CN116708524A - Low-code-based electricity consumption information acquisition control system and method - Google Patents
Low-code-based electricity consumption information acquisition control system and method Download PDFInfo
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
- H04L67/01—Protocols
- H04L67/12—Protocols specially adapted for proprietary or special-purpose networking environments, e.g. medical networks, sensor networks, networks in vehicles or remote metering networks
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04Q—SELECTING
- H04Q9/00—Arrangements in telecontrol or telemetry systems for selectively calling a substation from a main station, in which substation desired apparatus is selected for applying a control signal thereto or for obtaining measured values therefrom
Abstract
The invention provides a low-code-based electricity consumption information acquisition control system and a low-code-based electricity consumption information acquisition control method, which belong to the technical field of electricity consumption information acquisition, wherein the system comprises a basic service module and an interface service module; the basic service module is used for receiving parameters configured by the upper-layer service application, carrying out timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completing communication management docking with the electricity acquisition terminal; the interface service module is used for receiving the page configuration and the API interface configuration of the upper-layer service application, forwarding the power consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call, and returning the acquired power consumption data information to the upper-layer service application. The invention realizes the electricity consumption information collection based on the low-code platform, has small development workload, can carry out the collection scheme and the configuration of the communication message, and has flexible realization mode.
Description
Technical Field
The invention belongs to the technical field of electricity consumption information acquisition, and particularly relates to an electricity consumption information acquisition control system and method based on low codes.
Background
With the development of electric power, the number of electricity acquisition terminals is continuously increased, and the business requirement for remote signaling and remote measurement acquisition of user information through interface service is increased, but the front opening degree of acquisition of different professions is not uniform, the opening standard is different, the electricity acquisition terminals of each profession can only be in decentralized management, so that the current electricity information data acquisition capability is decentralized, the active acquisition perception of the electricity information data in general enterprises also needs to rely on various businesses to develop and apply, and unified operation management mechanisms and tools are lacking, so that the development of interfaces and the management of electricity acquisition terminal equipment are difficult, various interface development needs to be carried out according to different types of the electricity acquisition terminal equipment, protocols and channels, the problems of complicated issuing of electricity acquisition protocol instructions, difficult message encapsulation and data forwarding exist, the technical implementation difficulty is also relatively large, and the development and operation cost is greatly increased.
Along with the digital development of the power system and the power grid, the demand for managing the power consumption information acquisition system of the decentralized professional terminal is higher and higher, and the traditional development mode is that professional developers write a large amount of codes by constructing a system engineering environment and writing codes, and each implementation of the application needs to write a large amount of codes, and the code repeatability is high, so that the development period is long and the development cost is high.
In summary, the current electricity acquisition system cannot meet the self requirements, and needs to be customized and developed, if a traditional development mode is adopted, multiple interfaces are required to be developed according to different types of unique terminals, protocols and interfaces of the electricity acquisition system, and the traditional development limitation is large, the flexibility is small, the cost is high, and the technical implementation difficulty is relatively large.
This is a deficiency of the prior art, and therefore, it is necessary to provide a low-code-based electricity consumption information acquisition control system and method for overcoming the above-mentioned drawbacks of the prior art.
Disclosure of Invention
Aiming at the problems that the development of the interfaces for the existing electricity consumption information data acquisition and the management of the electricity consumption acquisition terminal equipment in the prior art require the development of various interfaces due to different equipment types, protocols and channels, the issuing of each electricity consumption acquisition protocol is complex, the message packaging and the data forwarding are difficult, and the technical implementation difficulty is high, the development of the existing electricity consumption information acquisition system for the distributed acquisition terminal equipment management requires the development of a large number of codes for each application, and the repeatability is high, so that the development period and the cost are high.
In a first aspect, the invention provides a low-code-based electricity information acquisition control system, which comprises a basic service module and an interface service module;
the basic service module is used for receiving parameters configured by the upper-layer service application, carrying out timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completing communication management docking with the electricity acquisition terminal;
the interface service module is used for receiving the page configuration and the API interface configuration of the upper-layer service application, forwarding the power consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call, and returning the acquired power consumption data information to the upper-layer service application. The base service module and the interface service module are developed based on a low code platform.
Further, the basic service module includes:
the instruction encapsulation unit is used for encapsulating the communication object, the service interaction item and various electricity acquisition protocol messages;
the command management unit is used for managing the edge device and the terminal device, editing the commands of each scene through a data model and form modeling of the low-code platform, configuring the acquisition parameters of the device, and managing the issued command and the parameters thereof;
the message management unit is used for receiving user configuration of the upper-layer service application and setting whether to issue a parameter change message when the equipment is changed;
the data storage unit is used for storing the power consumption data acquired from the power consumption terminal equipment;
the file management unit is used for managing files of the electricity acquisition terminal equipment and synchronously managing the files;
the data management unit is used for receiving a request of a user of the upper-layer service application and managing the collected and stored electricity consumption data;
the data access unit is used for receiving the electricity consumption data returned by the electricity consumption acquisition terminal through the communication management module and storing the electricity consumption data into the data storage unit.
Further, the instruction encapsulation unit includes:
the communication object instruction encapsulation subunit is used for encapsulating parameters required by communication management and communication establishment with the field communication object, and instruction priority and overtime time parameters;
the service object instruction packaging subunit is used for extracting the mapping of the field measured electricity acquisition equipment in the system and packaging the attribute and the service interaction item;
the service interaction item instruction packaging subunit is used for internally packaging the service interaction item number and the corresponding parameters thereof;
the power utilization protocol message Wen Zhiling encapsulation subunit is configured to encapsulate an instruction issued by an upper layer service application into a contracted message format, and issue the contracted message format to a communication management module that interacts with the power utilization acquisition terminal. The business object instructions package subunit extracts mappings of the on-site measured electricity collection devices in the system, such as concentrator terminals, electricity meters, and total addition groups.
Further, the instruction management unit includes:
the instruction editing subunit is used for receiving the manual task instruction issuing, the regulation task instruction issuing, the equipment acquisition parameter issuing and the scene of the crowd-end link state monitoring by the upper service application to edit the instruction;
the equipment acquisition parameter configuration subunit is used for receiving the upper layer service application to configure the communication parameters, the measurement point information and the equipment acquisition parameters of the security authentication information of the terminal and the ammeter;
the command issuing management subunit is used for pushing the archive information of the electricity acquisition terminal equipment related to acquisition to the communication management module in real time according to the set period timing or when the equipment acquisition parameters are changed;
and the issuing parameter management subunit is used for receiving the inquiry request of the upper-layer service application, inquiring the equipment ID issuing parameter, the equipment communication parameter and the security authentication parameter, and checking the integrity and the accuracy of the message parameter packaged by the instruction.
Further, the archive management unit includes:
the archive inquiry management subunit is used for managing the side equipment and the end equipment, receiving an upper-layer business application request, inquiring the electricity acquisition terminal equipment according to the area and the equipment type, and calling the electricity acquisition terminal equipment according to the appointed range;
and the file synchronization management subunit is used for configuring a synchronization strategy, receiving a user request of the upper-layer service application, synchronizing the power utilization terminal acquisition equipment in an increment or full-quantity mode, receiving a user request of the upper-layer service application, returning to a file synchronization state, and performing file synchronization statistical display on the user of the upper-layer service application.
Further, the interface service module includes:
the API interface management unit is used for receiving the requests of the user of the upper layer business application for adding, deleting, editing and testing the APIs and carrying out API interface management;
the API interface editing unit is used for editing interface names, interface addresses, request modes, request header configuration, request parameter configuration and data analysis of an API interface communicated with the upper-layer business application and the basic service module;
and the API interface is used for forwarding the acquisition configuration file of the upper-layer service application to the basic service module and forwarding the acquired power consumption information data to the upper-layer service application.
In a second aspect, the present invention provides a low-code-based electricity consumption information acquisition control method, including the steps of:
s1, building an electricity consumption acquisition fusion service platform serving as an electricity consumption acquisition control system based on a low-code platform, configuring a basic service module for setting electricity consumption acquisition parameters for an electricity consumption acquisition terminal, configuring an interface service module for receiving upper-layer business application calls, and publishing the configured electricity consumption acquisition fusion service platform;
s2, the basic service module receives parameters configured by a user of the upper-layer service application, performs timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completes butt joint with the electricity acquisition terminal communication management module;
s3, the interface service module receives page configuration and API interface configuration of the upper-layer service application, and forwards an electricity consumption data acquisition command of the upper-layer service application to the basic service module and returns acquired electricity consumption data information to the upper-layer service application based on API interface call.
Further, the specific steps of step S1 are as follows:
s11, acquiring the functional requirements of the power utilization acquisition fusion service platform, customizing a general service model by using an interface designer of a low-code platform according to the functional requirements, splicing the general service model by using various components of the low-code platform, and configuring the spliced general service model;
s12, analyzing basic service serving as a special service model from functional requirements of an electricity collection fusion service platform, customizing the basic service by using an interface designer of a low-code platform, converting the basic service into a source code by using a source code conversion engine, editing the source code and editing functions of the basic service by using an online coding module of the low-code platform, configuring functional components for timing recall, instruction encapsulation and issuing, collection scheme issuing, instruction management and equipment file calling, and carrying out communication management butt joint with all electricity collection terminals;
s13, analyzing data interface service serving as a special service model from functional requirements of an electricity acquisition fusion service platform, customizing the interface service by using an interface designer of a low-code platform, converting the interface service into a source code by using a source code conversion engine, editing source codes and functions of basic service and data interface service by using an online coding module of the low-code platform, providing page configuration and guide type API configuration service for upper-layer service application, and generating an callable API interface for issuing data acquisition commands and acquiring data for the upper-layer service application;
s14, using a low-code platform to carry out one-key packaging on the electricity collection fusion service platform which completes the configuration of the general service module and the editing of the special service model, and deploying the electricity collection fusion service platform to an intranet or a cloud according to requirements.
Further, the specific steps of step S2 are as follows:
s21, an interface service module receives API interface configuration carried out by a user through an upper layer service application;
s22, the interface service module receives an acquisition scheme instruction request of an upper-layer service application serving as a client in a subscription type reading mode, receives a configuration file issued by a message, and provides the configuration file to the basic service module.
Further, the specific steps of step S3 are as follows:
s31, the basic configuration service module receives the configuration file and analyzes the type of the acquisition scheme, the acquisition frequency and the acquisition field;
s32, the basic service module manages edge equipment and end equipment according to the type of an acquisition scheme of upper-layer service application, edits instructions of various scenes through a data model and form modeling of a low-code platform, configures equipment acquisition parameters, and manages issuing instructions and parameters thereof;
s33, dividing task groups by the basic service module according to the type of the acquisition scheme applied by the upper layer business, carrying out an acquisition strategy and a data uploading strategy, and packaging a communication object, a business interaction item and various electricity acquisition protocol messages to generate an acquisition message;
s34, the basic service module transmits the acquisition message to the terminal acquisition equipment, starts data acquisition, and provides the acquired power consumption information data for the interface service module to return to the upper-layer service application.
The invention has the beneficial effects that:
the system and the method for controlling the electricity consumption information collection based on the low codes are combined with a mechanism of a low code platform based on model driving, an electricity consumption information collection service system is constructed in a configuration mode, communication protocol messages and instruction encapsulation, instruction management and equipment archive management of collection scheme configuration issuing are carried out on complicated electricity consumption collection protocols and application scenes, external interface service is realized, and bidirectional interactive data collection platform operation of downlink data collection and uplink data aggregation is realized, so that upper layer service application is comprehensively supported.
The invention realizes the electricity consumption information collection based on the low-code platform, has small development workload, can carry out the collection scheme and the configuration of the communication message, and has flexible realization mode.
In addition, the invention has reliable design principle, simple structure and very wide application prospect.
It can be seen that the present invention has outstanding substantial features and significant advances over the prior art, as well as the benefits of its implementation.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings that are required to be used in the description of the embodiments or the prior art will be briefly described below, and it will be obvious to those skilled in the art that other drawings can be obtained from these drawings without inventive effort.
FIG. 1 is a schematic diagram of a low-code-based electricity consumption information acquisition control system of the present invention.
Fig. 2 is a flow chart of an embodiment 3 of the low-code-based electricity consumption information acquisition control method of the present invention.
Fig. 3 is a flow chart of an embodiment 4 of the low-code-based electricity consumption information acquisition control system of the present invention.
Detailed Description
In order to make the technical solution of the present invention better understood by those skilled in the art, the technical solution of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention, and it is apparent that the described embodiments are only some embodiments of the present invention, not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the present invention without making any inventive effort, shall fall within the scope of the present invention.
Example 1:
aiming at the problems that the development of the interfaces for acquiring the current electricity consumption information and the management of the electricity consumption acquisition terminal equipment are required to develop various interfaces due to different equipment types, protocols and channels, the issuing of each electricity consumption acquisition protocol is complex, the message packaging and the data forwarding are difficult, and the technical implementation is difficult;
the basic service module is used for receiving parameters configured by the upper-layer service application, carrying out timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completing communication management docking with the electricity acquisition terminal;
the interface service module is used for receiving the page configuration and the API interface configuration of the upper-layer service application, forwarding the power consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call, and returning the acquired power consumption data information to the upper-layer service application.
Example 2:
aiming at the problems that the development of the interfaces for acquiring the current electricity consumption information and the management of the electricity consumption acquisition terminal equipment are required to develop various interfaces due to different equipment types, protocols and channels, the issuing of each electricity consumption acquisition protocol is complex, the message packaging and the data forwarding are difficult, and the technical implementation is difficult;
the basic service module is used for receiving parameters configured by the upper-layer service application, carrying out timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completing communication management docking with the electricity acquisition terminal; the basic service module comprises:
the instruction encapsulation unit is used for encapsulating the communication object, the service interaction item and various electricity acquisition protocol messages; the instruction encapsulation unit includes:
the communication object instruction encapsulation subunit is used for encapsulating parameters required by communication management and communication establishment with the field communication object, and instruction priority and overtime time parameters;
the service object instruction packaging subunit is used for extracting the mapping of the field measured electricity acquisition equipment in the system and packaging the attribute and the service interaction item;
the service interaction item instruction packaging subunit is used for internally packaging the service interaction item number and the corresponding parameters thereof;
the power utilization protocol message Wen Zhiling encapsulation subunit is used for encapsulating the instruction issued by the upper layer service application into a contracted message format and issuing the contracted message format to the communication management module which interacts with the power utilization acquisition terminal; the service object instruction packaging subunit extracts the mapping of the on-site measured electricity acquisition equipment in the system, such as a concentrator terminal, an ammeter and a total addition group; for example, the message in the appointed format adopts an IEC104 message or a DL/T698 message or a 1376 message;
the command management unit is used for managing the edge device and the terminal device, editing the commands of each scene through a data model and form modeling of the low-code platform, configuring the acquisition parameters of the device, and managing the issued command and the parameters thereof; the instruction management unit includes:
the instruction editing subunit is used for receiving the manual task instruction issuing, the regulation task instruction issuing, the equipment acquisition parameter issuing and the scene of the crowd-end link state monitoring by the upper service application to edit the instruction;
the equipment acquisition parameter configuration subunit is used for receiving the upper layer service application to configure the communication parameters, the measurement point information and the equipment acquisition parameters of the security authentication information of the terminal and the ammeter;
the command issuing management subunit is used for pushing the archive information of the electricity acquisition terminal equipment related to acquisition to the communication management module in real time according to the set period timing or when the equipment acquisition parameters are changed;
the issuing parameter management subunit is used for receiving an inquiry request of the upper layer service application to inquire the equipment ID issuing parameter, the equipment communication parameter and the security authentication parameter, and checking the integrity and the accuracy of the message parameter packaged by the instruction;
the message management unit is used for receiving user configuration of the upper-layer service application and setting whether to issue a parameter change message when the equipment is changed;
the data storage unit is used for storing the power consumption data acquired from the power consumption terminal equipment;
the file management unit is used for managing files of the electricity acquisition terminal equipment and synchronously managing the files; the archive management unit includes:
the archive inquiry management subunit is used for managing the side equipment and the end equipment, receiving an upper-layer business application request, inquiring the electricity acquisition terminal equipment according to the area and the equipment type, and calling the electricity acquisition terminal equipment according to the appointed range;
the file synchronization management subunit is used for configuring a synchronization strategy, receiving a user request of an upper layer service application, synchronizing the power utilization terminal acquisition equipment in an increment or full quantity mode, receiving a user request of the upper layer service application, returning to a file synchronization state, and carrying out file synchronization statistics display on the user of the upper layer service application;
the data management unit is used for receiving a request of a user of the upper-layer service application and managing the collected and stored electricity consumption data;
the data access unit is used for receiving the electricity consumption data returned by the electricity consumption acquisition terminal through the communication management module and storing the electricity consumption data into the data storage unit;
the interface service module is used for receiving page configuration and API interface configuration of the upper-layer service application, calling and forwarding an electricity consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface, and returning acquired electricity consumption data information to the upper-layer service application; the interface service module comprises:
the API interface management unit is used for receiving the requests of the user of the upper layer business application for adding, deleting, editing and testing the APIs and carrying out API interface management;
the API interface editing unit is used for editing interface names, interface addresses, request modes, request header configuration, request parameter configuration and data analysis of an API interface communicated with the upper-layer business application and the basic service module;
and the API interface is used for forwarding the acquisition configuration file of the upper-layer service application to the basic service module and forwarding the acquired power consumption information data to the upper-layer service application.
The electricity collection terminal comprises a concentrator and a plurality of electric meters;
the concentrator is connected with each ammeter and is connected with a communication management module; the communication management module is connected with the data access unit of the basic service module.
Example 3:
aiming at the problems that the development of the interfaces for acquiring the current electricity consumption information and the management of the electricity consumption acquisition terminal equipment are required to develop various interfaces due to different equipment types, protocols and channels, the issuing of each electricity consumption acquisition protocol is complex, the message packaging and the data forwarding are difficult, and the technical implementation is difficult, the development of the current electricity consumption information acquisition system for managing the scattered acquisition terminal equipment is required to develop a large number of codes for each application, and the repeatability is high, so that the development period and the cost are high, as shown in fig. 2, the invention provides an electricity consumption information acquisition control method based on low codes, which comprises the following steps:
s1, building an electricity consumption acquisition fusion service platform serving as an electricity consumption acquisition control system based on a low-code platform, configuring a basic service module for setting electricity consumption acquisition parameters for an electricity consumption acquisition terminal, configuring an interface service module for receiving upper-layer business application calls, and publishing the configured electricity consumption acquisition fusion service platform;
s2, the interface service module receives page configuration and API interface configuration of the upper-layer service application, and forwards an electricity consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call;
and S3, the basic service module receives parameters configured by a user of the upper-layer service application, performs timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, completes butt joint with the electricity acquisition terminal communication management module, and returns acquired electricity data information to the upper-layer service application.
Aiming at the problems that the communication protocols of the power terminals are different, different interfaces are required to be developed, and the like, the invention performs instruction issuing packaging and message packaging on different power acquisition protocols, thereby customizing acquisition services and improving unified access and management capability of the terminals.
Example 4:
aiming at the problems that the development of the interfaces for acquiring the current electricity consumption information and the management of the electricity consumption acquisition terminal equipment are required to develop various interfaces due to different equipment types, protocols and channels, the issuing of each electricity consumption acquisition protocol is complex, the message packaging and the data forwarding are difficult, and the technical implementation is difficult, the development of the current electricity consumption information acquisition system for managing the scattered acquisition terminal equipment is required to develop a large number of codes for each application, and the repeatability is high, so that the development period and the cost are high, as shown in fig. 3, the invention provides an electricity consumption information acquisition control method based on low codes, which comprises the following steps:
s1, building an electricity consumption acquisition fusion service platform serving as an electricity consumption acquisition control system based on a low-code platform, configuring a basic service module for setting electricity consumption acquisition parameters for an electricity consumption acquisition terminal, configuring an interface service module for receiving upper-layer business application calls, and publishing the configured electricity consumption acquisition fusion service platform; the specific steps of the step S1 are as follows:
s11, acquiring the functional requirements of the power utilization acquisition fusion service platform, customizing a general service model by using an interface designer of a low-code platform according to the functional requirements, splicing the general service model by using various components of the low-code platform, and configuring the spliced general service model;
s12, analyzing basic service serving as a special service model from functional requirements of an electricity collection fusion service platform, customizing the basic service by using an interface designer of a low-code platform, converting the basic service into a source code by using a source code conversion engine, editing the source code and editing functions of the basic service by using an online coding module of the low-code platform, configuring functional components for timing recall, instruction encapsulation and issuing, collection scheme issuing, instruction management and equipment file calling, and carrying out communication management butt joint with all electricity collection terminals;
s13, analyzing data interface service serving as a special service model from functional requirements of an electricity acquisition fusion service platform, customizing the interface service by using an interface designer of a low-code platform, converting the interface service into a source code by using a source code conversion engine, editing source codes and functions of basic service and data interface service by using an online coding module of the low-code platform, providing page configuration and guide type API configuration service for upper-layer service application, and generating an callable API interface for issuing data acquisition commands and acquiring data for the upper-layer service application;
s14, using a low-code platform to carry out one-key packaging on an electricity acquisition fusion service platform which is used for completing configuration of a general service module and editing of a special service model, and deploying the electricity acquisition fusion service platform to an intranet or a cloud according to requirements;
the electricity acquisition fusion service platform is developed on the basis of the low-code platform, a system is not required to be built from scratch, special functional requirements in the electricity acquisition system can be met, firstly, the service model is customized through an interface designer of the low-code platform, various components are used for quickly assembling an application system in a agile way, the system development is realized in a configuration mode, and the cost of subsequent testing and maintenance is reduced; the model can be operated after being assembled and packaged; secondly, when some special functions and operations are needed to be realized, the operations such as construction interface, source code editing, function editing and the like of the special service functions are realized in an online cooperative manner based on an independent working space mode and a multi-tenant isolation mechanism through an online service arrangement function of a low-code platform; and finally, the one-stop deployment function of the low-code platform is used for realizing one-key packing of a complete model package of the system and multiple deployments, and the electricity acquisition fusion service platform developed by using the low-code platform can be independently deployed in an intranet or a cloud.
S2, the interface service module receives page configuration and API interface configuration of the upper-layer service application, and forwards an electricity consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call; the specific steps of the step S2 are as follows:
s21, an interface service module receives API interface configuration carried out by a user through an upper layer service application;
s22, the interface service module receives an acquisition scheme instruction request of an upper-layer service application serving as a client in a subscription type reading mode, receives a configuration file issued by a message and provides the configuration file to the basic service module;
s3, the basic service module receives parameters configured by a user of the upper-layer service application, performs timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the power utilization acquisition terminal, completes butt joint with the power utilization acquisition terminal communication management module, and returns acquired power utilization data information to the upper-layer service application; the specific steps of the step S3 are as follows:
s31, the basic configuration service module receives the configuration file and analyzes the type of the acquisition scheme, the acquisition frequency and the acquisition field;
s32, the basic service module manages edge equipment and end equipment according to the type of an acquisition scheme of upper-layer service application, edits instructions of various scenes through a data model and form modeling of a low-code platform, configures equipment acquisition parameters, and manages issuing instructions and parameters thereof;
s33, dividing task groups by the basic service module according to the type of the acquisition scheme applied by the upper layer business, carrying out an acquisition strategy and a data uploading strategy, and packaging a communication object, a business interaction item and various electricity acquisition protocol messages to generate an acquisition message;
s34, the basic service module transmits the acquisition message to the terminal acquisition equipment, starts data acquisition, and provides the acquired power consumption information data for the interface service module to return to the upper-layer service application.
The low-code platform is a popular software development tool in recent years, is well known in terms of less codes and high efficiency, and the basic part is encapsulated and individualized, namely, the development mode of a software system is realized by providing two development modes of zero codes and low codes, wherein the zero codes are based on a visual interface, the application is built in a dragging mode, the code-free construction of each management type service of an enterprise is realized, the low codes are based on a model driving mode to quickly generate front end codes and back end codes, the development of complex type services is realized by modifying a small amount of codes, the development cost of the software system is reduced, and the development efficiency of the software system is improved.
The core functions of the low-code platform comprise an extensible application architecture framework, an online collaboration function and a one-stop deployment function; extensible application architecture framework: the source code conversion engine is realized through the framework function of the extensible application framework, so that the rapid generation of source codes of multiple framework languages can be flexibly selected, and meanwhile, the construction of multi-terminal scenes such as a PC (personal computer) end, a mobile phone end, a tablet terminal and the like can be supported; on-line cooperative function: an independent working space technical component is constructed through a containerized online collaborative research and development function, functions such as interface construction, source code editing and function editing are realized on the basis of an independent space mode and a multi-tenant isolation mechanism, and online collaborative development capability is achieved; one-stop deployment function: the online dynamic arrangement component of the business services is realized through the containerized online business service arrangement function, the quick combined release of new business micro-services based on the existing business micro-services is supported, the flexible change of business requirements is satisfied, and the quick realization of business functions is supported.
Although the present invention has been described in detail by way of preferred embodiments with reference to the accompanying drawings, the present invention is not limited thereto. Various equivalent modifications and substitutions may be made in the embodiments of the present invention by those skilled in the art without departing from the spirit and scope of the present invention, and it is intended that all such modifications and substitutions be within the scope of the present invention/be within the scope of the present invention as defined by the appended claims. Therefore, the protection scope of the present invention shall be subject to the protection scope of the claims.
Claims (10)
1. The low-code-based electricity information acquisition control system is characterized by comprising a basic service module and an interface service module;
the basic service module is used for receiving parameters configured by the upper-layer service application, carrying out timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, and completing communication management docking with the electricity acquisition terminal;
the interface service module is used for receiving the page configuration and the API interface configuration of the upper-layer service application, forwarding the power consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call, and returning the acquired power consumption data information to the upper-layer service application.
2. The low-code based electricity consumption information acquisition control system of claim 1, wherein the base service module comprises:
the instruction encapsulation unit is used for encapsulating the communication object, the service interaction item and various electricity acquisition protocol messages;
the command management unit is used for managing the edge device and the terminal device, editing the commands of each scene through a data model and form modeling of the low-code platform, configuring the acquisition parameters of the device, and managing the issued command and the parameters thereof;
the message management unit is used for receiving user configuration of the upper-layer service application and setting whether to issue a parameter change message when the equipment is changed;
the data storage unit is used for storing the power consumption data acquired from the power consumption terminal equipment;
the file management unit is used for managing files of the electricity acquisition terminal equipment and synchronously managing the files;
the data management unit is used for receiving a request of a user of the upper-layer service application and managing the collected and stored electricity consumption data;
the data access unit is used for receiving the electricity consumption data returned by the electricity consumption acquisition terminal through the communication management module and storing the electricity consumption data into the data storage unit.
3. The low-code based electricity consumption information acquisition control system according to claim 2, wherein the instruction packaging unit includes:
the communication object instruction encapsulation subunit is used for encapsulating parameters required by communication management and communication establishment with the field communication object, and instruction priority and overtime time parameters;
the service object instruction packaging subunit is used for extracting the mapping of the field measured electricity acquisition equipment in the system and packaging the attribute and the service interaction item;
the service interaction item instruction packaging subunit is used for internally packaging the service interaction item number and the corresponding parameters thereof;
the power utilization protocol message Wen Zhiling encapsulation subunit is configured to encapsulate an instruction issued by an upper layer service application into a contracted message format, and issue the contracted message format to a communication management module that interacts with the power utilization acquisition terminal.
4. The low-code based electricity consumption information acquisition control system according to claim 2, wherein the instruction management unit includes:
the instruction editing subunit is used for receiving the manual task instruction issuing, the regulation task instruction issuing, the equipment acquisition parameter issuing and the scene of the crowd-end link state monitoring by the upper service application to edit the instruction;
the equipment acquisition parameter configuration subunit is used for receiving the upper layer service application to configure the communication parameters, the measurement point information and the equipment acquisition parameters of the security authentication information of the terminal and the ammeter;
the command issuing management subunit is used for pushing the archive information of the electricity acquisition terminal equipment related to acquisition to the communication management module in real time according to the set period timing or when the equipment acquisition parameters are changed;
and the issuing parameter management subunit is used for receiving the inquiry request of the upper-layer service application, inquiring the equipment ID issuing parameter, the equipment communication parameter and the security authentication parameter, and checking the integrity and the accuracy of the message parameter packaged by the instruction.
5. The low-code based electricity consumption information collection control system of claim 2, wherein the archive management unit includes:
the archive inquiry management subunit is used for managing the side equipment and the end equipment, receiving an upper-layer business application request, inquiring the electricity acquisition terminal equipment according to the area and the equipment type, and calling the electricity acquisition terminal equipment according to the appointed range;
and the file synchronization management subunit is used for configuring a synchronization strategy, receiving a user request of the upper-layer service application, synchronizing the power utilization terminal acquisition equipment in an increment or full-quantity mode, receiving a user request of the upper-layer service application, returning to a file synchronization state, and performing file synchronization statistical display on the user of the upper-layer service application.
6. The low-code based electricity consumption information acquisition control system of claim 1, wherein the interface service module comprises:
the API interface management unit is used for receiving the requests of the user of the upper layer business application for adding, deleting, editing and testing the APIs and carrying out API interface management;
the API interface editing unit is used for editing interface names, interface addresses, request modes, request header configuration, request parameter configuration and data analysis of an API interface communicated with the upper-layer business application and the basic service module;
and the API interface is used for forwarding the acquisition configuration file of the upper-layer service application to the basic service module and forwarding the acquired power consumption information data to the upper-layer service application.
7. The electricity consumption information acquisition control method based on the low codes is characterized by comprising the following steps of:
s1, building an electricity consumption acquisition fusion service platform serving as an electricity consumption acquisition control system based on a low-code platform, configuring a basic service module for setting electricity consumption acquisition parameters for an electricity consumption acquisition terminal, configuring an interface service module for receiving upper-layer business application calls, and publishing the configured electricity consumption acquisition fusion service platform;
s2, the interface service module receives page configuration and API interface configuration of the upper-layer service application, and forwards an electricity consumption data acquisition command of the upper-layer service application to the basic service module based on the API interface call;
s3, the basic service module receives parameters configured by a user of the upper-layer service application, performs timing recall, instruction encapsulation and issuing, acquisition scheme issuing, instruction management and equipment file calling on the electricity acquisition terminal, completes butt joint with the electricity acquisition terminal communication management module, and returns acquired electricity data information to the upper-layer service application.
8. The low-code-based electricity consumption information acquisition control method as claimed in claim 7, wherein the step S1 comprises the following specific steps:
s11, acquiring the functional requirements of the power utilization acquisition fusion service platform, customizing a general service model by using an interface designer of a low-code platform according to the functional requirements, splicing the general service model by using various components of the low-code platform, and configuring the spliced general service model;
s12, analyzing basic service serving as a special service model from functional requirements of an electricity collection fusion service platform, customizing the basic service by using an interface designer of a low-code platform, converting the basic service into a source code by using a source code conversion engine, editing the source code and editing functions of the basic service by using an online coding module of the low-code platform, configuring functional components for timing recall, instruction encapsulation and issuing, collection scheme issuing, instruction management and equipment file calling, and carrying out communication management butt joint with all electricity collection terminals;
s13, analyzing data interface service serving as a special service model from functional requirements of an electricity acquisition fusion service platform, customizing the interface service by using an interface designer of a low-code platform, converting the interface service into a source code by using a source code conversion engine, editing source codes and functions of basic service and data interface service by using an online coding module of the low-code platform, providing page configuration and guide type API configuration service for upper-layer service application, and generating an callable API interface for issuing data acquisition commands and acquiring data for the upper-layer service application;
s14, using a low-code platform to carry out one-key packaging on the electricity collection fusion service platform which completes the configuration of the general service module and the editing of the special service model, and deploying the electricity collection fusion service platform to an intranet or a cloud according to requirements.
9. The low-code-based electricity consumption information acquisition control method as claimed in claim 7, wherein the step S2 comprises the following specific steps:
s21, an interface service module receives API interface configuration carried out by a user through an upper layer service application;
s22, the interface service module receives an acquisition scheme instruction request of an upper-layer service application serving as a client in a subscription type reading mode, receives a configuration file issued by a message, and provides the configuration file to the basic service module.
10. The low-code-based electricity consumption information acquisition control method as claimed in claim 9, wherein the step S3 comprises the following specific steps:
s31, the basic configuration service module receives the configuration file and analyzes the type of the acquisition scheme, the acquisition frequency and the acquisition field;
s32, the basic service module manages edge equipment and end equipment according to the type of an acquisition scheme of upper-layer service application, edits instructions of various scenes through a data model and form modeling of a low-code platform, configures equipment acquisition parameters, and manages issuing instructions and parameters thereof;
s33, dividing task groups by the basic service module according to the type of the acquisition scheme applied by the upper layer business, carrying out an acquisition strategy and a data uploading strategy, and packaging a communication object, a business interaction item and various electricity acquisition protocol messages to generate an acquisition message;
s34, the basic service module transmits the acquisition message to the terminal acquisition equipment, starts data acquisition, and provides the acquired power consumption information data for the interface service module to return to the upper-layer service application.
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