CN115935012A - Service processing method of process visualization markup language based on xml - Google Patents
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Abstract
The invention discloses a service processing method of a process visualization markup language based on xml, which belongs to the technical field of big data, wherein the process visualization markup language inherits all characteristics of the xml, follows grammar rules of the xml, and is additionally provided with a plurality of grammars so as to maximally meet service processing and process display, more accurately and intuitively express service needs in real time or quickly convert a new service process into an executable program and run on line.
Description
Technical Field
The invention belongs to the technical field of big data, and particularly relates to a service processing method of a process visualization markup language based on xml.
Background
In modern application software, there are systems with complex service logic, which bear core service logic, almost every requirement is related to the core service, and the service logic of the core service is long, and involves internal logic operation, cache operation, persistence operation, external resource calling, and remote procedure calling of other internal systems. After a long time, the project is easy to operate, the maintenance cost is higher and higher, various hard code judgment and branch conditions are more and more, the code abstraction and the multiplexing rate are lower and lower, and the coupling degree among all modules is high; the change of a small segment of logic can affect other modules and needs to be verified by a complete regression test; if the sequence of the business process needs to be changed flexibly, the code needs to be changed greatly to perform an abstraction and rewriting method. Therefore, the real-time thermal change of the business process is almost difficult to realize.
The industry puts forward a concept of flow arrangement innovatively around the treatment practice of complex business logic of application software based on a workbench mode, divides the complex business logic into small segments according to a field cohesion principle, and defines a flow execution rule. Therefore, all the components can dynamically perform complex flow conversion according to the configured rule and by combining the runtime parameters so as to process different business logics under different scenes.
However, there is an obvious gap between the flow of computer program-oriented software execution and designer-oriented business processes: on one hand, whether the execution flow of the software on the current line meets the requirements of the current business or not can be accurately, intuitively expressed in real time or not; on the other hand, how fast a new business process designed by a designer based on user requirements is converted into a computer executable program and runs online, and the user requirements are delivered in time. Therefore, it is necessary to design a computer language that can meet the execution requirement of the computer program and can be quickly converted into a visual flow display diagram.
Therefore, the invention provides a service processing method based on an xml flow visualization markup language, which at least solves some technical problems.
Disclosure of Invention
The technical problem to be solved by the invention is as follows: the method for processing the service of the process visualization markup language based on the xml is provided, and the existing technical problems are solved.
In order to achieve the purpose, the technical scheme adopted by the invention is as follows:
a service processing method based on a process visualization markup language of xml comprises the following steps:
s1, acquiring characteristics and grammar rules of xml;
s2, defining sub-fields by using the labels A, wherein each sub-field has a unique attribute, and each sub-field internally comprises a plurality of nodes and executable paths; defining nodes using label B; defining execution flows by using a label C, wherein each execution flow comprises a plurality of execution links; defining execution links by using the label D, wherein each execution link comprises a plurality of nodes to be executed and an execution sequence;
s3, analyzing the node of the sub-field to which the service to be executed belongs, and searching and calling the node of the sub-field according to the label A and the label B;
and S4, analyzing the executable path of the sub-field to which the service to be executed belongs, constructing an execution link according to the label C, determining the execution sequence of the execution link based on the label D, and finally operating the execution link according to the determined execution sequence.
Further, the label A is used for defining the sub-fields, each sub-field internally comprises a plurality of nodes and executable paths, the attributes of the sub-fields comprise attributes A representing the name space, and the attribute value of each attribute A is unique.
Further, the node is defined by using the label B, the attributes of the node comprise an attribute B1 representing the node identification, an attribute B2 representing the node name and an attribute B3 representing the node type, the attribute B1 is used for computer program reference, and the attribute B2 is used for process visualization presentation.
Further, the step S4 includes: and analyzing the node of the sub-field to which the service to be executed belongs, and searching and calling the node of the sub-field from the computer program according to the attribute A of the label A, and the attribute B1, the attribute B2 and the attribute B3 of the label B.
Further, the execution flows are defined by using the labels C, each execution flow contains a plurality of execution links, the attributes of the execution links comprise an attribute C1 representing the identification of the execution link, an attribute C2 representing the name of the execution link, and an attribute C3 representing the type of the execution link, the type of the execution link comprises a common execution link and a sub-execution link, the attribute C1 is used for computer program reference, and the attribute C2 is used for flow visualization presentation.
Further, executing links are defined by using the tags D, each executing link comprises a plurality of nodes to be executed and an executing sequence, the attributes D1 are used for defining a plurality of nodes to be executed, the attributes D2 are used for defining the executing sequence of the nodes to be executed, and the executing sequence comprises sequential execution, concurrent execution, selective execution and sub-link execution.
Further, the step S4 includes: analyzing an executable path of the sub-field to which the service to be executed belongs, sequentially constructing each execution link in the execution flow according to the attribute C1, the attribute C2 and the attribute C3 of the label C, determining an execution sequence of each execution link based on the attribute D1 and the attribute D2 of the label D, and finally sequentially operating each execution link according to the determined execution sequence.
Further, the method further comprises a step S5 of displaying the flow of the business processing and generating a flow display diagram.
Further, the step S5 includes: s51, converting each node of the sub-field into a corresponding graphic element, and reading an attribute value of a node attribute B2 as the name of the graphic element; and S52, converting the executable paths of the sub-fields into corresponding flow charts, and connecting the graphic elements through control flow arrows.
Further, the control flow arrows between the graphic elements are determined by the attribute D2 of the tag D: when the attribute D2 represents sequential execution, the control flow arrows between two graphic elements are straight arrows; when the attribute D2 indicates that the selection is executed, a branched arrow with a judgment condition exists on two sides of the current graphic element, and two ends of the branched arrow respectively point to the graphic element with the judgment result of yes or no; when the attribute D2 represents concurrent execution, a plurality of graphic elements are contained in an unordered element pool, and the previous graphic element points to the unordered element pool through a straight-line arrow; when the attribute D2 represents the execution of the sublink, a plurality of graphic elements of the sublink are contained in an ordered element pool, the last graphic element of the previous link points to the ordered element pool through a straight line arrow, and then a straight line or a branched arrow is selected to connect the graphic elements in the ordered element pool based on the subordinate attribute in the attribute D2.
Compared with the prior art, the invention has the following beneficial effects:
the invention provides a service processing method of a flow visualization markup language based on xml, which not only inherits all the characteristics of the xml and follows the grammar rule of the xml, but also meets the service processing and flow display by adding new grammar, can more accurately and intuitively express the service requirement in real time or quickly convert a new service flow into an executable program and run on line, can quickly convert the new service flow into a visualization flow display diagram while considering the execution requirement of a computer program, and is simple to use and more widely applied.
Drawings
FIG. 1 is a code diagram according to an embodiment of the present invention.
FIG. 2 is a flow chart showing an embodiment of the present invention.
Detailed description of the preferred embodiments
In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is further described in detail below with reference to the accompanying drawings. It is to be understood that the described embodiments are merely exemplary of the invention, and not restrictive of the full scope of the invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
In the description of the present invention, it should be noted that the terms "a", "B", "C", "1", "2", "3", etc. are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.
xml is collectively called "Extensible Markup Language," which is a source Language that allows a user to define his Markup Language. The xml characteristics include the following 5 strips: 1) Xml must be specified using declaration statements, for example, xml uses a canonical version of "1.0", uses a character set of "UTF-8", and <; 2), character case distinguishing; 3) There is and only one root element; 4) The attribute value of the element needs to be referenced by quotation marks; 5) All tags must have a corresponding end tag, including an empty tag. In actual use, the server and the client both need to spend a large amount of codes to resolve xml, so that the codes of both the server and the client become extremely complex and are not easy to maintain.
Therefore, the invention provides a service processing method of a process visualization markup language based on xml, wherein the process visualization markup language inherits all characteristics of xml and follows grammar rules of xml, and the method also comprises the following newly-added grammars: defining sub-fields by using a label A, wherein each sub-field internally comprises a plurality of nodes and executable paths; defining nodes by using a label B, wherein each execution flow comprises a plurality of execution links; and defining execution links by using the label D, wherein each execution link comprises a plurality of nodes to be executed and an execution sequence. Then, performing service processing based on the newly added grammar, specifically: and searching and calling the nodes of the sub-fields according to the labels A and B, then constructing an execution link according to the label C, determining the execution sequence of the execution link based on the label D, and finally operating the execution link according to the determined execution sequence.
Preferably, the process visualization markup language of the present invention is named "Yula" and the Chinese name "You La".
In some embodiments, a sphere tag is used to define a sub-domain, each sub-domain including a number of nodes and executable paths inside. The attributes of the sub-domain include namespace attributes representing a namespace, and the attribute value of each namespace attribute is unique. For example, a sub-domain "namespace1" is defined using the flow visualization markup language: < sphere namespace = "namespace1" >/sphere >.
In some embodiments, a node is defined using a point tag, and the attributes of the node include an id attribute that represents the identity of the node, a name attribute that represents the name of the node, and a type attribute that represents the type of the node. The node types include a normal type (normal) representing a normal node, a parallel type (current) representing a parallel execution node, and a condition type (condition) representing a condition node. For example, a common node labeled "a" and named "a" is defined using the flow visualization markup language: < point id = "a" name = "a" type = "normal" > ".
In some embodiments, a route tag is used to define execution flows, each execution flow contains a plurality of execution links, the attributes of the execution links include an id attribute representing the identification of the execution link, a name attribute representing the name of the execution link, and a type attribute representing the type of the execution link, the type of the execution link includes a normal execution link (normal) and a sub execution link (sub), the attribute C1 is used for computer program reference, and the attribute C2 is used for flow visualization presentation. For example, a common execution link identified as "route1" and named "execution link 1" is defined using the flow visualization markup language: < route id = "route1" name = "execution link 1" type = "normal" >.
In some embodiments, execution links are defined using the execute tag, each execution link contains several nodes to be executed and an execution sequence, several nodes to be executed are defined using the nodes attribute, the execution sequence of the nodes to be executed is defined using the type attribute, and the execution sequence includes sequential execution (normal), concurrent execution (current), selective execution (condition) and sub-link execution (condition). For example, the flow visualization markup language is used to define the execution processes sequentially executed by two nodes of "a" and "b": < execute nodes = "a, b" type = "normal" > < execute >. Specifically, the conditional order, for example, a [ b | | c ], indicates that the b node or the c node is executed according to the judgment result of the a node.
The process visualization markup language is adopted to compile codes, and the business processing and the process display are carried out based on the process visualization markup language. When used for traffic handling: 1) A developer needs to realize each node by himself, and the process visualization markup language does not limit the realization mode of the node and can be a section of script, a method or a class; for example, define a class of a.java as a node a; 2) The nodes must be named as a combination of sphere-namespace plus ". Just." plus point-id to ensure that the designated nodes are searched and called to be executed in the application global; 3) The execution order of the nodes is specified by the attribute D2 of the tag D: when the execution sequence is sequential execution (normal), the current node must be sequentially executed according to the sequence; when the execution sequence is concurrent execution (current), all the current nodes are executed simultaneously, and no sequence requirement exists; when the execution sequence is conditional execution (condition), the current conditional node should be executed first, and which node should be executed next is judged according to the execution result of the conditional node; 4) When the section of script, method or class changes, the system business processing logic should change accordingly. When used for flow demonstration: 1) Each node corresponds to a graphic element, and the process visualization markup language does not limit the implementation manner of the elements and can be a square frame, a circle or even a three-dimensional graph; 2) The name (point-name) of the node is used as the display name of the graphic element, and the type (point-type) of the node is used for prompting the type of the current graphic element; 3) The execution order is determined by the attribute D2 of the tag D: when the attribute D2 represents sequential execution, the control flow arrows between two graphic elements are straight arrows; when the attribute D2 indicates that the selection is executed, a bifurcation arrow with a judgment condition exists on two sides of the current graphic element, and two ends of the bifurcation arrow point to the graphic element with the judgment result of yes or no respectively; when the attribute D2 represents concurrent execution, a plurality of graphic elements are contained in an unordered element pool, and the previous graphic element points to the unordered element pool through a straight-line arrow; when the attribute D2 represents the execution of the sublink, a plurality of graphic elements of the sublink are contained in an ordered element pool, the last graphic element of the previous link points to the ordered element pool through a straight line arrow, and based on the subordinate attributes in the attribute D2, the subordinate attributes comprise a subordinate execution sequence, a subordinate selection sequence and a subordinate concurrency sequence, and according to the corresponding subordinate attributes, straight lines or branched arrows are selected to connect the graphic elements in the ordered element pool. 4) The process visual markup language supports hot loading including forward reading, backward writing, and runtime, and is not limited thereto as long as the application allows.
Examples
As shown in fig. 1, the process visualization markup language of the present invention is used to write codes, and perform service processing and process display based on the process visualization markup language. The code is:
in the specific embodiment, the namespace attribute of the service is analyzed, the corresponding sub-field namespace1 and the A-I node of the sub-field namespace1 are obtained, and based on the attribute of the node identification point id, the node name point name and the node type corresponding to each node, the node is searched and called from a computer program; analyzing the attributes of an execution link identifier route id, an execution link name route name and an execution link type of an execution link in the namespace1, acquiring the execution link 1 and the sub-link 1, determining the execution sequence of the execution link 1 and the sub-link 1 based on the attributes of a plurality of nodes to be executed in each link and the execution sequence of the nodes to be executed, and finally sequentially operating the execution link 1 and the sub-link 1 according to the determined execution sequence. The method comprises the following specific steps: starting a program, sequentially executing the node A to the node B, then executing the node C and the node D concurrently, and then executing the node E; judging the execution result of the E node according to the condition, if so, executing the F node, and if not, executing the G node; and the F node or the G node enters the sublink 1 after the execution is completed, namely the H node and the I node are sequentially executed, and the program is ended. The flow corresponding to the specific embodiment is shown in fig. 2.
Finally, it should be noted that: the above embodiments are only preferred embodiments of the present invention to illustrate the technical solutions of the present invention, but not to limit the technical solutions, and certainly not to limit the patent scope of the present invention; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; the modifications or the substitutions do not cause the essence of the corresponding technical solutions to depart from the scope of the technical solutions of the embodiments of the present invention; that is, the technical problems to be solved by the present invention, which are not substantially changed or supplemented by the spirit and the concept of the main body of the present invention, are still consistent with the present invention and shall be included in the scope of the present invention; in addition, the technical scheme of the invention is directly or indirectly applied to other related technical fields, and the technical scheme is included in the patent protection scope of the invention.
Claims (10)
1. A service processing method based on a process visualization markup language of xml is characterized by comprising the following steps:
s1, acquiring characteristics and grammar rules of xml;
s2, defining sub-fields by using the labels A, wherein each sub-field has a unique attribute, and each sub-field internally comprises a plurality of nodes and executable paths; defining nodes using label B; defining execution flows by using a label C, wherein each execution flow comprises a plurality of execution links; defining execution links by using the label D, wherein each execution link comprises a plurality of nodes to be executed and an execution sequence;
s3, analyzing the node of the sub-field to which the service to be executed belongs, and searching and calling the node of the sub-field according to the label A and the label B;
and S4, analyzing the executable path of the sub-field to which the service to be executed belongs, constructing an execution link according to the label C, determining the execution sequence of the execution link based on the label D, and finally operating the execution link according to the determined execution sequence.
2. The service processing method of the xml-based flow visualization markup language according to claim 1, wherein a label a is used to define a sub-domain, each sub-domain comprises a plurality of nodes and executable paths therein, attributes of the sub-domain comprise attributes a representing a namespace, and attribute values of each attribute a are unique.
3. The service processing method of the xml-based flow visualization markup language according to claim 2, wherein a label B is used to define the node, the attributes of the node include an attribute B1 representing the node identifier, an attribute B2 representing the node name, and an attribute B3 representing the node type, the attribute B1 is used for computer program reference, and the attribute B2 is used for flow visualization presentation.
4. The service processing method of the xml-based flow visualization markup language according to claim 3, wherein the step S4 comprises: and analyzing the node of the sub-field to which the service to be executed belongs, and searching and calling the node of the sub-field from the computer program according to the attribute A of the label A, and the attribute B1, the attribute B2 and the attribute B3 of the label B.
5. The service processing method of the xml-based flow visualization markup language according to claim 4, wherein the tag C is used to define execution flows, each execution flow contains a plurality of execution links, the attributes of the execution links include an attribute C1 indicating identification of the execution link, an attribute C2 indicating name of the execution link, and an attribute C3 indicating type of the execution link, the types of the execution links include a normal execution link and a sub-execution link, the attribute C1 is used for computer program reference, and the attribute C2 is used for flow visualization presentation.
6. The service processing method of the xml-based flow visualization markup language according to claim 5, wherein tag D is used to define execution links, each execution link contains several nodes to be executed and an execution sequence, attribute D1 is used to define several nodes to be executed, attribute D2 is used to define the execution sequence of the nodes to be executed, and the execution sequence includes sequential execution, concurrent execution, selective execution and sub-link execution.
7. The service processing method of the xml-based flow visualization markup language according to claim 6, wherein the step S4 comprises: analyzing an executable path of the sub-field to which the service to be executed belongs, sequentially constructing each execution link in the execution flow according to the attribute C1, the attribute C2 and the attribute C3 of the label C, determining an execution sequence of each execution link based on the attribute D1 and the attribute D2 of the label D, and finally sequentially operating each execution link according to the determined execution sequence.
8. The service processing method of the xml-based flow visualization markup language according to claim 7, further comprising a step S5 of displaying the flow of the service processing and generating a flow display diagram.
9. The service processing method of the xml-based flow visualization markup language according to claim 8, wherein the step S5 comprises: s51, converting each node of the sub-field into a corresponding graphic element, and reading an attribute value of a node attribute B2 as the name of the graphic element; and S52, converting the executable paths of the sub-fields into corresponding flow charts, and connecting the graphic elements through control flow arrows.
10. The service processing method of the xml-based flow visualization markup language according to claim 9, wherein control flow arrows between graphic elements are determined by an attribute D2 of a tag D: when the attribute D2 represents sequential execution, the control flow arrows between two graphic elements are straight arrows; when the attribute D2 indicates that the selection is executed, a branched arrow with a judgment condition exists on two sides of the current graphic element, and two ends of the branched arrow respectively point to the graphic element with the judgment result of yes or no; when the attribute D2 represents concurrent execution, a plurality of graphic elements are contained in an unordered element pool, and the previous graphic element points to the unordered element pool through a straight-line arrow; when the attribute D2 represents the execution of the sublink, a plurality of graphic elements of the sublink are contained in an ordered element pool, the last graphic element of the previous link points to the ordered element pool through a straight line arrow, and then a straight line or a branched arrow is selected to connect the graphic elements in the ordered element pool based on the subordinate attribute in the attribute D2.
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