An autonomous and controllable hydropower remote centralized control system and creation method

Abstract

The present invention provides an autonomous and controllable hydropower remote centralized control system and a creation method, comprising a remote centralized control center system, an adaptation server, and a first sub-control system; the adaptation server comprises a first configuration file, and the first configuration file version corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated; the first configuration file comprises the uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system; the adaptation server converts the original indicators into system indicators according to a calculation formula; the first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system; after the first sub-control system is completely updated to autonomous and controllable software and hardware, it is directly connected to the remote centralized control center system in communication. The above scheme can ensure the autonomous controllability and security of the system during the autonomous and controllable transformation.

Description

Technical Field

[0001] The present invention relates to the field of hydropower remote centralized control, and in particular to an autonomous and controllable hydropower remote centralized control system and a creation method thereof. Background Art

[0002] The hydropower remote control system is a centralized management system for hydropower stations within a certain range. The control center has the power of dispatching and commanding. It needs to monitor the operation of equipment and power generation in all hydropower stations, and issue dispatching instructions according to actual needs, which is of great significance to the safe and stable operation of each hydropower station.

[0003] The operation of hydropower stations directly affects the surrounding environment and public interests. Attacks or damage to information systems may lead to operational errors and accidents, causing environmental pollution or ecological damage, and endangering the safety and well-being of surrounding communities. Therefore, in order to ensure the information security of hydropower systems, autonomous and controllable transformation is an important task in the current management of hydropower information systems.

[0004] However, the management system of each hydropower station is usually composed of numerous sensors, data acquisition devices, remote communication equipment, monitoring terminals, control terminals and related software. The hydropower control system is complex. The control systems of various hydropower stations use software and hardware developed by different service providers. There are problems such as coupling difficulties between different software and hardware, incompatibility of detection indicators, etc., and it is impossible to replace all of them autonomously and controllably in a short time. Therefore, in the process of building an autonomous and controllable hydropower remote centralized control system, it is inevitable that some subsystems that have not been completely transformed into autonomous and controllable ones will appear, resulting in the inability of the entire hydropower remote centralized control system to achieve autonomous control. Summary of the invention

[0005] In order to solve the problems in the prior art, the present invention provides an autonomous and controllable hydropower remote centralized control system and a creation method.

[0006] In one aspect of the present invention, there is provided an autonomous and controllable hydropower remote centralized control system, the system comprising at least: a remote centralized control center system, an adaptation server, and a first sub-control system;

[0007] The remote centralized control center system and the adaptation server are composed of autonomous controllable software and hardware. The remote centralized control center system centrally manages multiple sub-control systems, each of which manages a hydropower station;

[0008] The first sub-control system includes non-autonomous controllable software and / or hardware;

[0009] The remote centralized control center system is connected to the first sub-control system via the adaptation server;

[0010] The adaptation server includes a first configuration file, wherein the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated;

[0011] The first configuration file includes uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system;

[0012] The first configuration file includes system indicators currently corresponding to the remote centralized control center system;

[0013] The first configuration file includes a calculation formula for converting the original indicator into the system indicator;

[0014] The adaptation server converts the original indicator into the system indicator according to the calculation formula;

[0015] The adaptation server includes a first gateway, and the first gateway reads the first configuration file;

[0016] The first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system;

[0017] After the first sub-control system is completely updated with autonomous controllable software and hardware, it is directly connected to the remote centralized control center system for communication.

[0018] Furthermore, the multiple sub-control systems include systems that have completed autonomous controllable transformation and systems that have not completed autonomous controllable transformation.

[0019] Furthermore, the calculation formula includes:

[0020] Merge formula, convert multiple indicators into a system indicator through operation rules, and specify the original indicator parameters and calculation methods required for calculation in the formula;

[0021] Conversion formula, which converts the original indicators of different units and frequencies into the system indicators required by the central system, and specifies the parameters and conversion rules required for the conversion in the formula;

[0022] Split the formula and interpolate the low-frequency data of the original indicator into high-frequency data by interpolation. The indicator interpolation frequency and interpolation method are indicated in the formula.

[0023] Furthermore, the first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system, including:

[0024] Set up the message queue service on the adapter server;

[0025] When the first subsystem uploads raw indicator data, the adapter server converts the received raw data into system indicators and sends them to the message queue;

[0026] The consumer program obtains data from the message queue and processes it. The message consumer is a background program that monitors the queue and processes new messages when they arrive.

[0027] In the message consumer program, data is filtered according to the system indicator data type and its value range condition defined in the first configuration file;

[0028] The filtered and processed system indicator data is sent to the remote centralized control center system for real-time monitoring and management.

[0029] Furthermore, after all the first sub-control system is updated to autonomous controllable software and hardware, it is directly connected to the remote centralized control center system for communication, including:

[0030] As the autonomous and controllable transformation proceeds, the software and hardware in the first sub-control system are constantly replaced. Each time a replacement involves changes in uploaded / downloaded data, the corresponding configuration file is modified. When the first sub-control system is completely autonomously transformed, it can be directly compatible with the remote centralized control center system and can meet the corresponding information security requirements. At this time, the first sub-control system is directly communicated and connected with the remote centralized control center system after all software and hardware are updated to autonomous and controllable.

[0031] On the other hand, the present invention also provides a method for creating an autonomous and controllable hydropower remote centralized control system, which creates an autonomous and controllable hydropower remote centralized control system, wherein the autonomous and controllable hydropower remote centralized control system at least includes: a remote centralized control center system, an adaptation server, and a first sub-control system; the remote centralized control center system and the adaptation server are composed of autonomous and controllable software and hardware, and the remote centralized control center system centrally manages multiple sub-control systems, each of which manages a hydropower station; the first sub-control system includes non-autonomous controllable software and / or hardware; the remote centralized control center system is connected to the first sub-control system via the adaptation server; the adaptation server includes a first configuration file, and the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; the software and / or hardware of the first sub-control system is updated or updated. After the update, the first configuration file is updated; the first configuration file includes the uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system; the first configuration file includes the system indicators currently corresponding to the remote centralized control center system; the first configuration file includes a calculation formula for converting the original indicators into the system indicators; the adaptation server converts the original indicators into the system indicators according to the calculation formula; the adaptation server includes a first gateway, and the first gateway reads the first configuration file; the first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system; after the first sub-control system is completely updated to autonomous and controllable software and hardware, it is directly connected to the remote centralized control center system for communication.

[0032] Furthermore, the multiple sub-control systems include systems that have completed autonomous controllable transformation and systems that have not completed autonomous controllable transformation.

[0033] Furthermore, the calculation formula includes:

[0034] Merge formula, convert multiple indicators into a system indicator through operation rules, and specify the original indicator parameters and calculation methods required for calculation in the formula;

[0035] Conversion formula, which converts the original indicators of different units and frequencies into the system indicators required by the central system, and specifies the parameters and conversion rules required for the conversion in the formula;

[0036] Split the formula and interpolate the low-frequency data of the original indicator into high-frequency data by interpolation. The indicator interpolation frequency and interpolation method are indicated in the formula.

[0037] Furthermore, the first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system, including:

[0038] Set up the message queue service on the adapter server;

[0039] When the first subsystem uploads raw indicator data, the adapter server converts the received raw data into system indicators and sends them to the message queue;

[0040] The consumer program obtains data from the message queue and processes it. The message consumer is a background program that monitors the queue and processes new messages when they arrive.

[0041] In the message consumer program, data is filtered according to the system indicator data type and its value range condition defined in the first configuration file;

[0042] The filtered and processed system indicator data is sent to the remote centralized control center system for real-time monitoring and management.

[0043] Furthermore, after all the first sub-control system is updated to autonomous controllable software and hardware, it is directly connected to the remote centralized control center system for communication, including:

[0044] As the autonomous and controllable transformation proceeds, the software and hardware in the first sub-control system are constantly replaced. Each time a replacement involves changes in uploaded / downloaded data, the corresponding configuration file is modified. When the first sub-control system is completely autonomously transformed, it can be directly compatible with the remote centralized control center system and can meet the corresponding information security requirements. At this time, the first sub-control system is directly communicated and connected with the remote centralized control center system after all software and hardware are updated to autonomous and controllable.

[0045] The present invention can produce the following beneficial effects through the above technical solution:

[0046] By using autonomous and controllable software and hardware, and using an adapter server to isolate the parts that have not undergone autonomous and controllable transformation, the system can effectively prevent external malicious attacks and illegal access, ensure the information security of the hydropower station system, and ensure that the data is not tampered with or leaked.

[0047] The first configuration file in the adaptation server can be updated in time. With the update of the software and hardware of the first sub-control system, the system configuration file can be updated synchronously, thereby ensuring the timely maintenance and upgrade of the system and keeping the system up to date. And only one set of configuration files can be used to complete the conversion and security configuration of indicators, making the system more user-friendly.

[0048] The system supports the conversion of original indicators into calculation formulas for system indicators, and can flexibly process and convert data according to actual needs to meet the needs and characteristics of different renovation progress. BRIEF DESCRIPTION OF THE DRAWINGS

[0049] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0050] Figure 1 It is a hydropower remote centralized control system in the prior art;

[0051] Figure 2 It is the hydropower remote centralized control system of the present application. DETAILED DESCRIPTION

[0052] Below, the invention is preferably described in conjunction with the accompanying drawings and specific implementation methods.

[0053] This embodiment solves the above problem through the following steps:

[0054] In one embodiment, the present invention provides an autonomous and controllable hydropower remote centralized control system.

[0055] Self-control means relying on one's own R&D and design capabilities to fully master the core technology of the product and achieve full control of the information system from hardware to software, including independent R&D, production, upgrading, and maintenance. In simple terms, this means that core technologies, key components, and various software should be developed by oneself, the software should have all the source code, and the hardware should be manufactured by oneself, without being controlled by others.

[0056] On the contrary, non-autonomous control means that at least part of the software or hardware of the system is a black box, and the user cannot fully know the internal information of the software or hardware. There may be problems such as uncontrollable vulnerabilities, and there are risks in information security and software and hardware supply and maintenance.

[0057] The hydropower remote centralized control system is to conduct unified and centralized management of hydropower stations within a certain range. Figure 1 As shown, in this embodiment, there are multiple hydropower stations to be managed, each of which corresponds to a subsystem, and each subsystem includes numerous sensors, data acquisition devices, remote communication equipment, monitoring terminals, control terminals, and related software. In the process of autonomous and controllable transformation, each subsystem is gradually transformed, and various sensors, software, etc. in each subsystem are also gradually upgraded. What this embodiment needs to solve is the autonomous and controllable problem in the upgrade process.

[0058] The autonomous controllable hydropower remote centralized control system in this embodiment at least includes: a remote centralized control center system, an adaptation server, and a first sub-control system.

[0059] The overall system architecture is as follows Figure 2As shown in the figure, the remote control center system is the core component of the hydropower remote control system, which is responsible for centralized monitoring, dispatching and management of the hydropower station. The remote control center system can monitor the operating status and key parameters of the hydropower station in real time, such as water level, water pressure, water flow rate, power output, etc., and collect these data in real time for subsequent analysis and processing. The remote control center system has the functions of remote control and dispatching, and can remotely control various equipment and systems of the hydropower station, such as sluice gates, turbines, generators, etc., to realize the dispatching and control of the operating status and process flow of the hydropower station. The remote control center system can process, analyze and store a large amount of data collected by the hydropower station, generate operation reports, statistical analysis results and trend forecasts, and provide support and reference for operation management and decision-making. The remote control center system has the functions of real-time alarm and fault handling, which can timely discover and handle abnormal conditions and equipment failures of the hydropower station to ensure the safe and stable operation of the hydropower station. The remote control center system can also realize the operation management and decision support of the hydropower station, including formulating operation plans, scheduling plans, optimizing operation strategies, etc., to achieve the rational use of hydropower resources and the stability of power supply.

[0060] In this embodiment, the remote centralized control center system is firstly transformed into an autonomous controllable system. Therefore, the remote centralized control center system and the adaptation server are composed of autonomous controllable software and hardware. The remote centralized control center system needs to collect data from each subordinate hydropower station and issue commands. Therefore, the remote centralized control center system centrally manages multiple sub-control systems, and each sub-control system manages a hydropower station.

[0061] In the process of autonomous and controllable transformation, the transformation of some hydropower stations may not be completed in time, resulting in some non-autonomous and controllable software and hardware in the system. This embodiment only describes the first sub-control system, which includes non-autonomous and controllable software and / or hardware.

[0062] like Figure 2 As shown, in addition to the first sub-control system, the system may also include multiple other sub-systems that have not been completely transformed into autonomous controllable systems. For other sub-systems that have not been transformed, the method of this implementation can be used for similar processing. This implementation only takes the first sub-control system as an example. There may also be one or more sub-systems in the system that have completed the autonomous transformation, and such sub-systems can be directly connected to the remote centralized control center system.

[0063] The adapter server plays an important role in the hydropower remote control system. It is mainly used to connect and manage the old system, while strengthening the security control of the old system to prevent illegal users from damaging the remote control center system through the old system.

[0064] The adapter server can connect and communicate with the old system to achieve data transmission and exchange. It can adapt to various types of old systems, including software, equipment and systems of different brands and models, so that these old systems can be effectively integrated and managed with the transformed hydropower remote centralized control system.

[0065] The adapter server can implement security control and authentication mechanisms to identify and verify data connected to the old system, ensuring that only authorized data can reach the remote control center system. This can prevent illegal users from attacking or destroying the remote control center system through the old system.

[0066] The command baseline of the hydropower management system that has undergone autonomous transformation has been aligned with the remote centralized control center system, and it is safe, autonomous and controllable, and can be directly connected to the remote centralized control center system. The first sub-control system has not been completely autonomously transformed, some data is incompatible, and security does not meet the standards, and it needs to be redirected through the adapter server. Therefore, the remote centralized control center system is connected to the first sub-control system through the adapter server.

[0067] In order to achieve the above purpose, this embodiment uses an adaptation file to manage each sub-control system that has not completed the autonomous control transformation and is connected to the remote centralized control center system. Specifically, the adaptation server includes a first configuration file, and the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated.

[0068] It should be made clear that if there are multiple subsystems in the system that have not completed the autonomous and controllable transformation, each subsystem corresponds to a configuration file. And if there are different versions of software and / or hardware between subsystems, the configuration files between different subsystems can also be different.

[0069] As the autonomous and controllable transformation proceeds, when some software and hardware are replaced in the first subsystem, the data generated by the first subsystem and the required control commands may change. Therefore, the first configuration file needs to be updated so that the updated first subsystem can still interact normally with the remote centralized control center system.

[0070] A configuration file is a text file in a specific format (such as XML, JSON, etc.) that contains various configuration parameters and settings. Depending on the actual situation, the configuration file may include multiple parts or chapters, covering different aspects of configuration information.

[0071] In order to perform compatibility conversion, first, the first configuration file includes the uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system. Determine the original indicators or data that need to be uploaded to the adaptation server. These indicators may include the current sensor data, device status parameters, etc. of the first sub-control system. According to the determined original indicators, design the structure and format of the configuration file. Ensure that a corresponding field or parameter is defined for each original indicator so that these indicators can be accurately identified and parsed when uploading. Fill in the original indicators corresponding to the current software and hardware versions of the first sub-control system into the configuration file. Ensure that each indicator is filled in according to the correct format and specifications so that the adaptation server can correctly parse and process these data.

[0072] Furthermore, the first configuration file includes the system indicators currently corresponding to the remote centralized control center system; the first configuration file includes a calculation formula for converting the original indicators into the system indicators. Determine the system indicators that need to be monitored and managed in the remote centralized control center system. System indicators are indicators that can be recognized and used by the remote centralized control center system. These indicators may include operating status parameters, equipment health indicators, performance data, etc. Determine according to the needs and functions of the system. Design the structure and format of the configuration file based on the determined system indicators.

[0073] Define a corresponding field or parameter for each system indicator, and ensure that the configuration file can accurately describe and record the information of these indicators. Fill in the system indicators currently corresponding to the remote centralized control center system into the configuration file. Ensure that each system indicator is filled in according to the correct format and specifications so that the system can correctly identify and parse the data of these indicators.

[0074] For situations where there is a conversion relationship between the original indicator and the system indicator, design a corresponding calculation formula. According to the value or status of the original indicator, calculate the corresponding value or status of the system indicator. Ensure that the calculation formula can accurately reflect the correlation between the original indicator and the system indicator.

[0075] Fill in the designed calculation formula into the configuration file. Define a corresponding calculation formula for the conversion relationship between each original indicator and the system indicator, so that the conversion and calculation can be automatically performed when the system is running. The formula may include a merging formula, such as converting multiple indicators into a system indicator through operation rules, and specifying the original indicator parameters and calculation methods required for the calculation in the formula; the formula may also include a conversion formula, such as converting original indicators of different units and frequencies into system indicators required by the central system; the formula may also include a splitting formula, such as the new centralized control center system has higher batch frequency requirements, but the data uploaded by the old subsystem has a low frequency. For compatibility, the low-frequency data in the old system is interpolated into high-frequency data through interpolation, and the interpolation frequency and interpolation method parameters are specified in the formula.

[0076] Before release, test and verify the designed configuration files to ensure that the system can correctly identify and parse the system indicators and calculation formulas in the configuration files, and can correctly convert and calculate the original indicators to system indicators.

[0077] After receiving the original indicator uploaded by the first subsystem, the adaptation server converts the original indicator into the system indicator according to the calculation formula.

[0078] The adaptation server receives the uploaded raw indicator data from the first subsystem, which may include sensor readings, device status, performance parameters, etc.

[0079] The adapter server parses the received raw indicator data and converts it into a format that can be recognized and processed in the calculation formula for subsequent calculation and processing.

[0080] The adaptation server determines a predefined calculation formula according to the first configuration file, converts and calculates the received original indicators to obtain corresponding system indicators. Each original indicator may have a corresponding calculation formula, and the calculation conversion is performed one by one according to the actual situation.

[0081] According to the calculation results obtained by the calculation formula, the adapter server generates corresponding system indicator data. These system indicator data may include device health status, performance indicators, alarm thresholds, etc., which are used for system monitoring and management.

[0082] Furthermore, in order to isolate the system that has not completed the autonomous and controllable transformation from the system that has completed the autonomous and controllable transformation, the adaptation server includes a first gateway, which reads the first configuration file; the first gateway filters the information uploaded by the adaptation server to the remote control center system, and only allows the system indicators to be uploaded to the remote control center system.

[0083] Specifically, the first gateway uses a message queue to implement asynchronous processing and distribution of data.

[0084] First, set up a message queue service on the adapter server, such as Apache Kafka, RabbitMQ, etc. Configure the queue, determine the message transmission protocol and format, and ensure that the adapter server can connect to it and send and receive messages.

[0085] When the first subsystem uploads raw data, the adapter server converts the received raw data into system indicators and sends them to the message queue.

[0086] Write a message consumer program to get data from the message queue and process it. The message consumer is a background program that monitors the queue and processes new messages when they arrive. Use tools such as Kafka Consumer API and RabbitMQ Consumer to write message consumers.

[0087] In the message consumer program, the logic of filtering and processing the original data is implemented. According to the rules and conditions defined in the first configuration file, the data that meets the conditions is filtered out, and necessary conversion and processing are performed. Specifically, the data is filtered according to the system indicator data type and its value range conditions defined in the first configuration file.

[0088] The filtered and processed system indicator data is sent to the remote centralized control center system for real-time monitoring and management.

[0089] As the autonomous and controllable transformation proceeds, the software and hardware in the old system are constantly replaced. It is foreseeable that each replacement, if it involves changes in upload / download data, requires modification of the corresponding configuration files. When an old system is completely autonomously transformed, it can be directly compatible with the remote centralized control center system and can meet the corresponding information security requirements. At this point, the first sub-control system is directly connected to the remote centralized control center system after all the software and hardware are updated to autonomous and controllable.

[0090] Through the above-mentioned embodiments, by using autonomous and controllable software and hardware, and using an adapter server to isolate the parts that have not undergone autonomous and controllable transformation, the system can effectively prevent external malicious attacks and illegal access, ensure the information security of the hydropower station system, and ensure that the data is not tampered with or leaked.

[0091] The first configuration file in the adaptation server can be updated in time. With the update of the software and hardware of the first sub-control system, the system configuration file can be updated synchronously, thereby ensuring the timely maintenance and upgrade of the system and keeping the system up to date. And only one set of configuration files can be used to complete the conversion and security configuration of indicators, making the system more user-friendly.

[0092] The system supports the conversion of original indicators into calculation formulas for system indicators, and can flexibly process and convert data according to actual needs to meet the needs and characteristics of different renovation progress.

[0093] On the other hand, the present invention also provides a method for creating an autonomous and controllable hydropower remote centralized control system, which creates an autonomous and controllable hydropower remote centralized control system, wherein the autonomous and controllable hydropower remote centralized control system at least includes: a remote centralized control center system, an adaptation server, and a first sub-control system;

[0094] The remote centralized control center system and the adaptation server are composed of autonomous controllable software and hardware. The remote centralized control center system centrally manages multiple sub-control systems, each of which manages a hydropower station;

[0095] The first sub-control system includes non-autonomous controllable software and / or hardware;

[0096] The remote centralized control center system is connected to the first sub-control system via the adaptation server;

[0097] The adaptation server includes a first configuration file, wherein the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated;

[0098] The first configuration file includes uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system;

[0099] The first configuration file includes system indicators currently corresponding to the remote centralized control center system;

[0100] The first configuration file includes a calculation formula for converting the original indicator into the system indicator;

[0101] The adaptation server converts the original indicator into the system indicator according to the calculation formula;

[0102] The adaptation server includes a first gateway, and the first gateway reads the first configuration file;

[0103] The first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system;

[0104] After the first sub-control system is completely updated with autonomous controllable software and hardware, it is directly connected to the remote centralized control center system for communication.

[0105] Furthermore, the specific implementation methods of the above-mentioned method for creating an autonomous and controllable hydropower remote centralized control system are the same as an autonomous and controllable hydropower remote centralized control system, and all further technical solutions in an autonomous and controllable hydropower remote centralized control system are fully introduced into the method for creating an autonomous and controllable hydropower remote centralized control system.

[0106] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, ordinary technicians in the relevant field should understand that the specific implementation methods of the present invention can still be modified or replaced by equivalents. Any modification or equivalent replacement that does not depart from the spirit and scope of the present invention should be covered within the scope of protection of the claims of the present invention.

[0107] The present invention does not particularly specify the structure of some modules, which shall be subject to the contents recorded in the prior art. The prior art mentioned in the above background technology section and the specific embodiment section of the present invention can be used as part of the present invention to understand the meaning of some technical features or parameters. The scope of protection of the present invention shall be subject to the contents actually recorded in the claims.

Claims

1. An autonomous and controllable hydropower remote centralized control system, characterized in that The system at least includes: a remote centralized control center system, an adaptation server and a first sub-control system; The remote centralized control center system and the adaptation server are composed of autonomous controllable software and hardware. The remote centralized control center system centrally manages multiple sub-control systems, each of which manages a hydropower station; The first sub-control system includes non-autonomous controllable software and / or hardware; The remote centralized control center system is connected to the first sub-control system via the adaptation server; The adaptation server includes a first configuration file, wherein the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated; The first configuration file includes uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system; The first configuration file includes the system index currently corresponding to the remote centralized control center system; the first configuration file includes a calculation formula for converting the original index into the system index; The adaptation server converts the original indicator into the system indicator according to the calculation formula; The adaptation server includes a first gateway, which reads the first configuration file; the first gateway filters the information uploaded by the adaptation server to the remote control center system, and only allows the system indicators to be uploaded to the remote control center system; after the first sub-control system is completely updated to autonomous controllable software and hardware, it directly communicates and connects with the remote control center system.

2. The autonomous and controllable hydropower remote centralized control system according to claim 1 is characterized by: The multiple sub-control systems include systems that have completed autonomous controllable transformation and systems that have not completed autonomous controllable transformation.

3. The autonomous and controllable hydropower remote centralized control system according to claim 1 is characterized in that The calculation formula includes: Merge formula, convert multiple indicators into a system indicator through operation rules, and specify the original indicator parameters and calculation methods required for calculation in the formula; Conversion formula, which converts the original indicators of different units and frequencies into the system indicators required by the central system, and specifies the parameters and conversion rules required for the conversion in the formula; The splitting formula interpolates the low-frequency data of the original indicator into high-frequency data through interpolation. The formula includes the indicator interpolation frequency and interpolation method.

4. The autonomous and controllable hydropower remote centralized control system according to claim 1 is characterized in that The first gateway filters the information uploaded by the adapter server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system, including: setting a message queue service on the adapter server; When the first sub-control system uploads raw indicator data, the adaptation server converts the received raw data into system indicators and sends them to the message queue; The consumer program obtains data from the message queue and processes it. The consumer program is a background program that monitors the queue and processes new messages when they arrive. In the consumer program, filtering data according to the system indicator data type and its value range condition defined in the first configuration file; The filtered and processed system indicator data is sent to the remote centralized control center system for real-time monitoring and management.

5. The autonomous and controllable hydropower remote centralized control system according to claim 1 is characterized in that After the first sub-control system is completely updated to autonomous controllable software and hardware, it is directly connected to the remote centralized control center system in communication, including: As the autonomous and controllable transformation proceeds, the software and hardware in the first sub-control system are constantly replaced. Each time a replacement involves changes in uploaded / downloaded data, the corresponding configuration file is modified. When the first sub-control system is completely autonomously and controllably transformed, it can be directly compatible with the remote centralized control center system and can meet the corresponding information security requirements. At this time, the first sub-control system is directly communicated and connected with the remote centralized control center system after all software and hardware are updated to autonomous and controllable ones.

6. A method for establishing an autonomous and controllable hydropower remote centralized control system, characterized in that Creating an autonomous and controllable hydropower remote centralized control system, the autonomous and controllable hydropower remote centralized control system comprising at least: a remote centralized control center system, an adaptation server, and a first sub-control system; The remote centralized control center system and the adaptation server are composed of autonomous controllable software and hardware. The remote centralized control center system centrally manages multiple sub-control systems, each of which manages a hydropower station; The first sub-control system includes non-autonomous controllable software and / or hardware; The remote centralized control center system is connected to the first sub-control system via the adaptation server; The adaptation server includes a first configuration file, wherein the version of the first configuration file corresponds to the current software and hardware of the first sub-control system; after the software and / or hardware of the first sub-control system is updated, the first configuration file is updated; The first configuration file includes uploaded original indicators corresponding to the current software and hardware versions of the first sub-control system; The first configuration file includes the system index currently corresponding to the remote centralized control center system; the first configuration file includes a calculation formula for converting the original index into the system index; The adaptation server converts the original indicator into the system indicator according to the calculation formula; The adaptation server includes a first gateway, and the first gateway reads the first configuration file; the first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system indicators to be uploaded to the remote centralized control center system; After the first sub-control system is completely updated with autonomous controllable software and hardware, it is directly connected to the remote centralized control center system for communication.

7. The method for establishing an autonomous and controllable hydropower remote centralized control system according to claim 6 is characterized in that: The multiple sub-control systems include systems that have completed autonomous controllable transformation and systems that have not completed autonomous controllable transformation.

8. The method for establishing an autonomous and controllable hydropower remote centralized control system according to claim 6 is characterized in that The calculation formula includes: Merge formula, convert multiple indicators into a system indicator through operation rules, and specify the original indicator parameters and calculation methods required for calculation in the formula; Conversion formula, which converts the original indicators of different units and frequencies into the system indicators required by the central system, and specifies the parameters and conversion rules required for the conversion in the formula; The splitting formula interpolates the low-frequency data of the original indicator into high-frequency data through interpolation. The formula includes the indicator interpolation frequency and interpolation method.

9. The method for establishing an autonomous and controllable hydropower remote centralized control system according to claim 6 is characterized in that The first gateway filters the information uploaded by the adaptation server to the remote centralized control center system, and only allows the system index to be uploaded to the remote centralized control center system, including: Set up the message queue service on the adapter server; When the first sub-control system uploads raw indicator data, the adaptation server converts the received raw data into system indicators and sends them to the message queue; The consumer program obtains data from the message queue and processes it. The consumer program is a background program that monitors the queue and processes new messages when they arrive. In the consumer program, filtering data according to the system indicator data type and its value range condition defined in the first configuration file; The filtered and processed system indicator data is sent to the remote centralized control center system for real-time monitoring and management.

10. The method for establishing an autonomous and controllable hydropower remote centralized control system according to claim 6, characterized in that After the first sub-control system is completely updated to autonomous controllable software and hardware, it is directly connected to the remote centralized control center system in communication, including: As the autonomous and controllable transformation proceeds, the software and hardware in the first sub-control system are constantly replaced. Each time a replacement involves changes in uploaded / downloaded data, the corresponding configuration file is modified. When the first sub-control system is completely autonomously and controllably transformed, it can be directly compatible with the remote centralized control center system and can meet the corresponding information security requirements. At this time, the first sub-control system is directly communicated and connected with the remote centralized control center system after all software and hardware are updated to autonomous and controllable ones.

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