CN116775255B - Global integration system supporting wide integration scene - Google Patents
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- CN116775255B CN116775255B CN202311023911.1A CN202311023911A CN116775255B CN 116775255 B CN116775255 B CN 116775255B CN 202311023911 A CN202311023911 A CN 202311023911A CN 116775255 B CN116775255 B CN 116775255B
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Abstract
The invention relates to the technical field of integrated systems, in particular to a global integration system supporting a wide integration scene, which comprises the following components: an interface management module: the system is used for managing interfaces among all subsystems, providing registration, release, subscription, monitoring and calling of the interfaces, and comprises interface definition, interface protocol and interface version control; and a data conversion and mapping module: the method is used for realizing format conversion and mapping of data among different subsystems, so that the data can flow among a plurality of subsystems; a flow arranging and scheduling module: the system is used for arranging and scheduling the service requests of different subsystems according to the service rules and the flow definition and then sending the service requests to the target subsystem for processing; and a service execution feedback module: and receiving the service processing result of the target subsystem and returning the result to the subsystem initiating the request. The invention releases the computational power resources of part of subsystems, thereby improving the completion efficiency of the service request.
Description
Technical Field
The invention relates to the technical field of integrated systems, in particular to a global integrated system supporting a wide integrated scene.
Background
The global integration system is a central control system that comprehensively manages and controls various intelligent devices and systems. The intelligent control system can be connected with and communicated with various intelligent devices, sensors and systems to realize automatic control, monitoring and linkage operation.
The main characteristics of the global integration system include: 1. cross-platform compatibility: the system can be seamlessly integrated with intelligent devices and systems of different brands and different types, so that cross-platform interoperability is realized; 2. multifunctional integration: it supports integration of various functions and scenes such as safety monitoring, lighting control, temperature regulation, entertainment systems, curtain control, etc.; 3. intelligent management: the system can provide intelligent management and control for habit and behavior modes of the subsystem, and realize automatic task execution; 4. remote control and monitoring: remote control and monitoring can be performed through mobile phone application or network; 5. extensibility and flexibility: the system supports modular design and expansion, and users can gradually increase intelligent devices and functions according to requirements.
Although the global integration system can make all subsystems as a whole, the service processing and information sharing can be performed. However, in the actual service processing process, with the increase of the service processing amount, the coordination between the request end and the processing end, the queue division and the priority ordering between the service requests often occupy the main part of the global integrated system dispatching computing power, so that the computing power of the integrated system needs to be effectively saved under the premise of considering the computing power load of each subsystem.
Disclosure of Invention
The present invention aims to provide a global integration system supporting a wide integration scenario, which solves the above technical problems.
The aim of the invention can be achieved by the following technical scheme:
a global integration system supporting a widely integrated scenario, comprising:
an interface management module: the system is used for managing interfaces among all subsystems, providing registration, release, subscription, monitoring and calling of the interfaces, and comprises interface definition, interface protocol and interface version control;
and a data conversion and mapping module: the method is used for realizing format conversion and mapping of data among different subsystems, so that the data can flow among a plurality of subsystems, including conversion of a data structure, field mapping, data cleaning and verification;
a flow arranging and scheduling module: the system is used for arranging and scheduling the service requests of different subsystems according to the service rules and the flow definition and then sending the service requests to the target subsystem for processing;
and a service execution feedback module: and receiving the service processing result of the target subsystem and returning the result to the subsystem initiating the request.
As a further scheme of the invention: the flow arranging and scheduling module specifically comprises:
a flow arrangement unit: the method comprises the steps of acquiring a service request of a subsystem, analyzing attribute data in the service request, wherein the attribute data comprises service priority and a target subsystem, and the target subsystem represents the subsystem for processing the service request; dividing task queues according to different target subsystems of the service requests, and sequencing the service requests in the same task queue according to service priorities;
a flow scheduling unit: calculating the business processing amount of each batch of the target subsystem according to the business processing condition of the target subsystem, wherein the business processing amount is the completion amount of the business request of the target subsystem in a preset settlement period; and dispatching the service request corresponding to the service processing amount from the task queue to the corresponding target subsystem.
As a further scheme of the invention: the system also comprises a service processing monitoring module, wherein the service processing monitoring module is used for recording the state and performance indexes of each subsystem and analyzing the service processing capacity of the subsystem through logs and monitoring data.
As a further scheme of the invention: in the flow scheduling unit, the scheduling period of the task queue is equal to the settlement period of the business processing amount of the corresponding target subsystem.
As a further scheme of the invention: and after the task queue reaches a scheduling period, acquiring the state of a corresponding target subsystem from the service processing monitoring module, if an unprocessed service request exists in the target subsystem, delaying scheduling by the task queue, wherein the delayed time is a preset waiting period, and detecting the state of the target subsystem again after the waiting period is ended.
As a further scheme of the invention: the specific steps for calculating the traffic are as follows:
taking a current time node as an end point, and acquiring service processing conditions of the subsystem in a preset settlement period, wherein the settlement period is a time interval;
the completion amount of the service request is taken as the service processing amount of the current batch of the subsystem.
As a further scheme of the invention: and after the subsystem calculates the service processing amount, scheduling the service request which is the same as the service processing amount from the task queue corresponding to the subsystem, and taking the settlement period as the scheduling period of the task queue.
As a further scheme of the invention: after the subsystem processes the service request scheduled by the task queue of the last batch, updating the settlement period, wherein the updated settlement period is equal to the time spent by the subsystem for processing the service request of the last batch, and taking the updated settlement period as the scheduling period of the next batch of the task queue.
The invention has the beneficial effects that: in the prior art, after receiving service requests of the subsystems, the integrated system mostly sends different service requests to each target subsystem for processing according to the attributes of the service requests such as classification, priority and the like, but the processing mode cannot realize more accurate management on the service processing of the subsystems after sending the service requests to the subsystems, a large number of service requests in part of the subsystems are likely to be accumulated, the service requests are also newly applied and previously applied, the priority difference exists between the service requests, new service requests are added continuously, and the service requests are required to be ordered again, so that a large amount of calculation resources of each subsystem are wasted;
therefore, in the invention, after the integrated system end receives the service request uniformly, the service request is not transmitted to each target subsystem in real time, the task queues are divided according to the different target subsystems, and the sequencing is carried out in each task queue, after the scheduling period is reached, the corresponding target subsystem transmits quantitative service requests with inherent sequencing, and after the service request is received, the subsystem only needs to process according to the sequenced service request, thus solving the computational resources of part of subsystems and improving the completion efficiency of the service request.
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The invention is further described below with reference to the accompanying drawings.
FIG. 1 is a schematic diagram of a global integration system supporting a widely integrated scenario according to the present invention.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
Referring to fig. 1, the present invention is a global integration system supporting a wide integration scenario, comprising:
an interface management module: the system is used for managing interfaces among all subsystems, providing registration, release, subscription, monitoring and calling of the interfaces, and comprises interface definition, interface protocol and interface version control;
and a data conversion and mapping module: the method is used for realizing format conversion and mapping of data among different subsystems, so that the data can flow among a plurality of subsystems, including conversion of a data structure, field mapping, data cleaning and verification;
a flow arranging and scheduling module: the system is used for arranging and scheduling the service requests of different subsystems according to the service rules and the flow definition and then sending the service requests to the target subsystem for processing;
and a service execution feedback module: and receiving the service processing result of the target subsystem and returning the result to the subsystem initiating the request.
In the invention, the integrated system processes the service request of each subsystem, which comprises the following steps:
receiving a request: the integrated system is used as a middle layer to receive service requests from various subsystems, wherein the requests can be data inquiry, data modification, service flow triggering and the like;
format conversion: the integrated system format-converts the received request to accommodate the requirements of the target subsystem, which may involve conversion of data structures, conversion of protocols, etc.;
routing and distribution: the integrated system routes the request to the corresponding target subsystem according to the business rules and configuration information, which may involve decision logic, rights verification, etc.;
data transfer: the integrated system transmits the data carried in the request to the target subsystem, which can be direct transmission or asynchronous transmission through a message queue or other communication mechanisms;
executing service logic: after receiving the request, the target subsystem executes corresponding business logic according to the business requirement, which may include data query, data processing, business flow operation and the like.
And (5) returning a result: after the target subsystem finishes business processing, returning the result to the integrated system, and returning the result to the subsystem initiating the request by the integrated system;
exception handling: in the whole process, if an error or an abnormal situation occurs, the integrated system needs to perform corresponding abnormal processing, such as logging, sending an alarm notification and the like.
In the above processing procedure, the integrated system is used as a central system of each subsystem, in the prior art, after receiving service requests of the subsystems, different service requests are sent to each target subsystem for processing according to the attributes of the service requests such as classification, priority and the like, but in the processing mode, after the service requests are sent to the subsystems, the service processing of the subsystems cannot be accurately managed, a large number of service requests in part of the subsystems are likely to be accumulated, the service requests are also newly applied and previously applied, the priority difference exists between the service requests, new service requests are added continuously, and the service requests are required to be sequenced again, so that a large amount of computing resources of each subsystem are wasted;
therefore, in the invention, after the integrated system end receives the service request uniformly, the service request is not transmitted to each target subsystem in real time, the task queues are divided according to the different target subsystems, and the sequencing is carried out in each task queue, after the scheduling period is reached, the corresponding target subsystem transmits quantitative service requests with inherent sequencing, and after the service request is received, the subsystem only needs to process according to the sequenced service request, thus solving the computational resources of part of subsystems and improving the completion efficiency of the service request.
In a preferred embodiment of the present invention, the flow scheduling module specifically includes:
a flow arrangement unit: the method comprises the steps of acquiring a service request of a subsystem, analyzing attribute data in the service request, wherein the attribute data comprises service priority and a target subsystem, and the target subsystem represents the subsystem for processing the service request; dividing task queues according to different target subsystems of the service requests, and sequencing the service requests in the same task queue according to service priorities;
a flow scheduling unit: calculating the business processing amount of each batch of the target subsystem according to the business processing condition of the target subsystem, wherein the business processing amount is the completion amount of the business request of the target subsystem in a preset settlement period; and dispatching the service request corresponding to the service processing amount from the task queue to the corresponding target subsystem.
Notably, the global integrated system in the invention can be compatible with various mainstream technical protocols through the interface management module, coordinate each subsystem, perform service processing and information sharing, and integrate scene coverage: A2A integration, B2B integration, cloud integration, big data integration, internet of things integration, mobile application integration, social network integration, file integration and API management are realized, the integration form that enterprise IT and OT, new and old applications, public and private clouds and partners are fully connected under the digital transformation trend is helped to the enterprise, and digital transformation and digital operation are realized.
In a preferred embodiment of the present invention, the system further comprises a service processing monitoring module, wherein the service processing monitoring module is used for recording the state and performance index of each subsystem, and analyzing the service processing capacity of the subsystem through the log and the monitoring data.
In a preferred embodiment of the present invention, in the flow scheduling unit, the scheduling period of the task queue is equal to the settlement period of the traffic throughput of the corresponding target subsystem.
In a preferred embodiment of the present invention, after the task queue reaches the scheduling period, the state of the corresponding target subsystem is obtained from the service processing monitoring module, if an unprocessed service request exists in the target subsystem, the task queue is scheduled in a delayed manner, the delayed time is a preset waiting period, and the state of the target subsystem is detected again after the waiting period is ended.
In a preferred embodiment of the invention, the specific steps for calculating said traffic volume are as follows:
taking a current time node as an end point, and acquiring service processing conditions of the subsystem in a preset settlement period, wherein the settlement period is a time interval;
the completion amount of the service request is taken as the service processing amount of the current batch of the subsystem.
In a preferred embodiment of the present invention, after the subsystem calculates the service throughput, a service request with the same service throughput is scheduled from a task queue corresponding to the subsystem, and the settlement period is used as a scheduling period of the task queue.
In a preferred embodiment of the present invention, after the subsystem processes the service request scheduled by the task queue of the previous batch, the settling period is updated, where the updated settling period is equal to the time spent by the subsystem to process the service request of the previous batch, and the updated settling period is used as the scheduling period of the next batch of the task queue.
The foregoing describes one embodiment of the present invention in detail, but the description is only a preferred embodiment of the present invention and should not be construed as limiting the scope of the invention. All equivalent changes and modifications within the scope of the present invention are intended to be covered by the present invention.
Claims (4)
1. A global integration system supporting a widely integrated scenario, comprising:
an interface management module: the system is used for managing interfaces among all subsystems, providing registration, release, subscription, monitoring and calling of the interfaces, and comprises interface definition, interface protocol and interface version control;
and a data conversion and mapping module: the method is used for realizing format conversion and mapping of data among different subsystems, so that the data can flow among a plurality of subsystems, including conversion of a data structure, field mapping, data cleaning and verification;
a flow arranging and scheduling module: the system is used for arranging and scheduling the service requests of different subsystems according to the service rules and the flow definition and then sending the service requests to the target subsystem for processing;
and a service execution feedback module: receiving a service processing result of the target subsystem, and returning the result to the subsystem initiating the request;
the flow arranging and scheduling module specifically comprises:
a flow arrangement unit: the method comprises the steps of acquiring a service request of a subsystem, analyzing attribute data in the service request, wherein the attribute data comprises service priority and a target subsystem, and the target subsystem represents the subsystem for processing the service request; dividing task queues according to different target subsystems of the service requests, and sequencing the service requests in the same task queue according to service priorities;
a flow scheduling unit: calculating the business processing amount of each batch of the target subsystem according to the business processing condition of the target subsystem, wherein the business processing amount is the completion amount of the business request of the target subsystem in a preset settlement period; scheduling a service request corresponding to the service processing amount from the task queue to a corresponding target subsystem;
the system also comprises a service processing monitoring module, wherein the service processing monitoring module is used for recording the state and performance indexes of each subsystem and analyzing the service processing capacity of the subsystem through logs and monitoring data;
in the flow scheduling unit, the scheduling period of the task queue is equal to the settlement period of the business processing amount of the corresponding target subsystem;
and after the task queue reaches a scheduling period, acquiring the state of a corresponding target subsystem from the service processing monitoring module, if an unprocessed service request exists in the target subsystem, delaying scheduling by the task queue, wherein the delayed time is a preset waiting period, and detecting the state of the target subsystem again after the waiting period is ended.
2. A global integration system supporting a widely integrated scenario as claimed in claim 1, wherein the specific steps of calculating the traffic volume are as follows:
taking a current time node as an end point, and acquiring service processing conditions of the subsystem in a preset settlement period, wherein the settlement period is a time interval;
the completion amount of the service request is taken as the service processing amount of the current batch of the subsystem.
3. The global integration system supporting a global integration scenario according to claim 2, wherein after the subsystem calculates the traffic, the same traffic request as the traffic is scheduled from the task queue corresponding to the subsystem, and the settlement period is used as the scheduling period of the task queue.
4. A global integration system supporting a widely integrated scenario as defined in claim 3, wherein after said subsystem processes a service request scheduled by a previous batch of said task queue, a settling period is updated, said updated settling period being equal to a time taken by said subsystem to process the service request of the previous batch, and said updated settling period is taken as a scheduling period of a next batch of the task queue.
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