CN117611095A - Design method of multifunctional combination collocation system applied to supply chain - Google Patents
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Abstract
The invention discloses a design method of a multifunctional combination collocation system applied to a supply chain, which comprises the following steps: when subsystems of any two different service scenes are matched, determining one subsystem as a main chain and the other subsystem as a secondary chain according to the corresponding service flow function of the subsystem and the position of the service flow function in the service overall logic; the context semantic rules of the entity components corresponding to the main chain and the auxiliary chain are deduced one by one through the logic analysis model, and whether any entity component on the auxiliary chain and any entity component on the main chain have relevance of connection by taking the context semantic rules as the connection is judged, and parameters between the entity components are transferred by context semantics, so that functions which can be realized by different platforms can be matched and used practically, namely, the combination of subsystem and subsystem of a system can be defined.
Description
Technical Field
The invention relates to the technical field of combination collocation design of supply chain systems, in particular to a design method of a multifunctional combination collocation system applied to a supply chain.
Background
The requirement of many logistics enterprises is across-field, and according to industry specifications, different application platforms are usually manufactured according to different fields. This makes it necessary for the enterprise to complete the operations of different functions using the systems in various scenarios, and the exchange between the systems is prone to error, and in the conventional technology, for example, WMS, TMS, OMS, the three are not separated, so that all the operations can be completed in one application system. However, because the programming languages used by different operation platforms are different, the functions of the different platforms cannot be completely embedded in the same platform.
Disclosure of Invention
In view of the above, in order to solve the problems in the prior art, the present invention provides a design method of a multifunctional combination collocation system applied to a supply chain.
The main technical scheme is as follows:
the design method of the multifunctional combination collocation system applied to the supply chain comprises the following steps:
acquiring subsystems under different service scenes and service flow diagrams corresponding to the subsystems, obtaining a system structure of the subsystems according to the service flow diagrams, dividing the subsystems into a plurality of entity components according to the system structure, and acquiring service rules and logic chains corresponding to the entity components;
corresponding labeling is carried out on business rules among entity components through the logic chain, so that each chain point on the logic chain is matched with a corresponding context semantic rule;
when subsystems of any two different service scenes are matched, determining one subsystem as a main chain and the other subsystem as a secondary chain according to the corresponding service flow function of the subsystem and the position of the service flow function in the service overall logic;
the method comprises the steps that context semantic rules of entity components corresponding to a main chain and a secondary chain are estimated one by one through a logic analysis model, whether any entity component on the secondary chain and any entity component on the main chain are in association with each other or not is judged, when the association exists, a chain point corresponding to the entity component on the secondary chain and a logic chain corresponding to the chain point are extracted through the context semantic rules, the corresponding logic chain is segmented through the chain point serving as a segmentation point, an embedded logic chain taking the chain point as a starting point is obtained, and the embedded logic chain is input to the main chain through the context semantic; when the service is not available, fusion cannot be performed, and the subsystems of two different service scenes cannot be collocated.
Further, the business flow chart is divided into a plurality of information flow nodes according to the execution task nodes, and each information flow node is used as a benchmark for demarcating business boundaries, wherein each information flow node corresponds to one entity component.
Further, each executing task node is represented as a task flow, and the task flow has uniqueness.
Further, the system structure is a flow structure representing a task flow formed by arranging a plurality of entity components in a business flow.
Further, the business rules of the entity components are defined by script components, and a subsystem uses one script component to define the business rules of all entity components contained in the subsystem;
wherein, the business rule comprises the following two parts:
a first part: defining association relations with other entity components through natural semantic functions;
a second part: defining the entity components and other entity components to form unique association under different scenes through standard semantics so as to achieve the effect of exclusive association;
the standard semantics are used for limiting the directions of the association relations through standard natural semantic functions, and the directions are set to be unique.
Further, the logic chain is used to represent control logic of business rules among all the linked entity components in the subsystem in the sense of task flow.
Further, the logical chain has a number of chain points, each chain point comprising:
(1) the method comprises the following steps The matching relation between the entity components is formed through the first label;
(2) the method comprises the following steps Business rules corresponding to the entity components and matching the business rules with the entity components by a first label;
(3) the method comprises the following steps And the context semantic rule is formed by a natural semantic function and a standard natural semantic function and is analyzed by the business rule.
Further, the business process function and the position of the business process function in the business overall logic are expressed as: the subsystem is used for realizing the business functions in the whole system, judging the sequence of the business functions according to the up-down association functions which are butted by the business functions, and judging at least one function position according to the sequence.
Further, the logic analysis model has:
the logic library is used for storing context semantic rules;
the analysis unit is used for calling the logic library to infer whether unique association exists between any two entity components through context natural semantics;
and the output unit is used for outputting the analysis result.
Further, the method for linking the embedded logic chain to the main chain through the context semantics comprises the following steps: and acquiring an associated chain point corresponding to the chain point and the main chain, taking a next-stage chain point corresponding to the associated chain point as a embedding point, writing conditional semantics formed by natural semantic functions into a business rule of the next-stage chain point, and setting a logic path formed by limiting the basis conditions of two natural semantic functions in the next-stage chain point by the conditional semantics.
The intentional effect of this application is:
in the present application, the method of business process planning is utilized, so that all the entity components used are parameter-free, that is, the parameters of the access ports of the entity components are standardized, and no specific parameters are needed. The parameters between the entity components are transferred by context semantics, so that the functions which can be realized by different platforms can be matched and used in practice, namely, the combination of subsystem in the system can be defined.
In order to enable collocation to be achieved, when a plurality of subsystems are matched, firstly determining which subsystem is used as a main chain and which subsystem is used as a secondary chain according to a service flow function corresponding to the subsystem and the position of the service flow function in service overall logic, performing gradual speculation on context semantic rules of entity components corresponding to the main chain and the secondary chain through a logic analysis model, judging whether any entity component on the secondary chain and any entity component on the main chain are in association with each other by taking the context semantic rules as connection, and when the association exists, extracting a chain point corresponding to the entity component on the secondary chain and a logic chain corresponding to the chain point by taking the chain point as a segmentation point, so as to obtain an embedded logic chain taking the chain point as a starting point, and linking the embedded logic chain to the main chain through the context semantic rules; when the service is not available, fusion cannot be performed, and the subsystems of two different service scenes cannot be collocated.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for the description of the embodiments will be briefly described below, and it is apparent that the drawings in the following description are only some embodiments of the present invention, and other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a flow chart of a method provided by the present invention.
Detailed Description
For the purpose of making the objects, technical solutions and advantages of the present invention more apparent, the embodiments of the present invention will be described in further detail with reference to the accompanying drawings.
Example 1
Referring to fig. 1, the present application provides a design method of a multifunctional combination collocation system applied to a supply chain, comprising the following steps:
acquiring subsystems under different service scenes and service flow diagrams corresponding to the subsystems, obtaining a system structure of the subsystems according to the service flow diagrams, dividing the subsystems into a plurality of entity components according to the system structure, and acquiring service rules and logic chains corresponding to the entity components;
corresponding labeling is carried out on business rules among entity components through the logic chain, so that each chain point on the logic chain is matched with a corresponding context semantic rule;
when subsystems of any two different service scenes are matched, determining one subsystem as a main chain and the other subsystem as a secondary chain according to the corresponding service flow function of the subsystem and the position of the service flow function in the service overall logic;
the method comprises the steps that context semantic rules of entity components corresponding to a main chain and a secondary chain are estimated one by one through a logic analysis model, whether any entity component on the secondary chain and any entity component on the main chain are in association with each other or not is judged, when the association exists, a chain point corresponding to the entity component on the secondary chain and a logic chain corresponding to the chain point are extracted through the context semantic rules, the corresponding logic chain is segmented through the chain point serving as a segmentation point, an embedded logic chain taking the chain point as a starting point is obtained, and the embedded logic chain is input to the main chain through the context semantic; when the service is not available, fusion cannot be performed, and the subsystems of two different service scenes cannot be collocated.
In the above, by dividing the service flow chart into a plurality of information flow nodes according to the execution task node, each information flow node is used as a benchmark for defining a service boundary, where each information flow node corresponds to one entity component, where the entity component is programmed by using a Vue tool (no code tool platform), an access port of the entity component is set as a standard parameter, and parameters between the entity components are transferred by context semantics, so that in any scenario, the entity components with the association can be associated by context semantics.
In some embodiments, for example, taking the harvested business process as an example, the corresponding execution task nodes include a start-new building button action-pop-up new harvest sheet page-new save button-create order form process-enable button action-enable flow expression-audit button action … …, and these execution task nodes are information flow nodes. Each executing task node is represented as a task flow, and the task flow has uniqueness.
Further, the system structure is a flow structure representing a task flow formed by arranging a plurality of entity components in a business flow.
Further, the business rules of the entity components are defined by script components, and a subsystem uses one script component to define the business rules of all entity components contained in the subsystem;
wherein, the business rule comprises the following two parts:
a first part: defining association relations with other entity components through natural semantic functions;
a second part: defining the entity components and other entity components to form unique association under different scenes through standard semantics so as to achieve the effect of exclusive association;
the standard semantics are used for limiting the directions of the association relations through standard natural semantic functions, and the directions are set to be unique.
Further, the logic chain is used to represent control logic of business rules among all the linked entity components in the subsystem in the sense of task flow.
Further, the logical chain has a number of chain points, each chain point comprising:
(1) the method comprises the following steps The matching relation between the entity components is formed through the first label;
(2) the method comprises the following steps Business rules corresponding to the entity components and matching the business rules with the entity components by a first label;
(3) the method comprises the following steps And the context semantic rule is formed by a natural semantic function and a standard natural semantic function and is analyzed by the business rule.
Further, the business process function and the position of the business process function in the business overall logic are expressed as: the subsystem is used for realizing the business functions in the whole system, judging the sequence of the business functions according to the up-down association functions which are butted by the business functions, and judging at least one function position according to the sequence.
Further, the logic analysis model has:
the logic library is used for storing context semantic rules;
the analysis unit is used for calling the logic library to infer whether unique association exists between any two entity components through context natural semantics;
and the output unit is used for outputting the analysis result.
Further, the method for linking the embedded logic chain to the main chain through the context semantics comprises the following steps: and acquiring an associated chain point corresponding to the chain point and the main chain, taking a next-stage chain point corresponding to the associated chain point as a embedding point, writing conditional semantics formed by natural semantic functions into a business rule of the next-stage chain point, and setting a logic path formed by limiting the basis conditions of two natural semantic functions in the next-stage chain point by the conditional semantics.
In the present application, the method of business process planning is utilized, so that all the entity components used are parameter-free, that is, the parameters of the access ports of the entity components are standardized, and no specific parameters are needed. The parameters between the entity components are transferred by context semantics, so that the functions which can be realized by different platforms can be matched and used in practice, namely, the combination of subsystem in the system can be defined.
In order to enable collocation to be achieved, when a plurality of subsystems are matched, firstly determining which subsystem is used as a main chain and which subsystem is used as a secondary chain according to a service flow function corresponding to the subsystem and the position of the service flow function in service overall logic, performing gradual speculation on context semantic rules of entity components corresponding to the main chain and the secondary chain through a logic analysis model, judging whether any entity component on the secondary chain and any entity component on the main chain are in association with each other by taking the context semantic rules as connection, and when the association exists, extracting a chain point corresponding to the entity component on the secondary chain and a logic chain corresponding to the chain point by taking the chain point as a segmentation point, so as to obtain an embedded logic chain taking the chain point as a starting point, and linking the embedded logic chain to the main chain through the context semantic rules; when the service is not available, fusion cannot be performed, and the subsystems of two different service scenes cannot be collocated.
In some embodiments, parameters between the entity components are transferred by context semantics without resetting access parameters of the entity components, so that the business process arrangement does not need to form hooks with programming languages, multiple scripting languages can be supported in the application, different scripting languages can be selected to define own scripting language nodes, and mixed editing of multiple scripting languages and JaVa components can be realized. In combination with hot refreshing, the online service does not need to issue second change logic, wherein the rules support xml, json, yml three rule file writing modes.
In some embodiments, since the parameters of the gateway of the entity component do not need to be reset, the parameters between the entity component and the entity component are transferred by context semantics, when the application scene changes, the corresponding business rule also changes, but the application does not need to be restarted, and the executing rule does not have any disorder due to the refresh rule under high concurrency.
In some embodiments, the entity components and other entity components form unique association under different scenes by defining standard semantics among different association relations, so as to achieve the effect of exclusive association. Therefore, the present application has a reliable context isolation mechanism without fear of data streaming in high concurrency situations.
In some embodiments, although the application defines that the entity component has unique association with other entity components, the application does not represent that the entity component cannot form association with other entity components under one application flow, the application defines association relationships with other entity components through a rule part by using a natural semantic function, and the association relationships are not unique, and can define a logical path formed by writing conditional semantics formed by using the natural semantic function in a business rule part in a script file and setting the conditional semantics in the basis of conditions of two natural semantic functions in one business rule.
In some embodiments, the subsystems in the original system are generally used as a main chain, and the embedded subsystem is used as a secondary chain, if multiple subsystems are collocated in one system at the same time, the next subsystem is fused after the subsystems are fused in a pairwise collocation mode.
The foregoing description of the preferred embodiments of the invention is not intended to limit the invention to the precise form disclosed, and any such modifications, equivalents, and alternatives falling within the spirit and scope of the invention are intended to be included within the scope of the invention.
Claims (10)
1. The design method of the multifunctional combination collocation system applied to the supply chain is characterized by comprising the following steps of:
acquiring subsystems under different service scenes and service flow diagrams corresponding to the subsystems, obtaining a system structure of the subsystems according to the service flow diagrams, dividing the subsystems into a plurality of entity components according to the system structure, and acquiring service rules and logic chains corresponding to the entity components;
corresponding labeling is carried out on business rules among entity components through the logic chain, so that each chain point on the logic chain is matched with a corresponding context semantic rule;
when subsystems of any two different service scenes are matched, determining one subsystem as a main chain and the other subsystem as a secondary chain according to the corresponding service flow function of the subsystem and the position of the service flow function in the service overall logic;
the method comprises the steps that context semantic rules of entity components corresponding to a main chain and a secondary chain are estimated one by one through a logic analysis model, whether any entity component on the secondary chain and any entity component on the main chain are in association with each other or not is judged, when the association exists, a chain point corresponding to the entity component on the secondary chain and a logic chain corresponding to the chain point are extracted through the context semantic rules, the corresponding logic chain is segmented through the chain point serving as a segmentation point, an embedded logic chain taking the chain point as a starting point is obtained, and the embedded logic chain is input to the main chain through the context semantic; when the service is not available, fusion cannot be performed, and the subsystems of two different service scenes cannot be collocated.
2. The method for designing a multifunctional combined collocation system applied to a supply chain according to claim 1, wherein each information flow node is used as a benchmark for defining a service boundary by dividing the service flow chart into a plurality of information flow nodes according to execution task nodes, and each information flow node corresponds to one entity component.
3. The method of claim 2, wherein each task executing node is represented as a task flow, and the task flow is unique.
4. The method for designing a multifunctional combined collocation system for supply chains according to claim 1, wherein the system structure is a flow structure representing task flows formed by arranging a plurality of entity components in business flows.
5. The method for designing a multifunctional combined collocation system applied to a supply chain according to claim 1, wherein the business rules of the entity components are defined by script components, and one subsystem uses one script component to define the business rules of all entity components contained in the subsystem;
wherein, the business rule comprises the following two parts:
a first part: defining association relations with other entity components through natural semantic functions;
a second part: defining the entity components and other entity components to form unique association under different scenes through standard semantics so as to achieve the effect of exclusive association;
the standard semantics are used for limiting the directions of the association relations through standard natural semantic functions, and the directions are set to be unique.
6. The method of claim 1, wherein the logic chain is used to represent control logic of business rules among all physical components linked in the subsystem in the direction of task flows.
7. The method for designing a multifunctional combined collocation system for a supply chain according to claim 1 or 6, wherein the logic chain has a plurality of chain points, each chain point comprising:
(1) the method comprises the following steps The matching relation between the entity components is formed through the first label;
(2) the method comprises the following steps Business rules corresponding to the entity components and matching the business rules with the entity components by a first label;
(3) the method comprises the following steps And the context semantic rule is formed by a natural semantic function and a standard natural semantic function and is analyzed by the business rule.
8. The method for designing a multifunctional combined collocation system applied to a supply chain according to claim 1, wherein the business process function and the position of the business process function in the business overall logic are expressed as: the subsystem is used for realizing the business functions in the whole system, judging the sequence of the business functions according to the up-down association functions which are butted by the business functions, and judging at least one function position according to the sequence.
9. The method for designing a multifunctional combinatorial collocation system applied to a supply chain according to claim 1, wherein the logic analysis model comprises:
the logic library is used for storing context semantic rules;
the analysis unit is used for calling the logic library to infer whether unique association exists between any two entity components through context natural semantics;
and the output unit is used for outputting the analysis result.
10. The method for designing a multifunctional combined collocation system applied to a supply chain according to claim 1, wherein the method for linking the embedded logic chain to a main chain through context semantics is as follows:
and acquiring an associated chain point corresponding to the chain point and the main chain, taking a next-stage chain point corresponding to the associated chain point as a embedding point, writing conditional semantics formed by natural semantic functions into a business rule of the next-stage chain point, and setting a logic path formed by limiting the basis conditions of two natural semantic functions in the next-stage chain point by the conditional semantics.
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