CN115756552A - Application system function self-configuration method, system and storage medium - Google Patents
Application system function self-configuration method, system and storage medium Download PDFInfo
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- CN115756552A CN115756552A CN202310015225.3A CN202310015225A CN115756552A CN 115756552 A CN115756552 A CN 115756552A CN 202310015225 A CN202310015225 A CN 202310015225A CN 115756552 A CN115756552 A CN 115756552A
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Abstract
The application relates to the field of computers, in particular to a method, a system and a storage medium for self-configuration of functions of an application system, wherein the method comprises the following steps: distinguishing a plurality of functional modules according to the functional difference of the system, and defining the space structure information and the interactive interface information of the functional modules; creating a multidimensional data space and defining a spatial data chain of functional modules in the multidimensional data space; compiling the spatial data chain into binary code; based on the upgrading requirement of the functional module in the multidimensional data space, filling new binary codes in the multidimensional data space, and updating the relevant definition of the spatial data chain. The function module can be continuously optimized, upgraded and modified in the running process of the system, and the whole or partial evolution work of the system is completed, so that the sustainable upgrade and maintenance work of the system version is realized.
Description
Technical Field
The present application relates to the field of computer technologies, and in particular, to a method, a system, and a storage medium for automatically configuring functions of an application system.
Background
In the design process of a traditional computer application system, the composition of a functional module generally consists of classes, functions, external scripts and tools. These components are encoded and called in the order ordered by the programmer and then converted by the compiler system into a stream of binary data recognizable by the computer system. During the execution of the program, the computer system recognizes and executes the binary data instructions in sequence, completes the execution of the algorithm, and outputs the expected result. In this process, changes to the underlying logical structure or component modules of the program are typically not possible. These changes must be made by the programmer after the program has stopped, and recompilation is effective before re-execution is possible.
This creates a number of problems, including but not limited to the following:
1. the design and implementation of the program completely depend on the self-ability and cognitive level of a programmer, and algorithms and components with better effect and higher efficiency are usually ignored due to the self-limitation of the programmer, so that the application system cannot achieve the optimal effect finally;
2. the development of the application program, particularly the development of the complex application program, needs the joint participation of more programmers, and in the process, the capability and understanding of each person are different, so that the actual effect displayed by the application system as a whole is often determined by a short board in all the components, namely the component which is most unstable and has the worst effect. Because a crash or error of a single component often results in the application system as a whole being inoperable or the result of the operation being unexpected.
3. The updating and maintenance of the program requires constant work and testing by the programmer, and such work and testing becomes very complicated and cumbersome after the different components are combined. In large, complex, continuously operating systems, one problem with tiny components often requires that the entire system be halted for upgrades and maintenance, which adds virtually an unnecessary amount of time to the system and thus increases its maintenance costs.
In summary, the above conventional method does not provide the self-perfecting capability of the system, which limits the upper limit of the functionality of the application program to exceed the programmer who designs it, and the complexity of the application program cannot increase infinitely. This ultimately results in a system with a limited degree of intelligence that cannot meet or satisfy the higher demands.
Disclosure of Invention
In order to solve the above problems, the present application provides a method, a system, and a storage medium for self-configuring functions of an application system.
In a first aspect, a method for self-configuring an application system function provided by the present application adopts the following technical solution:
an application system function self-configuration method comprises the following steps:
distinguishing a plurality of functional modules according to the functional difference of the system, and defining the space structure information and the interactive interface information of the functional modules;
creating a multidimensional data space and defining a spatial data chain of a functional module in the multidimensional data space;
compiling the spatial data chain into binary codes;
based on the upgrading requirement of the functional module in the multidimensional data space, filling new binary codes in the multidimensional data space, and updating the relevant definition of the spatial data chain.
By adopting the technical scheme, the functional module identification information is orderly arranged in a space data chain form, and unlimited coding of complex functions can be realized; in the operation process of the application system, if the requirement for upgrading the functional module in the multi-dimensional data space exists, according to the setting of the functional module of the new version, filling the binary code corresponding to the new functional module in the multi-dimensional data space, and updating the relevant definition in the spatial data chain, the upgrading of the functional module can be realized, so that the sustainable upgrading and maintenance work of the system version can be realized.
Optionally, the step of creating a multidimensional data space includes:
calculating the space volume occupied by the functional module based on the space structure information;
and creating a multidimensional data space according to the space volume and the interactive interface information corresponding to the functional module.
Optionally, the spatial data link includes a start node, an end node, and a description node, where the start node is configured to identify a start position of the functional module, the end node is configured to identify an end position of the functional module, and the description node is configured to identify spatial structure information and interactive interface information corresponding to the functional module.
Optionally, the method further includes:
and creating sub-module data chains in the spatial data chain, wherein each nested sub-module data chain takes a pair of a starting node and an ending node as a judgment standard.
Optionally, the method further includes:
and when the system needs to be migrated to other software and hardware environments, copying the spatial data chain to the other software and hardware environments, and recompiling.
Optionally, the method further includes:
and when the copied spatial data chains have different versions, comparing the plurality of spatial data chains, selecting the relevant definitions of the functional modules according to a preset rule, and forming a new spatial data chain.
In a second aspect, the application system function self-configuration system provided by the present application adopts the following technical solution:
an application system functionality self-configuration system comprising:
the distinguishing module is used for distinguishing a plurality of functional modules according to the functional difference of the system and defining the space structure information and the interactive interface information of the functional modules;
the system comprises a creating module, a judging module and a display module, wherein the creating module is used for creating a multidimensional data space and defining a space data chain of a functional module in the multidimensional data space;
the compiling module is used for compiling the spatial data chain into binary codes;
and the upgrading module is used for filling a new binary code in the multidimensional data space based on the upgrading requirement of the functional module in the multidimensional data space and updating the relevant definition of the spatial data chain.
In a third aspect, the present application provides a computer storage medium, which adopts the following technical solutions:
a computer storage medium storing a computer program that can be loaded by a processor and that executes a method according to the first aspect.
To sum up, the application comprises the following beneficial technical effects:
the function module identification information is orderly arranged in a space data chain form, so that unlimited coding of complex functions can be realized; in the operation process of the application system, if the requirement for upgrading the functional module in the multi-dimensional data space exists, according to the setting of the functional module of the new version, filling the binary code corresponding to the new functional module in the multi-dimensional data space, and updating the relevant definition in the spatial data chain, the upgrading of the functional module can be realized, so that the sustainable upgrading and maintenance work of the system version can be realized.
Drawings
Fig. 1 is a flowchart illustrating an application system function self-configuration method according to an embodiment of the present application.
Fig. 2 is a schematic diagram of a spatial data chain according to an embodiment of the present application.
Detailed Description
The present application is described in further detail below in conjunction with fig. 1-2.
The embodiment of the application discloses a function self-configuration method of an application system.
As an embodiment of the application system function self-configuration method, as shown in fig. 1, the method includes:
and 100, distinguishing a plurality of functional modules according to the functional difference of the system, and defining the spatial structure information and the interactive interface information of the functional modules.
Specifically, during system design, the system is divided into a plurality of functional modules according to the functional difference of the system, and the spatial structure information and the interactive interface information of the functional modules are defined. The spatial structure information includes a geometric body type, a side length, and the like, and if the geometric body type is an irregular geometric body, a spatial included angle thereof needs to be described.
One or more groups of interactive interface information can exist on the surface of each space geometric body, and the interactive interface information comprises information such as surface type, side length, space included angle and the like of the interactive geometric bodies, and also comprises interactive parameter verification information described on the surface.
200, a multidimensional data space is created and a spatial data chain of functional modules is defined within the multidimensional data space.
It should be noted that each functional module corresponds to a multidimensional data space, and the size of the multidimensional data space is determined by the volume and data of the spatial geometry included in the multidimensional data space.
Wherein creating the multidimensional data space in step 200 comprises:
201, calculating the space volume occupied by the functional module based on the space structure information;
and 202, creating a multidimensional data space according to the space volume and the relevant data corresponding to the functional module.
In addition, with reference to fig. 2, the spatial data link includes a start node S, an end node E, and description nodes X and Y, where the start node S is configured to identify a start position of the function module, the end node E is configured to identify an end position of the function module, and the description nodes X and Y are configured to identify spatial structure information and interactive interface information corresponding to the function module.
The binary data corresponding to each node is: the start node S:00; and the end node E:11; description node X:01; description node Y:10.
and 300, creating sub-module data chains in the spatial data chain, wherein each nested sub-module data chain takes a pair of a starting node and an ending node as a judgment standard.
In particular, a sub-module data chain, i.e. a sub-function module, may be created within a spatial data chain in case a function is declared, which function needs to call other functions. The sub-function modules support nesting, each nesting identified by a pair of a start node s0 and an end node e0 as a decision criterion.
One application system may include one or more functional modules, and the functional module may include other sub-functional modules, and the start and end identifiers of the functional module need to appear in pairs to identify the defined area of the functional module.
The spatial data chain is compiled 400 into binary code.
After all the related dependent functional modules and sub-functional modules of the application system are created, all the related modules are compiled into a binary program which can be operated in the current software and hardware environment through a program compiler, and a memory address with a proper size is created for each multidimensional data space in the process.
And 500, based on the upgrading requirement of the functional module in the multidimensional data space, filling a new binary code in the multidimensional data space, and updating the relevant definition of the spatial data chain.
In the operation process of the application system, if the upgrading requirement of the functional module in the multi-dimensional data space exists, filling the binary codes corresponding to the new functional module in the multi-dimensional data space according to the setting of the functional module of the new version, and updating the relevant definitions in the spatial data chain.
The application system can find a new functional module when calling the functional module in the multidimensional data space next time, and can select whether to call the new functional module or ignore the upgrade according to the established rule.
The spatial data chain can be continuously optimized, upgraded and modified in the running process of the system, the whole or partial evolution work of the system is completed, and the application system does not need to be shut down or restarted in the process.
In addition, when the application system runs, the functional modules are sequentially positioned, initialized and called through the spatial data chain, and the functional modules can read the initialization parameter information of the functional modules from the spatial data chain, so that the established function is completed. When the functional module can not meet the system requirements or can not meet the expectation, the application system can locate and find other functional modules meeting the requirements through the spatial data chain, so as to try to update and repair the defects by self.
After the functionality of the spatial data chain is expanded to a certain scale, functional modules with different task requirements can find related calling information of the required functional modules through the spatial data chain, so that intelligent application calling and logic processing without manual intervention are realized.
As another embodiment of the application system function self-configuration method, the method further includes:
and 600, when the system needs to be migrated to other software and hardware environments, copying the spatial data chain to the other software and hardware environments, and recompiling.
700, comparing a plurality of spatial data chains when the copied spatial data chains have different versions; and selecting the related definitions of the functional modules according to preset rules, and forming a new spatial data chain.
It should be noted that, when the copied spatial data chain has multiple different versions, multiple spatial data chains need to be compared, that is, each functional module is compared, comprehensive determination is performed according to the content, the degree of recency, and the like, and the relevant definitions of the functional modules are selected preferentially, and then a new spatial data chain is formed, and the system migration can be completed by recompiling and running the spatial data chain.
Based on the above application system function self-configuration method, the embodiment of the present application further discloses an application system function self-configuration system, which includes:
the distinguishing module is used for distinguishing a plurality of functional modules according to the functional difference of the system and defining the geometric structure and the interactive interface of the functional modules;
the system comprises a creating module, a judging module and a display module, wherein the creating module is used for creating a multidimensional data space and defining a space data chain of a functional module in the multidimensional data space;
the compiling module is used for compiling the spatial data chain into binary codes;
and the upgrading module is used for filling a new binary code in the multidimensional data space based on the upgrading requirement of the functional module in the multidimensional data space and updating the relevant definition of the spatial data chain.
An embodiment of the present application further discloses a computer-readable storage medium, which stores a computer program that can be loaded by a processor and executes the method described above, and the computer-readable storage medium includes, for example: various media capable of storing program codes, such as a usb disk, a removable hard disk, a Read-only memory (ROM), a Random Access Memory (RAM), a magnetic disk, or an optical disk.
The above embodiments are preferred embodiments of the present application, and the protection scope of the present application is not limited by the above embodiments, so: all equivalent changes made according to the structure, shape and principle of the present application shall be covered by the protection scope of the present application.
Claims (8)
1. A method for self-configuring functions of an application system is characterized by comprising the following steps:
distinguishing a plurality of functional modules according to the functional difference of the system, and defining the space structure information and the interactive interface information of the functional modules;
creating a multidimensional data space and defining a spatial data chain of a functional module in the multidimensional data space;
compiling the spatial data chain into binary code;
based on the upgrading requirement of the functional module in the multidimensional data space, filling new binary codes in the multidimensional data space, and updating the relevant definition of the spatial data chain.
2. The method of claim 1, wherein the step of creating a multidimensional data space comprises:
calculating the space volume occupied by the functional module based on the space structure information;
and creating a multidimensional data space according to the space volume and the interactive interface information corresponding to the functional module.
3. The method according to claim 1 or 2, wherein the spatial data chain comprises a start node, an end node and a description node, the start node is configured to identify a start position of the functional module, the end node is configured to identify an end position of the functional module, and the description node is configured to identify the spatial structure information and the interactive interface information corresponding to the functional module.
4. The method for self-configuring application system functions according to claim 3, further comprising:
and creating sub-module data chains in the spatial data chain, wherein each nested sub-module data chain takes a pair of a start node and an end node as a judgment standard.
5. The method for self-configuring application system functions according to claim 1, further comprising:
and when the system needs to be migrated to other software and hardware environments, copying the spatial data chain to the other software and hardware environments, and recompiling.
6. The method for self-configuring application system functions according to claim 5, further comprising:
and when the copied spatial data chains have different versions, comparing the plurality of spatial data chains, selecting the relevant definitions of the functional modules according to a preset rule, and forming a new spatial data chain.
7. An application system functionality self-configuration system, comprising:
the distinguishing module is used for distinguishing a plurality of functional modules according to the functional difference of the system and defining the geometric structure and the interactive interface of the functional modules;
the system comprises a creating module, a searching module and a processing module, wherein the creating module is used for creating a multidimensional data space and defining a space data chain of a functional module in the multidimensional data space;
the compiling module is used for compiling the spatial data chain into binary codes;
and the upgrading module is used for filling new binary codes in the multidimensional data space based on the upgrading requirements of the functional modules in the multidimensional data space and updating the relevant definitions of the spatial data chain.
8. A computer storage medium, characterized in that: a computer program that can be loaded into and executed by a processor for performing the method as claimed in any one of claims 1-6.
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