all the process components.
Specifically, each development project comprises a main process and a plurality of sub-processes. The main process acts as the "global entry" for the target item, i.e. the target item always runs from the main process. The sub-process is used for completing a certain independent process associated with the main process, namely the sub-process is a new process created in the running process of the main process, and the main process can be returned after the sub-process is finished. The sub-process is equivalent to the function of the sub-module, and can form a modular design framework with the main process, which has a decisive role in developing more complex target projects.
It is understood that if the target project is simpler, the sub-flow may not be created.
For each flow component, it includes several predefined functional components. Each functional component is for implementing its corresponding function. The functional components are pre-generated components in the integrated development environment. Each process component comprises two predefined functional components, namely a process starting functional component and a process returning functional component. As the name implies, a flow start function component is used as a starting function component for a corresponding flow component. The flow starting function component has no actual function and mainly defines some variables and control logic association. The flow return function component is used for defining return value data when the corresponding flow component returns, and the return value data can be defined according to actual function requirements.
Referring to fig. 1, the main process includes a process start function component, a function component-1, a function component-2, a function component-3, and a process return function component. Wherein, the flow starting functional component, the functional component-1, the functional component-2 and the functional component-3 are connected through the control flow component above to determine the operation sequence of the functional components.
The sub-process itself also corresponds to a functional component, and is a concept that is almost equivalent in terms of functions and architectures such as output parameters and return values. Thus, functional components may also be intermixed with sub-processes. Referring to fig. 2, the main flow includes a flow start function component, a function component-1, a sub-flow-1, a function component-2, a sub-flow-2, and a flow return function component.
The operation logic between the flow components is divided into two types, namely an operation control sequence and a data transmission process, which are referred to as a control flow and a data flow for short. Therefore, after the previous component is finished, it is decided which component is to be executed next, which is to determine the component execution sequence, which is to control the flow component. After the previous component finishes running, the return value related to the component is transmitted to the next component for use or caching, and the component is the data flow component. See fig. 3.
The control flow component can be refined into nine scene control structures, namely a sequential control flow component, a single-value judgment control flow component, a multi-value comparison control flow component, a branch judgment control flow component, a cycle number control flow component, a cycle traversal control flow component, a serial branch control flow component, an abnormal capture control flow component and an interrupt continuous control flow component.
Specifically, the sequential control flow component is used for controlling the flow component or the functional component to sequentially run according to the connection sequence. Referring to fig. 4, the operation sequence of the functional components in the figure is from left to right.
The single-value judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the specific value. Referring to fig. 5, according to different judgment results, whether the subsequent operation is subbranch 1 or subbranch 2 can be determined.
The multivalued comparison control flow component is used for generating a judgment result according to the comparison results of a plurality of specific values and determining the operation sequence of the subsequent branch component according to the judgment result. With reference to figure 6 of the drawings,
the branch judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the parameter logic value. See fig. 7.
The circulation number control flow component is used for controlling the running sequence of the circulation. See fig. 8.
And the circular traversal control flow component is used for dividing and traversing one-dimensional or two-dimensional data sets such as lists and tables. See fig. 9 and 10.
The series branch control flow component is used to break a single longer flow branch into several shorter flow branches. See fig. 11.
The exception capture control flow component is used to capture the exception component when it occurs. See fig. 12.
The interrupt continuation control flow component is used to interrupt the currently running loop or jump directly to the next loop start position in the currently running loop. See fig. 13 and 14.
For the data stream component, firstly, the flow component and the functional component both comprise an input parameter pin and a return value pin, and two ends of the data stream component are respectively connected with the input parameter pin and the return value pin. The letters in the circular pins on each component are used to represent the data type of the data stream. See table 1 for specific data types. See fig. 15 for a specific data pin diagram.
| Data pin letters | Description of the type | English abbreviation |
| Air conditioner | Of the general type | gen |
| b | Of the Boolean type | bool |
| S | Character type | String |
| n | Type of digit | number |
| L | Type of list | List |
| T | Types of tables | Table |
| P | Data table type | Pdatframe |
| j | JSON type | Json |
| d | Dictionary type | dict |
| O | Object type | obj |
| B | Base64 type | Base64 |
| E | Event type | event |
| U | Type of interface | UserInterface |
| F | Type of function | function |
| f | File type | file |
| M | Member type | member |
TABLE 1
It should be noted that the data types of the pins connected to both ends of any data stream component are the same. The generic type may be connected to other arbitrary types.
Meanwhile, a parameter variable pin is also arranged in the flow starting functional component. The method specifically comprises a process parameter pin, a process variable pin, a global variable pin and an external parameter pin. The flow parameter pin is used for calling the input parameters of the flow, and the acting area of the pin is the flow, namely the pin is effective in the flow. The flow variable pin is used for temporarily caching data in the flow, and the acting area of the pin is the flow, namely the pin is effective in the flow. The global variable pin is used for mutual data transfer among a plurality of processes, the acting area of the global variable pin is all the processes, and the global variable pin is only edited and managed in the main process. The external parameter pin is used for calling the external input parameter of the project, the action scope of the external parameter pin is all the flows, and the external parameter pin is only edited and managed in the main flow. See table 2.
| Process parameters | P _ xxxxxx, representing the input parameters of the call flow, action region: effective in the flow, the editing and management of the flow |
| Process variables | T _ xxxxxx, intra-process temporary cache data action, action zone: effective in the flow, the editing and management of the flow |
| Flow return | R _ xxxxxx, the data role is transmitted when the process returns, the action region: effective in the flow, this flow editing management |
| Global variable | G _ xxxxxx, data communicated between processes, region of action: effective in all processes, editing management only in main process |
| External parameters | I _ xxxxxx, external input parameter for calling project, action zone: effective in all processes, editing management only in main process |
TABLE 2
In addition, referring to fig. 16, a thread management module, a trigger module and a timer module are further included in the thread start functional component, which respectively correspond to the thread flow, the trigger flow and the timing flow in the figure.
The thread management module comprises a plurality of threads, each thread is associated with one sub-process, so that the process starting functional component can simultaneously run a plurality of threads to control a plurality of sub-processes to simultaneously run, and a multi-thread architecture is realized. See fig. 17.
A trigger module may be associated with a certain sub-process. The trigger module is used for predefining a trigger event and controlling the corresponding sub-process to run when the event is triggered. See fig. 18.
A timer module may also be associated with a certain sub-process. The timer module is used for setting a time value and controlling the corresponding sub-process to run when the set time value is reached. See fig. 19.
In addition, referring to fig. 20, the system further includes a custom function component, which predefines a plurality of input and return value templates, and simultaneously, the content supports direct writing of a carrier into a language code, thereby completing development of a custom function, which is convenient for completing a personalized function that is not realized by the existing component.
In this embodiment, the functional component is associated with the functional interface of the programming language through the configuration item, and theoretically, any programming language can be compatible. Referring to fig. 21, the materialized component functions are realized by associating the programming languages such as Python2, python3, visual basic script, javascript, and the like.
Therefore, according to the technical scheme of the application, the flow components for realizing the development of the target project are formed through the predefined functional components, the control of the operation logic and the data transmission between the flow components are realized through the control flow components and the data flow components, the software development of the project is realized, a user does not need to understand a programming language, code writing is not needed, operations such as compiling, running and debugging are not needed, the complexity of the user development is reduced, and the development efficiency of the user is improved.
In addition to the above embodiments, the present invention may have other embodiments; all technical solutions formed by adopting equivalent substitutions or equivalent transformations fall within the protection scope of the claims of the present invention.
Claims (10)
1. An integrated development environment system, characterized by: the method comprises the following steps:
the flow components are used for completing the corresponding processing flow, each flow component comprises a plurality of predefined functional components, and each functional component is used for realizing the corresponding function;
the control flow component is used for determining the operation sequence among the flow components and among the functional components;
and the data flow component is used for determining the data transmission direction between the flow components and between the functional components.
2. The integrated development environment system according to claim 1, characterized in that: the target item further comprises functional components connected between the process components;
the control flow component is further configured to determine an operation sequence between the flow component and the functional component, and the data flow component is further configured to determine a data transmission direction between the flow component and the functional component.
3. The integrated development environment system according to claim 1, characterized in that: the flow component comprises a main flow and a sub flow;
the main process is used as a starting process component of the target project, and the sub-processes are used for completing some independent process associated with the main process.
4. The integrated development environment system according to claim 3, characterized in that: each flow component comprises a flow starting functional component and a flow returning functional component;
the flow starting functional component is used as a starting functional component of the flow component, and the flow returning functional component is used for defining return value data when the flow component returns.
5. The integrated development environment system according to claim 4, characterized in that: the flow starting functional assembly comprises a thread management module, the thread management module comprises a plurality of threads, each thread is associated with one sub-flow, and the flow starting functional assembly can simultaneously run a plurality of threads so as to control the plurality of sub-flows to run simultaneously.
6. The integrated development environment system according to claim 4, characterized in that: the flow starting functional component comprises a trigger module, the trigger module is associated with a certain sub-flow, and the trigger module is used for predefining a trigger event and controlling the corresponding sub-flow to run when the event is triggered.
7. The integrated development environment system according to claim 4, characterized in that: the flow starting functional component comprises a timer module, the timer module is associated with a certain sub-flow, and the timer module is used for setting a time value and controlling the sub-flow to run when the set time value is reached.
8. The integrated development environment system according to claim 1, characterized in that: the control flow component comprises a sequential control flow component, a single-value judgment control flow component, a multi-value comparison control flow component, a branch judgment control flow component, a cycle number control flow component, a cycle traversal control flow component, a serial branch control flow component, an abnormal capture control flow component and an interrupt continuous control flow component;
the sequence control flow component is used for controlling the flow components or the functional components to sequentially run according to a connection sequence;
the single-value judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the specific value;
the multi-value comparison control flow component is used for generating a judgment result according to the comparison results of a plurality of specific values and determining the operation sequence of the subsequent branch components according to the judgment result;
the branch judgment control flow component is used for determining the running sequence of the subsequent branch components according to the judgment result of the parameter logic value;
the circulation time control flow component is used for controlling the circulation operation sequence;
the circulating traversal control flow component is used for dividing and traversing the data set;
the series branch control flow component is used for decomposing a single flow Cheng Fenzhi into a plurality of flow branches;
the exception capture control flow component is used for capturing an exception component when the exception component occurs;
the interrupt continuation control flow component is used for interrupting the currently running loop or directly jumping to the starting position of the next loop in the currently running loop.
9. The integrated development environment system according to claim 2, characterized in that: the flow assembly and the functional assembly both comprise an input parameter pin and a return value pin, and two ends of the data flow assembly are respectively connected with the input parameter pin and the return value pin.
10. The integrated development environment system according to claim 9, characterized in that: the data types of the pins connected with the two ends of any data flow component are the same.
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| CN117148779A (en) * | 2023-10-10 | 2023-12-01 | 广州亿达科技有限公司 | Automatic control system design method and system based on integrated development environment |
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| CN117148779A (en) * | 2023-10-10 | 2023-12-01 | 广州亿达科技有限公司 | Automatic control system design method and system based on integrated development environment |
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