Comprehensive distribution box management method, system and equipment

Abstract

The invention relates to the technical field of power distribution management, and particularly discloses a comprehensive power distribution box management method, system and equipment, and the method comprises the steps: obtaining basic power distribution data, collecting real-time operation data and real-time environment data in real time, and receiving a real-time remote control instruction and a real-time remote regulation strategy; verifying each real-time remote control sub-instruction in the real-time remote control instruction, and determining a real-time execution instruction; calculating a verification score of each real-time remote regulation sub-strategy in the real-time remote regulation strategy, determining a regulation remote regulation sub-strategy of each real-time remote regulation sub-strategy, and determining a real-time execution strategy; and executing the real-time execution instruction and the real-time execution strategy to realize real-time management of the comprehensive distribution box. Real-time accurate management of the comprehensive distribution box is achieved, it is ensured that the comprehensive distribution box is always in the optimal operation state, the operation reliability and stability of the distribution box are improved, the fault occurrence probability is reduced, energy consumption is effectively reduced, the energy utilization efficiency is improved, and the management level and operation and maintenance efficiency of the comprehensive distribution box are improved.

Description

Technical Field

[0001] This invention relates to the field of power distribution management technology, and in particular to a method, system and equipment for managing integrated power distribution boxes. Background Technology

[0002] The development of integrated distribution box management technology has evolved alongside the increasing demand for electricity and the increasing complexity of the power grid. In the early days, distribution boxes only performed basic power distribution functions. After the 1980s, urbanization and industrialization promoted the integration of metering and protection functions into them, but these still relied on manual inspections, making it difficult to grasp their operating status in a timely manner.

[0003] In the 21st century, the rise of smart grids and the integration of distributed energy resources have highlighted the shortcomings of traditional models: while remote monitoring has been introduced, data silos exist, with only basic data such as voltage and current collected, lacking linkage analysis with environmental parameters; remote control commands are executed in a one-size-fits-all manner, making them prone to misoperation due to sudden overloads or abnormal temperature and humidity. The timed remote control function, which became widespread after 2010, relies on preset thresholds and cannot adapt to complex fluctuations such as peak-valley differences in commercial areas and impulsive loads in industrial areas, and the execution results lack closed-loop verification. Manual intervention is mostly done after a fault occurs, and in daily management, data and strategies are disconnected, resulting in delayed responses and failing to meet the real-time and accuracy requirements of modern distribution networks, thus driving the development of new management technologies.

[0004] Therefore, this invention proposes a comprehensive distribution box management method, system, and equipment. Summary of the Invention

[0005] This invention provides a method, system, and device for managing integrated power distribution boxes. It verifies each real-time remote control sub-instruction in the received real-time remote control commands using real-time operational data and real-time environmental data of the integrated power distribution box, determines and executes the real-time execution command, calculates the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy using the integrated power distribution box's real-time operational data and real-time environmental data, determines the adjustment sub-strategy for each real-time remote adjustment sub-strategy, determines and executes the real-time execution strategy of the integrated power distribution box, and achieves real-time management of the integrated power distribution box. This enables precise and real-time management of the integrated power distribution box, ensuring that the integrated power distribution box is always in optimal operating condition, improving the reliability and stability of the power distribution box operation, reducing the probability of failure, effectively reducing energy consumption, improving energy utilization efficiency, and enhancing the management level and operation and maintenance efficiency of the integrated power distribution box.

[0006] This invention provides a method for managing integrated distribution boxes, comprising: S1: Acquire basic power distribution data of the integrated power distribution box, collect real-time operation data and real-time environmental data of the integrated power distribution box, and receive real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box. S2: Verify each real-time remote control sub-instruction in the received real-time remote control command based on the real-time operation data and real-time environmental data of the integrated power distribution box, and determine the real-time execution command of the integrated power distribution box based on the verification results. S3: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. S4: Executes real-time commands and strategies for the integrated distribution box, generates an integrated distribution box management report, and realizes real-time management of the integrated distribution box.

[0007] Preferably, a method for managing integrated distribution boxes includes basic power distribution data such as the installation location of the integrated distribution box, the power distribution scenario of the equipment, the equipment model, the equipment structure, the equipment configuration data, and the electrical rating data. The equipment configuration data includes configuration sub-data of multiple configurations, and the electrical rating data includes rating sub-data of multiple electrical parameters.

[0008] Preferably, a method for managing an integrated distribution box includes collecting real-time operating data and real-time environmental data of the integrated distribution box, and receiving real-time remote control commands and real-time remote adjustment strategies from the integrated distribution box, comprising: The first sensor group based on the integrated power distribution box collects the real-time operating data of the integrated power distribution box. The real-time operating data includes multiple operating parameters and the operating value of each operating parameter. The second sensor group based on the integrated power distribution box collects real-time environmental data inside the integrated power distribution box. The real-time environmental data inside the box includes multiple environmental parameters inside the box and the monitored value of each environmental parameter inside the box. Based on the equipment installation location in the basic power distribution data of the integrated power distribution box and the real-time external environmental data of the integrated power distribution box obtained by the third sensor group, the real-time external environmental data includes multiple external environmental parameters and the external monitoring value of each external environmental parameter. Based on real-time internal and external environmental data of the distribution box, the real-time environmental data of the integrated distribution box is determined. The integrated distribution box receives real-time remote control commands and real-time remote adjustment strategies based on the equipment power distribution scenario in the basic power distribution data. The real-time remote control commands include multiple real-time remote control sub-commands, and the real-time remote adjustment strategies include multiple real-time remote adjustment sub-strategies.

[0009] Preferably, a method for managing an integrated distribution box includes verifying each real-time remote control sub-instruction in the received real-time remote control commands based on the real-time operating data and real-time environmental data of the integrated distribution box, and determining the real-time execution command of the integrated distribution box based on the verification results, including: Based on each real-time remote control sub-instruction in the real-time remote control command, determine the remote control target and the controlled object of each real-time remote control sub-instruction; Based on the real-time operation data of the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of remote control operation parameters for each real-time remote control sub-command is determined. Based on the real-time environmental data inside the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of environmental parameters inside the remote control box for each real-time remote control sub-command is determined. Based on the operating values ​​of all operating parameters in the remote operation parameter set of each real-time remote control sub-instruction in the real-time remote control command, and the monitoring values ​​of all in-box environmental parameters in the in-box environmental parameter set of the remote control box, the command verification is performed on each real-time remote control sub-instruction. Based on the verification results, the management tag of each real-time remote control sub-instruction is determined. The management tag includes the execution command and the rejection command. Based on all real-time remote control sub-commands with management tags as execution commands, determine the real-time execution command of the integrated distribution box.

[0010] Preferably, a method for managing an integrated distribution box includes calculating the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy based on the real-time operating data and real-time environmental data of the integrated distribution box, determining the adjustment remote adjustment sub-strategy for each real-time remote adjustment sub-strategy, and determining the real-time execution strategy of the integrated distribution box, including: Based on each real-time telemetry sub-strategy in the real-time telemetry strategy, determine the telemetry target and adjustment object of each real-time telemetry sub-strategy; Based on the electrical rated data in the basic power distribution data, the real-time operation data of the integrated distribution box, and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy and the ideal value of the remote adjustment strategy for each operation parameter in the remote adjustment operation parameter set are determined. Based on the real-time environmental data inside the integrated distribution box and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the set of environmental parameters inside the remote adjustment box for each real-time remote adjustment sub-strategy is determined. The set of external environmental parameters is determined based on all external environmental parameters in the real-time external environmental data of the integrated distribution box; Based on the operating values ​​of all operating parameters in the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, the monitoring values ​​of all internal environmental parameters in the internal environmental parameter set of the remote control box, and the external environmental parameter set, strategy verification is performed on each real-time remote adjustment sub-strategy, and the verification score of each real-time remote adjustment sub-strategy is calculated. The verification score and preset score of each real-time remote adjustment sub-strategy are compared. If the verification score is less than or equal to the preset score, the real-time remote adjustment sub-strategy is determined to be an adjustment sub-strategy. If the verification score is greater than the preset score, the ideal value of the adjustment strategy for each operating parameter in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy is calculated based on the verification score of the real-time remote adjustment sub-strategy, the operating values ​​of all operating parameters in the remote adjustment operating parameter set, the monitoring values ​​of all internal environmental parameters in the remote control box internal environmental parameter set, and the external environmental parameter set. The adjustment sub-strategy is then determined based on the ideal value of the adjustment strategy for all operating parameters in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy. Based on the adjustment of all real-time remote adjustment sub-strategies in the real-time remote adjustment strategy, the real-time execution strategy of the integrated distribution box is determined.

[0011] Preferably, a method for managing integrated distribution boxes includes executing real-time commands and strategies for the integrated distribution boxes, generating integrated distribution box management reports, and achieving real-time management of the integrated distribution boxes, comprising: The integrated distribution box executes each real-time remote control sub-instruction in the real-time execution command and obtains the execution result of each real-time remote control sub-instruction in real time; The integrated distribution box executes each adjustment and remote adjustment sub-strategy in the real-time execution strategy and obtains the strategy execution result of each adjustment and remote adjustment sub-strategy in real time; Based on the real-time execution instructions, the execution results of each real-time remote control sub-instruction within the real-time execution instructions, the real-time execution strategy, and the strategy execution results of each adjustment remote control sub-strategy within the real-time execution strategy, a comprehensive distribution box management report is generated.

[0012] This invention provides an integrated distribution box management system for executing any one of the integrated distribution box management methods in embodiments 1 to 6, comprising: Data Acquisition Module: Acquires basic power distribution data of the integrated power distribution box, collects real-time operating data and real-time environmental data of the integrated power distribution box, and receives real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box; Remote control module: Based on the real-time operation data and real-time environmental data of the integrated power distribution box, it verifies each real-time remote control sub-command in the received real-time remote control command, and determines the real-time execution command of the integrated power distribution box based on the verification results; Remote adjustment module: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. Management module: Executes real-time commands and strategies of the integrated power distribution box to achieve real-time management of the integrated power distribution box.

[0013] This invention provides an integrated power distribution box management device. Including memory and processor: The memory is used to store executable instructions; The processor is configured to read the executable instructions from the memory and execute the executable instructions to implement any one of the integrated distribution box management methods of claims 1 to 6.

[0014] The beneficial effects of this invention compared to existing technologies are as follows: By verifying each real-time remote control sub-instruction in the received real-time remote control commands using real-time operating data and real-time environmental data of the integrated power distribution box, the invention determines and executes the real-time execution command. Furthermore, by calculating the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy using the integrated power distribution box's real-time operating data and real-time environmental data, the invention determines the adjustment sub-strategy for each real-time remote adjustment sub-strategy, and finally determines and executes the real-time execution strategy for the integrated power distribution box, thus achieving real-time management of the integrated power distribution box. This enables precise and real-time management of the integrated power distribution box, ensuring it is always in optimal operating condition, improving the reliability and stability of the power distribution box operation, reducing the probability of failures, effectively reducing energy consumption, improving energy utilization efficiency, and enhancing the management level and maintenance efficiency of the integrated power distribution box.

[0015] Other features and advantages of the invention will be set forth in the description which follows, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in this application.

[0016] The technical solution of the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. Attached Figure Description

[0017] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings: Figure 1 This is a schematic diagram of a comprehensive distribution box management method according to an embodiment of the present invention; Figure 2 This is a flowchart of an integrated power distribution box management system according to an embodiment of the present invention. Detailed Implementation

[0018] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0019] Example 1: This invention provides a method for managing integrated distribution boxes, referencing... Figure 1 ,include: S1: Acquire basic power distribution data of the integrated power distribution box, collect real-time operation data and real-time environmental data of the integrated power distribution box, and receive real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box. S2: Verify each real-time remote control sub-instruction in the received real-time remote control command based on the real-time operation data and real-time environmental data of the integrated power distribution box, and determine the real-time execution command of the integrated power distribution box based on the verification results. S3: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. S4: Executes real-time commands and strategies for the integrated distribution box, generates an integrated distribution box management report, and realizes real-time management of the integrated distribution box.

[0020] In this embodiment, the first step is to acquire the basic power distribution data of the integrated distribution box, which forms the basis for all subsequent operations. Simultaneously, real-time operational data of the distribution box, such as current, voltage, and power, as well as real-time environmental data, including temperature and humidity inside and outside the box, are collected. Furthermore, real-time remote control commands and real-time remote adjustment strategies from other systems are required; these commands and strategies form the basis for controlling and adjusting the distribution box.

[0021] In this embodiment, real-time execution commands and strategies of the integrated power distribution box are executed, while the execution results of each real-time remote control sub-command and the strategy execution results of each adjustment sub-strategy are acquired in real time. Finally, an integrated power distribution box management report is generated based on these execution results. The report includes information such as the operating status of the power distribution box and the execution effects of commands and strategies, thereby achieving real-time management of the integrated power distribution box.

[0022] The beneficial effects of the above technology are as follows: By verifying each real-time remote control sub-command in the received real-time remote control commands using real-time operating data and real-time environmental data from the integrated power distribution box, the real-time execution command is determined and executed. Furthermore, by calculating the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy using the integrated power distribution box's real-time operating data and real-time environmental data, the adjustment sub-strategy for each real-time remote adjustment sub-strategy is determined, and the real-time execution strategy of the integrated power distribution box is determined and executed, thus achieving real-time management of the integrated power distribution box. This enables precise and real-time management of the integrated power distribution box, ensuring that it is always in optimal operating condition, improving the reliability and stability of the power distribution box operation, reducing the probability of failure, effectively reducing energy consumption, improving energy utilization efficiency, and enhancing the management level and operation and maintenance efficiency of the integrated power distribution box.

[0023] Example 2: Based on Example 1, a method for managing integrated distribution boxes is provided. The basic power distribution data includes the installation location of the integrated distribution box, the power distribution scenario of the equipment, the equipment model, the equipment structure, the equipment configuration data, and the electrical rating data. The equipment configuration data includes configuration sub-data of multiple configurations, and the electrical rating data includes rating sub-data of multiple electrical parameters.

[0024] In this embodiment, the power distribution scenario refers to the specific power environment and purpose served by the integrated distribution box, such as power distribution in residential communities, power distribution in industrial plants, or lighting distribution in commercial complexes. Different power distribution scenarios have different performance requirements and operating parameter settings for the distribution box. For example, in the power distribution scenario of industrial plants, equipment starts frequently, which may require the distribution box to have stronger overload capacity and more sensitive protection mechanisms, while the power distribution scenario of residential communities pays more attention to the stability and security of power supply.

[0025] In this embodiment, the equipment model is a specific identifier assigned by the distribution box manufacturer. Different models represent different design standards, performance parameters, and functional configurations. By using the equipment model, managers can quickly access the technical manual of the distribution box to understand key information such as its design life, applicable voltage levels, and the number of circuits it can accommodate. This is of great reference value for determining whether the equipment meets current power distribution needs and whether it needs to be upgraded.

[0026] In this embodiment, the equipment structure involves the components and layout of the integrated distribution box, including the material of the box, the arrangement of internal switching equipment, the connection method of the busbars, and the protection level. For example, some distribution boxes adopt a modular structure, where each functional unit can be disassembled independently for easy maintenance; others adopt an integral structure for stronger protection.

[0027] In this embodiment, the equipment configuration data includes the enclosure configuration: 304 stainless steel material (plate thickness 2.0mm), protection level IP45 / IP44, mechanical impact level IK10; bus configuration: main bus TMY-10×50mm, PE / N bus TMY-5×50mm, etc.; core component configuration: disconnecting switch fuse group (HH15(QSA)-800 / 3P), residual current protection circuit breaker (SHMM1Lz-250M / 3P+N), intelligent harmonic suppression integrated power capacitor compensation device (ANJ series), etc.

[0028] In this embodiment, the electrical rating data includes rated voltage: 400V (main circuit), 690V (insulation voltage); rated current: 630A, 600A, 500A and other levels; short circuit withstand strength: 20kA (RMS) / 40kA (peak); compensation capacity: 150kvar~30kvar.

[0029] The beneficial effects of the above technologies are: obtaining basic power distribution data from the integrated distribution box can comprehensively and accurately reflect various basic information of the integrated distribution box, providing a solid basis for subsequent data processing, command verification, etc.

[0030] Example 3: Based on Example 1, a method for managing an integrated distribution box includes collecting real-time operating data and real-time environmental data of the integrated distribution box, receiving real-time remote control commands and real-time remote adjustment strategies from the integrated distribution box, including: The first sensor group based on the integrated power distribution box collects the real-time operating data of the integrated power distribution box. The real-time operating data includes multiple operating parameters and the operating value of each operating parameter. The second sensor group based on the integrated power distribution box collects real-time environmental data inside the integrated power distribution box. The real-time environmental data inside the box includes multiple environmental parameters inside the box and the monitored value of each environmental parameter inside the box. Based on the equipment installation location in the basic power distribution data of the integrated power distribution box and the real-time external environmental data of the integrated power distribution box obtained by the third sensor group, the real-time external environmental data includes multiple external environmental parameters and the external monitoring value of each external environmental parameter. Based on real-time internal and external environmental data of the distribution box, the real-time environmental data of the integrated distribution box is determined. The integrated distribution box receives real-time remote control commands and real-time remote adjustment strategies based on the equipment power distribution scenario in the basic power distribution data. The real-time remote control commands include multiple real-time remote control sub-commands, and the real-time remote adjustment strategies include multiple real-time remote adjustment sub-strategies.

[0031] In this embodiment, a first sensor group based on the integrated distribution box collects real-time operational data. This first sensor group is a collection of various sensors specifically designed to monitor the operating status of the distribution box, such as current sensors, voltage sensors, power sensors, frequency sensors, and switch status sensors. Based on the equipment distribution scenario, equipment model, and equipment structure in the basic power distribution data, the first sensor group is installed at key locations inside the distribution box, such as near each circuit, switching equipment, and busbars. The real-time operational data includes multiple operational parameters, covering a series of indicators reflecting the operating status of the distribution box, such as the voltage, current, power, power factor, and frequency of each circuit, as well as the open / closed status of switches and the operating status of fuses. Each operational parameter has a corresponding operational value, which is the specific value monitored by the sensors in real time. For example, the current operating value for a certain circuit is 10A, and the voltage operating value is 220V.

[0032] In this embodiment, the second sensor group includes temperature sensors, humidity sensors, gas sensors, dust sensors, etc., and is mainly deployed inside the distribution box to monitor the environmental conditions inside the box. The real-time internal environmental data includes multiple internal environmental parameters, such as internal temperature, internal humidity, internal air pressure, concentration of harmful gases (such as gases that may be generated due to equipment failure), and internal dust content. The monitored value for each internal environmental parameter is the specific data obtained by the second sensor group through real-time measurement of these parameters; for example, the monitored internal temperature is 35℃, and the monitored humidity is 60%.

[0033] In this embodiment, real-time external environmental data is acquired based on the equipment installation location in the basic power distribution data of the integrated distribution box and the real-time data of the external environment from a third sensor group. The third sensor group, installed outside the distribution box, includes outdoor temperature sensors, outdoor humidity sensors, rainfall sensors, wind speed sensors, light sensors, and corrosive gas sensors. Its installation location matches the equipment installation location; for example, if the distribution box is installed next to an outdoor utility pole, the third sensor group may be installed on the utility pole or on the ground or in the air around the distribution box. The real-time external environmental data includes multiple external environmental parameters, such as external temperature, external humidity, wind speed, rainfall, light intensity, and surrounding air quality (e.g., dust concentration, corrosive gas content). The external monitoring value for each external environmental parameter is a specific value measured in real-time by the third sensor group; for example, an external temperature of 30°C and rainfall of 5 mm / h. These data can reflect the external environment of the distribution box, because changes in the external environment may affect the environment inside the box, and thus affect the operation of the distribution box. For example, heavy rain may cause the humidity outside the box to rise sharply, and if the box is not well sealed, the humidity inside the box may also rise.

[0034] In this embodiment, the integrated distribution box receives real-time remote control commands and real-time remote adjustment strategies based on the equipment power distribution scenario in the basic power distribution data. It also receives commands and strategies issued by the power distribution scenario in which the integrated distribution box is located. The real-time remote control commands include multiple real-time remote control sub-commands, each a specific operation command. For example, in a residential power distribution scenario, there might be a sub-command to remotely shut down the backup power circuit of a specific residential building. The real-time remote adjustment strategies include multiple real-time remote adjustment sub-strategies, each a specific parameter adjustment command. For example, in an industrial plant power distribution scenario, there might be a sub-strategy to increase the current protection threshold of a production equipment circuit by 5A. By receiving these scenario-adaptive commands and strategies, the remote control and parameter adjustment of the distribution box can be made more targeted and reasonable.

[0035] The beneficial effects of the above technologies are as follows: collecting real-time operating data and real-time environmental data of the integrated distribution box, receiving real-time remote control commands and real-time remote adjustment strategies of the integrated distribution box, comprehensively and accurately acquiring various real-time information, providing reliable data support for subsequent management, improving the adaptability of commands and strategies, and ensuring the timeliness and effectiveness of distribution box management.

[0036] Example 4: Based on Example 3, a method for managing an integrated distribution box, which verifies each real-time remote control sub-instruction in the received real-time remote control command based on the real-time operating data and real-time environmental data of the integrated distribution box, and determines the real-time execution command of the integrated distribution box based on the verification results, including: Based on each real-time remote control sub-instruction in the real-time remote control command, determine the remote control target and the controlled object of each real-time remote control sub-instruction; Based on the real-time operation data of the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of remote control operation parameters for each real-time remote control sub-command is determined. Based on the real-time environmental data inside the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of environmental parameters inside the remote control box for each real-time remote control sub-command is determined. Based on the operating values ​​of all operating parameters in the remote operation parameter set of each real-time remote control sub-instruction in the real-time remote control command, and the monitoring values ​​of all in-box environmental parameters in the in-box environmental parameter set of the remote control box, the command verification is performed on each real-time remote control sub-instruction. Based on the verification results, the management tag of each real-time remote control sub-instruction is determined. The management tag includes the execution command and the rejection command. Based on all real-time remote control sub-commands with management tags as execution commands, determine the real-time execution command of the integrated distribution box.

[0037] In this embodiment, based on each real-time remote control sub-instruction within the real-time remote control command, the remote control target and controlled object of each sub-instruction are determined. The real-time remote control command is a set of instructions for remotely operating the integrated distribution box, while each real-time remote control sub-instruction is a specific operational requirement. The remote control target refers to the result that the sub-instruction wants to achieve, such as closing a circuit breaker to restore power, or activating a protection device to disconnect a faulty circuit. The controlled object is the specific equipment or component targeted by the sub-instruction, such as a circuit breaker for a circuit or a power switch for a specific area.

[0038] In this embodiment, based on the real-time operating data of the integrated distribution box and the remote control target and controlled object of each real-time remote control sub-command, the set of remote control operating parameters for each sub-command is determined. The real-time operating data includes operational status information of various aspects of the distribution box. When targeting a specific remote control target and controlled object, it is necessary to filter out the operating parameters related to that operation. For example, if the remote control target is to close a circuit, and the controlled object is the circuit breaker of that circuit, then the relevant operating parameters may include the current, voltage, and power of the circuit, as well as the current state of the circuit breaker (open or closed). These parameters directly affect the execution of the corresponding real-time remote control sub-command. Each operating parameter must be within its corresponding safety threshold range; otherwise, it will negatively impact the safety and effectiveness of the command execution. For example, if there is a large current in the circuit (such as residual current due to an undisconnected load), executing the closing command may trigger a closing inrush current, causing the circuit breaker to overload and trip, or even damage the equipment. Typically, it is required that the circuit current be at an extremely low level (close to zero) before closing to ensure that there is no excessive impact at the moment of closing. Therefore, whether the current meets this condition directly determines whether the command can be executed.

[0039] In this embodiment, based on the real-time environmental data inside the integrated distribution box and the remote control target and controlled object of each real-time remote control sub-command, a set of remote control box environmental parameters for each sub-command is determined. The real-time environmental data reflects the environmental conditions inside the distribution box; different controlled objects and remote control targets may be affected by different environmental parameters. For example, if the controlled object is a device installed in a humid area inside the box, and the remote control target is to start the device, then the relevant environmental parameters might include the humidity inside the box and the temperature near the device, as excessive humidity may affect the normal startup and operation of the device. These operation-related environmental parameters constitute the set of remote control box environmental parameters.

[0040] In this embodiment, each sub-command is validated based on the operating values ​​of all operating parameters in the remote control operating parameter set for each real-time remote control sub-command, and the monitored values ​​of all internal environmental parameters in the internal environmental parameter set of the remote control box. The validation process involves comparing these operating and monitored values ​​with preset safety ranges and operating conditions. For example, for a sub-command to close a circuit, it is necessary to check whether the current operating value of that circuit is within the rated current range of the circuit breaker, and whether the monitored value of the internal temperature is within the allowable operating temperature range of the equipment. If all parameters meet the conditions, the sub-command can be safely executed; if any parameter exceeds the range, executing the command may cause equipment damage or malfunction, and the sub-command will fail the validation. Based on the validation results, a management tag is assigned to each sub-command. The management tag is divided into execute command and reject command, indicating whether the sub-command can be executed or not, respectively.

[0041] In this embodiment, the real-time execution instruction is the set of operation instructions that will ultimately be implemented on the integrated distribution box. It only includes those sub-instructions that have passed verification and are marked as execution instructions. This ensures that the executed instructions are safe and feasible, avoiding damage to the distribution box caused by the execution of unreasonable instructions, thereby achieving effective and safe management of the integrated distribution box.

[0042] The beneficial effects of the above technologies are as follows: by verifying each real-time remote control sub-instruction in the received real-time remote control command based on the real-time operation data and real-time environmental data of the integrated power distribution box, and determining the real-time execution command of the integrated power distribution box based on the verification results, the rationality and safety of command execution can be ensured, the risk of misoperation can be reduced, the accuracy and reliability of remote control management of the integrated power distribution box can be improved, and the stable operation of the equipment can be guaranteed.

[0043] Example 5: Based on Example 3, a method for managing integrated distribution boxes, which calculates the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy based on the real-time operation data and real-time environmental data of the integrated distribution box, determines the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determines the real-time execution strategy of the integrated distribution box, including: Based on each real-time telemetry sub-strategy in the real-time telemetry strategy, determine the telemetry target and adjustment object of each real-time telemetry sub-strategy; Based on the electrical rated data in the basic power distribution data, the real-time operation data of the integrated distribution box, and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy and the ideal value of the remote adjustment strategy for each operation parameter in the remote adjustment operation parameter set are determined. Based on the real-time environmental data inside the integrated distribution box and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the set of environmental parameters inside the remote adjustment box for each real-time remote adjustment sub-strategy is determined. The set of external environmental parameters is determined based on all external environmental parameters in the real-time external environmental data of the integrated distribution box; Based on the operating values ​​of all operating parameters in the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, the monitoring values ​​of all internal environmental parameters in the internal environmental parameter set of the remote control box, and the external environmental parameter set, strategy verification is performed on each real-time remote adjustment sub-strategy, and the verification score of each real-time remote adjustment sub-strategy is calculated. The verification score and preset score of each real-time remote adjustment sub-strategy are compared. If the verification score is less than or equal to the preset score, the real-time remote adjustment sub-strategy is determined to be an adjustment sub-strategy. If the verification score is greater than the preset score, the ideal value of the adjustment strategy for each operating parameter in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy is calculated based on the verification score of the real-time remote adjustment sub-strategy, the operating values ​​of all operating parameters in the remote adjustment operating parameter set, the monitoring values ​​of all internal environmental parameters in the remote control box internal environmental parameter set, and the external environmental parameter set. The adjustment sub-strategy is then determined based on the ideal value of the adjustment strategy for all operating parameters in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy. Based on the adjustment of all real-time remote adjustment sub-strategies in the real-time remote adjustment strategy, the real-time execution strategy of the integrated distribution box is determined.

[0044] In this embodiment, based on each real-time remote adjustment sub-strategy within the real-time remote adjustment strategy, the remote adjustment target and adjustment object of each sub-strategy are determined. The real-time remote adjustment strategy is a set of schemes for remotely adjusting the operating parameters of the integrated distribution box, and each real-time remote adjustment sub-strategy is the specific adjustment content. The remote adjustment target refers to the adjustment effect to be achieved through this sub-strategy, such as stabilizing the voltage of a certain circuit within a specific range or reducing the power loss of a certain device. The adjustment object is the specific parameter or equipment component targeted by this sub-strategy, such as the voltage setpoint of a certain circuit or the action threshold of a certain protection device.

[0045] In this embodiment, based on the real-time operating data of the integrated distribution box and the remote adjustment targets and adjustment objects of each real-time remote adjustment sub-strategy, the set of remote adjustment operating parameters for each sub-strategy is determined. The real-time operating data covers the real-time operating status of various aspects of the distribution box, and for specific remote adjustment targets and adjustment objects, it is necessary to filter out the relevant operating parameters from it. For example, if the remote adjustment target is to reduce the power loss of a certain circuit, and the adjustment object is the current of that circuit, then the relevant operating parameters may include the current, voltage, and power factor of that circuit. Based on the electrical rated data in the basic power distribution data and the actual operating requirements of the remote adjustment target, the ideal value of the remote adjustment strategy for each operating parameter in the set of operating parameters of the real-time remote adjustment sub-strategy is determined. For example: the closer the current is to the ideal value (such as decreasing from 100A to 80A, and then approaching the ideal value of 70A), the resistance loss of the line will continue to decrease, directly reducing power loss; the more stable the voltage is near the rated ideal value, the more stable the relationship between current and power, avoiding abnormal current fluctuations caused by voltage fluctuations (such as current surges caused by voltage spikes), thereby maintaining a stable decrease in losses; the closer the power factor is to the ideal value of 1.0, the smaller the proportion of reactive power, the less current component in the line is used to transmit reactive power, the higher the proportion of effective current, and indirectly reduce the total power loss of the line (because reactive current also generates resistance loss).

[0046] In this embodiment, based on the real-time environmental data inside the integrated distribution box and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the set of remote adjustment parameters inside the box for each sub-strategy is determined. The real-time environmental data reflects the environmental conditions inside the distribution box. Different adjustment objects and remote adjustment targets may be affected by different environmental parameters inside the box. For example, if the adjustment object is the operating parameters of a device installed in a high-temperature area inside the box, and the remote adjustment target is to ensure the stable operation of that device, then the relevant environmental parameters inside the box may include the temperature near the device, the humidity inside the box, etc., because high temperature and high humidity may affect the device's response to parameter adjustments. These environmental parameters related to adjustment constitute the set of environmental parameters inside the remote adjustment box.

[0047] In this embodiment, the set of external environmental parameters is determined based on all external environmental parameters in the real-time external environmental data of the integrated distribution box. Changes in the external environment may indirectly affect the internal operating status of the distribution box, thereby affecting the effectiveness of the remote adjustment strategy. For example, in hot weather, excessively high external temperatures may cause the internal temperature to rise. In this case, the adjustment of equipment operating parameters needs to take this external factor into account. Therefore, including all external environmental parameters in the set can provide a more comprehensive environmental basis for strategy verification.

[0048] In this embodiment, based on the operating values ​​of all operating parameters in the remote adjustment operating parameter set of each real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, the monitoring values ​​of all internal environmental parameters in the internal environmental parameter set of the remote control box, and the external environmental parameter set, a strategy verification is performed on each real-time remote adjustment sub-strategy, and a verification score for each real-time remote adjustment sub-strategy is calculated. The formula for calculating the verification score can be expressed as: ; in, This represents the verification score of the k-th real-time telemetry sub-strategy in the real-time telemetry strategy. This represents the adjustment factor of the j-th internal environmental parameter in the set of internal environmental parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, based on the set of external environmental parameters. This represents the set of external environmental parameters. This represents the j-th environmental parameter within the set of environmental parameters inside the remote control box for the k-th real-time remote control sub-strategy in the real-time remote control strategy. This represents the monitored value of the j-th environmental parameter within the set of environmental parameters inside the remote control box in the k-th real-time remote control sub-strategy of the real-time remote control strategy. This represents the external monitoring value of the corresponding external environmental parameter in the external environmental parameter set for the j-th internal environmental parameter in the k-th real-time remote adjustment sub-strategy of the real-time remote adjustment strategy. Indicates the zero-prevention parameter. This represents the predicted execution value of the i-th operating parameter in the set of operating parameters for the k-th real-time telemetry sub-strategy within the real-time telemetry strategy, based on the set of parameters for the in-box environment. Let kN1 represent the ideal value of the ith operating parameter in the set of operating parameters for the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy. Let kN1 represent the number of environmental parameters inside the remote control box in the set of environmental parameters for the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy. This represents the elasticity coefficient of the i-th operating parameter in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, based on the j-th internal environmental parameter in the set of internal environmental parameters. This represents the value of the i-th operating parameter in the set of operating parameters for the k-th real-time telemetry sub-strategy in the real-time telemetry strategy. This represents the relative deviation value of the execution of the i-th operating parameter in the set of operating parameters for the k-th real-time telemetry sub-strategy in the real-time telemetry strategy. represents the parameter weight of the i-th operating parameter in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, and kN2 represents the number of operating parameters in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy.

[0049] In this embodiment, the zero-prevention parameter elastic modulus The value ranges from 0 to 1, and the parameter weights are... The value can be 0-1.

[0050] In this embodiment, the preset score is a benchmark score pre-set based on the design standards, operational safety thresholds, functional performance indicators, power distribution scenario requirements, and historical operational data of the integrated distribution box, used to determine the feasibility and adaptability of the real-time remote adjustment sub-strategy.

[0051] In this embodiment, if the verification score is greater than the preset score, based on the verification score of the real-time remote adjustment sub-strategy, the operating values ​​of all operating parameters in the remote adjustment operating parameter set, the monitoring values ​​of all internal environmental parameters in the remote control box environmental parameter set, and the external environmental parameter set, the ideal adjustment strategy value of each operating parameter in the real-time remote adjustment sub-strategy's remote adjustment operating parameter set is calculated. The formula for calculating the ideal adjustment strategy value can be expressed as: ; in, This represents the ideal adjustment value of the i-th operating parameter in the set of operating parameters for the k-th real-time telemetry sub-strategy in the real-time telemetry strategy. β represents the correction gain factor of the i-th operating parameter in the set of operating parameters of the k-th real-time telemetry sub-strategy in the real-time telemetry strategy, and β represents the gain sensitivity coefficient.

[0052] In this embodiment, This represents the environmental difference of the j-th environmental parameter in the set of environmental parameters inside the remote control box of the k-th real-time remote control sub-strategy in the real-time remote control strategy.

[0053] In this embodiment, The value represents the environmental impact of the i-th operating parameter in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, based on all the environmental parameters inside the remote control box in the set of environmental parameters inside the remote control box. It is the amplification or reduction factor of the predicted value based on the ideal value of the remote adjustment strategy under the influence of all the environmental parameters inside the remote control box in the set of environmental parameters inside the remote control box.

[0054] In this embodiment, It is a non-negative scalar that quantifies the total impact of all in-box environmental parameters in the set of in-box environmental parameters of the k-th real-time remote adjustment sub-strategy on the i-th operating parameter, and controls the degree of correction. Under the same conditions, the stronger the environmental disturbance, The larger the value, the greater the correction gain should be, and the better the correction effect.

[0055] In this embodiment, the relative deviation value is executed. This represents the deviation between the predicted execution value and the normalized ideal value of the ith operating parameter in the set of operating parameters for the k-th real-time telemetry sub-strategy in the real-time telemetry strategy.

[0056] In this embodiment, the elastic coefficient This represents the sensitivity of the i-th operating parameter in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy to the j-th environmental parameter in the set of environmental parameters inside the enclosure.

[0057] In this embodiment, the gain sensitivity coefficient β is used to control the sensitivity of the correction, which is adjusted according to the system response, typically starting from 1.0 and calibrated using historical data.

[0058] In this embodiment, This represents the deviation between the operating value of the i-th operating parameter in the set of operating parameters of the k-th real-time remote adjustment sub-strategy in the real-time remote adjustment strategy and the normalized ideal value of the remote adjustment strategy.

[0059] In this embodiment, the real-time execution strategy is the remote adjustment scheme that will ultimately be implemented on the integrated distribution box. It integrates all the adjusted and optimized remote adjustment sub-strategies to ensure that these strategies can adapt to the current operating and environmental conditions, effectively achieve the remote adjustment goals, and thus scientifically and rationally adjust the operating parameters of the integrated distribution box to ensure its stable and efficient operation.

[0060] The beneficial effects of the above technology are as follows: Based on the real-time operation data and real-time environmental data of the integrated distribution box, the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy is calculated, the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy is determined, and the real-time execution strategy of the integrated distribution box is determined. This can ensure that the remote adjustment strategy is adapted to the actual condition of the equipment, improve the rationality and effectiveness of the strategy, reduce the risks caused by blind adjustment, and ensure the stability and optimization of the operation of the integrated distribution box.

[0061] Example 6: Based on Example 1, a method for managing integrated distribution boxes includes executing real-time instructions and strategies for the integrated distribution box, generating a management report for the integrated distribution box, and realizing real-time management of the integrated distribution box, including: The integrated distribution box executes each real-time remote control sub-instruction in the real-time execution command and obtains the execution result of each real-time remote control sub-instruction in real time; The integrated distribution box executes each adjustment and remote adjustment sub-strategy in the real-time execution strategy and obtains the strategy execution result of each adjustment and remote adjustment sub-strategy in real time; Based on the real-time execution instructions, the execution results of each real-time remote control sub-instruction within the real-time execution instructions, the real-time execution strategy, and the strategy execution results of each adjustment remote control sub-strategy within the real-time execution strategy, a comprehensive distribution box management report is generated.

[0062] In this embodiment, after receiving a real-time execution command, the integrated distribution box executes the real-time remote control sub-commands one by one. These sub-commands are specific operation commands that have been verified and determined to be executable, such as closing or opening a circuit, or starting or stopping a protection device. During the execution of each real-time remote control sub-command, the integrated distribution box monitors the progress and results of the operation in real time, that is, it obtains the command execution results. The command execution results may include whether the operation was successfully completed, such as whether the circuit was successfully energized during the closing operation; the status changes of related equipment or circuits after the operation, such as whether the current in the circuit becomes zero after the opening operation; and whether any abnormal situations occurred during the operation, such as operation timeout or equipment unresponsiveness. By obtaining these results in real time, the actual execution status of each remote control sub-command can be grasped in a timely manner, and it can be determined whether the operation has achieved the expected remote control objective.

[0063] In this embodiment, the integrated distribution box also executes each adjustment sub-strategy in the real-time execution strategy. These adjustment sub-strategies are parameter adjustment schemes determined after verification and optimization, such as adjusting the voltage setpoint of a certain circuit or modifying the action threshold of a certain protection device. When executing each adjustment sub-strategy, the strategy execution results are also acquired in real time. The strategy execution results mainly reflect the effect after parameter adjustment, such as whether the actual measured voltage stabilizes within the new set range after the voltage setpoint is adjusted; and whether the protection device's response to abnormal situations is more sensitive or accurate after the action threshold is modified. Furthermore, it includes whether excessive parameter fluctuations or unstable equipment operation occur during the adjustment process. Real-time acquisition of strategy execution results helps evaluate the effectiveness of each adjustment sub-strategy and determine whether it has achieved the preset remote adjustment target.

[0064] In this embodiment, after completing the execution of all real-time remote control sub-commands and adjusting remote control sub-strategies, and obtaining the corresponding command execution results and strategy execution results, the integrated distribution box generates a management report based on this information. By systematically integrating this information into the management report, the overall situation of the integrated distribution box receiving and executing commands and strategies over a period of time can be comprehensively and clearly reflected. The beneficial effects of the above technology are: executing real-time commands and strategies of the integrated distribution box, generating integrated distribution box management reports, realizing real-time management of the integrated distribution box, intuitively presenting the implementation effects of commands and strategies, providing a basis for subsequent management decisions, improving the traceability and scientific nature of management, ensuring the controllability of the distribution box's operating status, and assisting in efficient operation and maintenance.

[0065] Example 7: This invention provides an integrated distribution box management system for executing any one of the integrated distribution box management methods in Examples 1 to 6, referencing... Figure 2 ,include: Data Acquisition Module: Acquires basic power distribution data of the integrated power distribution box, collects real-time operating data and real-time environmental data of the integrated power distribution box, and receives real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box; Remote control module: Based on the real-time operation data and real-time environmental data of the integrated power distribution box, it verifies each real-time remote control sub-command in the received real-time remote control command, and determines the real-time execution command of the integrated power distribution box based on the verification results; Remote adjustment module: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. Management module: Executes real-time commands and strategies of the integrated power distribution box to achieve real-time management of the integrated power distribution box.

[0066] The beneficial effects of the above technology are as follows: By verifying each real-time remote control sub-command in the received real-time remote control commands using real-time operating data and real-time environmental data from the integrated power distribution box, the real-time execution command is determined and executed. Furthermore, by calculating the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy using the integrated power distribution box's real-time operating data and real-time environmental data, the adjustment sub-strategy for each real-time remote adjustment sub-strategy is determined, and the real-time execution strategy of the integrated power distribution box is determined and executed, thus achieving real-time management of the integrated power distribution box. This enables precise and real-time management of the integrated power distribution box, ensuring that it is always in optimal operating condition, improving the reliability and stability of the power distribution box operation, reducing the probability of failure, effectively reducing energy consumption, improving energy utilization efficiency, and enhancing the management level and operation and maintenance efficiency of the integrated power distribution box.

[0067] Example 8: This invention provides an integrated power distribution box management device. Including memory and processor: The memory is used to store executable instructions; The processor is configured to read the executable instructions from the memory and execute the executable instructions to implement any one of the integrated distribution box management methods of claims 1 to 6.

[0068] The beneficial effects of the above technology are as follows: By verifying each real-time remote control sub-command in the received real-time remote control commands using real-time operating data and real-time environmental data from the integrated power distribution box, the real-time execution command is determined and executed. Furthermore, by calculating the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy using the integrated power distribution box's real-time operating data and real-time environmental data, the adjustment sub-strategy for each real-time remote adjustment sub-strategy is determined, and the real-time execution strategy of the integrated power distribution box is determined and executed, thus achieving real-time management of the integrated power distribution box. This enables precise and real-time management of the integrated power distribution box, ensuring that it is always in optimal operating condition, improving the reliability and stability of the power distribution box operation, reducing the probability of failure, effectively reducing energy consumption, improving energy utilization efficiency, and enhancing the management level and operation and maintenance efficiency of the integrated power distribution box.

[0069] Obviously, those skilled in the art can make various modifications and variations to this invention without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of the claims of this invention and their equivalents, this invention also intends to include these modifications and variations.

Claims

1. A method for managing integrated distribution boxes, characterized in that, include: S1: Acquire basic power distribution data of the integrated power distribution box, collect real-time operation data and real-time environmental data of the integrated power distribution box, and receive real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box. S2: Verify each real-time remote control sub-instruction in the received real-time remote control command based on the real-time operation data and real-time environmental data of the integrated power distribution box, and determine the real-time execution command of the integrated power distribution box based on the verification results. S3: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. S4: Executes real-time commands and strategies for the integrated distribution box, generates an integrated distribution box management report, and realizes real-time management of the integrated distribution box.

2. The integrated distribution box management method according to claim 1, characterized in that, Basic power distribution data includes the installation location of the integrated distribution box, the power distribution scenario, the equipment model, the equipment structure, the equipment configuration data, and the electrical rating data. Among them, the equipment configuration data includes configuration sub-data for multiple configurations, and the electrical rating data includes rating sub-data for multiple electrical parameters.

3. The integrated distribution box management method according to claim 2, characterized in that, Collects real-time operating data and real-time environmental data from the integrated power distribution box, and receives real-time remote control commands and real-time remote adjustment strategies from the integrated power distribution box, including: The first sensor group based on the integrated power distribution box collects the real-time operating data of the integrated power distribution box. The real-time operating data includes multiple operating parameters and the operating value of each operating parameter. The second sensor group based on the integrated power distribution box collects real-time environmental data inside the integrated power distribution box. The real-time environmental data inside the box includes multiple environmental parameters inside the box and the monitored value of each environmental parameter inside the box. Based on the equipment installation location in the basic power distribution data of the integrated power distribution box and the real-time external environmental data of the integrated power distribution box obtained by the third sensor group, the real-time external environmental data includes multiple external environmental parameters and the external monitoring value of each external environmental parameter. Based on real-time internal and external environmental data of the distribution box, the real-time environmental data of the integrated distribution box is determined. The integrated distribution box receives real-time remote control commands and real-time remote adjustment strategies based on the equipment power distribution scenario in the basic power distribution data. The real-time remote control commands include multiple real-time remote control sub-commands, and the real-time remote adjustment strategies include multiple real-time remote adjustment sub-strategies.

4. The integrated distribution box management method according to claim 3, characterized in that, Based on the real-time operating data and real-time environmental data of the integrated power distribution box, each real-time remote control sub-command in the received real-time remote control command is verified. Based on the verification results, the real-time execution command of the integrated power distribution box is determined, including: Based on each real-time remote control sub-instruction in the real-time remote control command, determine the remote control target and the controlled object of each real-time remote control sub-instruction; Based on the real-time operation data of the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of remote control operation parameters for each real-time remote control sub-command is determined. Based on the real-time environmental data inside the integrated distribution box and the remote control target and control object of each real-time remote control sub-command, the set of environmental parameters inside the remote control box for each real-time remote control sub-command is determined. Based on the operating values ​​of all operating parameters in the remote operation parameter set of each real-time remote control sub-instruction in the real-time remote control command, and the monitoring values ​​of all in-box environmental parameters in the in-box environmental parameter set of the remote control box, the command verification is performed on each real-time remote control sub-instruction. Based on the verification results, the management tag of each real-time remote control sub-instruction is determined. The management tag includes the execution command and the rejection command. Based on all real-time remote control sub-commands with management tags as execution commands, determine the real-time execution command of the integrated distribution box.

5. The integrated distribution box management method according to claim 3, characterized in that, Based on the real-time operating data and real-time environmental data of the integrated distribution box, the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy is calculated. The adjustment sub-strategy for each real-time remote adjustment sub-strategy is determined, and the real-time execution strategy of the integrated distribution box is determined, including: Based on each real-time telemetry sub-strategy in the real-time telemetry strategy, determine the telemetry target and adjustment object of each real-time telemetry sub-strategy; Based on the electrical rated data in the basic power distribution data, the real-time operation data of the integrated distribution box, and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy and the ideal value of the remote adjustment strategy for each operation parameter in the remote adjustment operation parameter set are determined. Based on the real-time environmental data inside the integrated distribution box and the remote adjustment target and adjustment object of each real-time remote adjustment sub-strategy, the set of environmental parameters inside the remote adjustment box for each real-time remote adjustment sub-strategy is determined. The set of external environmental parameters is determined based on all external environmental parameters in the real-time external environmental data of the integrated distribution box; Based on the operating values ​​of all operating parameters in the remote adjustment operation parameter set of each real-time remote adjustment sub-strategy in the real-time remote adjustment strategy, the monitoring values ​​of all internal environmental parameters in the internal environmental parameter set of the remote control box, and the external environmental parameter set, strategy verification is performed on each real-time remote adjustment sub-strategy, and the verification score of each real-time remote adjustment sub-strategy is calculated. The verification score and preset score of each real-time remote adjustment sub-strategy are compared. If the verification score is less than or equal to the preset score, the real-time remote adjustment sub-strategy is determined to be an adjustment sub-strategy. If the verification score is greater than the preset score, the ideal value of the adjustment strategy for each operating parameter in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy is calculated based on the verification score of the real-time remote adjustment sub-strategy, the operating values ​​of all operating parameters in the remote adjustment operating parameter set, the monitoring values ​​of all internal environmental parameters in the remote control box internal environmental parameter set, and the external environmental parameter set. The adjustment sub-strategy is then determined based on the ideal value of the adjustment strategy for all operating parameters in the remote adjustment operating parameter set of the real-time remote adjustment sub-strategy. Based on the adjustment of all real-time remote adjustment sub-strategies in the real-time remote adjustment strategy, the real-time execution strategy of the integrated distribution box is determined.

6. The integrated distribution box management method according to claim 1, characterized in that, Execute real-time commands and strategies for the integrated power distribution box, generate integrated power distribution box management reports, and achieve real-time management of the integrated power distribution box, including: The integrated distribution box executes each real-time remote control sub-instruction in the real-time execution command and obtains the execution result of each real-time remote control sub-instruction in real time; The integrated distribution box executes each adjustment and remote adjustment sub-strategy in the real-time execution strategy and obtains the strategy execution result of each adjustment and remote adjustment sub-strategy in real time; Based on the real-time execution instructions, the execution results of each real-time remote control sub-instruction within the real-time execution instructions, the real-time execution strategy, and the strategy execution results of each adjustment remote control sub-strategy within the real-time execution strategy, a comprehensive distribution box management report is generated.

7. A comprehensive distribution box management system, characterized in that, A method for implementing any one of the integrated distribution box management methods according to claims 1 to 6 includes: Data Acquisition Module: Acquires basic power distribution data of the integrated power distribution box, collects real-time operating data and real-time environmental data of the integrated power distribution box, and receives real-time remote control commands and real-time remote adjustment strategies of the integrated power distribution box; Remote control module: Based on the real-time operation data and real-time environmental data of the integrated power distribution box, it verifies each real-time remote control sub-command in the received real-time remote control command, and determines the real-time execution command of the integrated power distribution box based on the verification results; Remote adjustment module: Based on the real-time operation data and real-time environmental data of the integrated distribution box, calculate the verification score of each real-time remote adjustment sub-strategy in the received real-time remote adjustment strategy, determine the adjustment remote adjustment sub-strategy of each real-time remote adjustment sub-strategy, and determine the real-time execution strategy of the integrated distribution box. Management module: Executes real-time commands and strategies of the integrated power distribution box to achieve real-time management of the integrated power distribution box.

8. A comprehensive power distribution box management device, characterized in that, Including memory and processor: The memory is used to store executable instructions; The processor is configured to read the executable instructions from the memory and execute the executable instructions to implement any one of the integrated distribution box management methods of claims 1 to 6.

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