Power protection command and dispatch system and method

Abstract

Disclosed in the present invention are a power protection command and dispatch system and method. The system comprises a monitoring video module, an online monitoring module, a task inspection module, a schedule information module and a task assignment module, wherein the schedule information module calculates a power protection importance coefficient on the basis of a danger coefficient, a personnel quantity coefficient and a public opinion attention coefficient of an event; the task assignment module calculates a task risk coefficient of a power protection task on the basis of the task importance level and task difficulty of the power protection task and a power protection importance coefficient of a target event; matrix matching values of power protection teams are calculated on the basis of an executor matrix; the degrees of matching between the power protection teams and the power protection task are calculated on the basis of the task risk coefficient of the power protection task and the matrix matching values; and the power protection task is assigned to a power protection team having the highest degree of matching, so as to execute the power protection task. In the present invention, a task risk is determined on the basis of the nature of an event itself and the importance and difficulty of a power protection task, and the power protection task is assigned to an appropriate power protection team, so as to execute the power protection task, thereby significantly improving the emergency command efficiency.

Description

Power supply command and dispatch system and method Technical Field

[0001] The present invention relates to the technical field of power systems, and in particular to a power supply command and dispatch system and method. Background Art

[0002] In recent years, more and more large-scale events have been held in major cities across my country. Hosting these large-scale events requires more scientific and stringent requirements for power supply security. How to ensure that large-scale events avoid large-scale power outages caused by meteorological and geographical disasters, external forces, etc. has become a topic that must be completed for every power supply task.

[0003] The traditional power supply guarantee model uses a flat management model to control power supply equipment and resources, and assigns personnel to perform power supply tasks based on human management experience. This method makes it difficult to effectively arrange personnel to perform power supply tasks in response to faults, and emergency command is inefficient and difficult.

[0004] Summary of the Invention

[0005] Based on this, the present invention provides a power supply command and dispatch system and method, which can determine the task risk according to the nature of the event itself, the importance and difficulty of the power supply task, and combine the comprehensive quality of the power supply team to assign a suitable power supply team to perform the power supply task, thereby significantly improving the efficiency of emergency command.

[0006] To achieve the above-mentioned object, an embodiment of the present invention provides a power supply command and dispatch system, comprising a monitoring terminal and a command and dispatch terminal; the monitoring terminal comprises at least a monitoring video module, an online monitoring module, and a task inspection module; the command and dispatch terminal comprises at least a schedule information module and a task allocation module;

[0007] The schedule information module is used to calculate the importance coefficient of power supply for the event based on the event's risk coefficient, the number of personnel coefficient, and the public opinion attention coefficient; wherein the importance coefficient of power supply is positively correlated with the risk coefficient, the number of personnel coefficient, and the public opinion attention coefficient respectively;

[0008] The task allocation module includes a task risk calculation unit, a team matching value calculation unit and a task allocation unit;

[0009] The task risk calculation unit is configured to calculate a task risk coefficient of the power supply task based on the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event; wherein the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient, respectively;

[0010] The team matching value calculation unit is used to:

[0011] Obtain all power supply teams within a preset power supply range; wherein each power supply team includes at least one power supply personnel;

[0012] Obtain the location information, current work status, acceptance level for temporary emergency tasks, and length of service of the power supply personnel to construct an executor matrix;

[0013] Calculate the matrix matching value of each power supply team according to the executor matrix;

[0014] The task allocation unit is used to allocate a power supply protection team for the power supply protection task, including:

[0015] Calculating the degree of matching between each power supply team and the power supply task according to the task risk coefficient of the power supply task and the matrix matching value;

[0016] The power supply protection team with the highest matching degree is assigned to the power supply protection task to perform the power supply protection task.

[0017] As an improvement to the above solution, the monitoring video module is used to access substation videos, transmission line videos, distribution room videos, and mission site control ball videos, and select target videos for playback according to preset carousel rules or in response to user operations;

[0018] The online monitoring module is used to scroll and display the transmission line alarm data, substation alarm data and distribution room alarm data in the set layer window of the front-end interface of the system; the set layer window is a semi-transparent window;

[0019] The task inspection module is used to scroll and display the acquired task inspection information on the front-end interface; wherein, the task inspection information at least includes the task name, inspection object, inspection team, contact information, task creation time, task processing status and task details.

[0020] As an improvement to the above solution, the schedule information module, before calculating the power supply importance coefficient of the event based on the event's risk coefficient, the number of participants coefficient, and the public opinion attention coefficient, is specifically used to:

[0021] Determining a risk estimation coefficient for each match according to the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; and adding the risk estimation coefficients of all matches of the match to obtain the risk coefficient of the match;

[0022] Determine the number of participants for each match according to the number of participants in each match of the match; wherein the larger the number of participants, the larger the number of participants in the corresponding match; and add the number of participants for all matches of the match to obtain the number of participants for the match;

[0023] The public opinion attention coefficient of each match of the event is determined according to the public opinion attention of each match of the event; wherein, the larger the public opinion relationship coefficient is, the higher the corresponding public opinion attention is; the public opinion attention coefficients of all matches of the event are added together to obtain the public opinion attention coefficient of the event.

[0024] As an improvement to the above solution, the task risk calculation unit is specifically configured to:

[0025] Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and the power supply coefficient of the target branch library are positively correlated;

[0026] Determining a range coefficient of the target branch library according to the range of the power supply lines involved in the target branch library, and adding the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the power supply line range is positively correlated with the range coefficient;

[0027] Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branch libraries to obtain the task density coefficient of the target venue;

[0028] The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue, and the task density coefficient of the target venue and dividing the sum by three;

[0029] The task difficulty of the target branch library is determined according to the number of personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the number of personnel and vehicles supporting the target branch library is positively correlated with the task difficulty;

[0030] The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

[0031] As an improvement to the above solution, the location information, current working status, acceptance level for temporary emergency tasks and length of service of the power supply personnel are obtained to construct an executor matrix, specifically including:

[0032] Obtaining the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply site, and determining a first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time;

[0033] Determining a second matrix score according to the current working status of the power protection personnel; wherein the current working status includes a task-performing state and a task-not-performing state, and the second matrix score of the task-performing state is less than the second matrix score of the task-not-performing state;

[0034] Determining a third matrix score according to the power protection personnel's acceptance of the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score;

[0035] Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service;

[0036] An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power protection personnel.

[0037] As an improvement to the above solution, the task allocation unit is further configured to:

[0038] When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is the dispatch time or the deadline, and the earlier the task time is, the lower the first score is;

[0039] For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks, and patrol tasks, the second score of the emergency repair task is smaller than the second score of the on-duty task, and the second score of the on-duty task is smaller than the second score of the patrol task;

[0040] For each of the power protection tasks, determining a third score according to the number of faulty devices in the power protection task;

[0041] Calculate the total score of all power supply tasks according to the first score, the second score and the third score;

[0042] All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

[0043] As an improvement to the above solution, the task allocation unit is further configured to:

[0044] When there are multiple power supply tasks in the task pool, a power supply team is assigned to each power supply task in descending order of priority; wherein each power supply task corresponds to an assigned power supply team one by one.

[0045] As an improvement to the above solution, the system adopts a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

[0046] As an improvement to the above solution, the status register of the system is a static random access memory, and the number of the status registers is flexibly configured by software programming of the heterogeneous multi-core processor.

[0047] As an improvement to the above solution, the heterogeneous multi-core processor integrates multiple processors, and configures a resource domain identifier for each of the processors, bus host, peripheral device and memory area, packages the monitored bus signal and restricts access, controls the processor and starts from the main controller to the corresponding peripheral devices and memory areas.

[0048] As an improvement to the above solution, the power supply command and dispatch system further includes:

[0049] The bullet screen alarm module is used to scroll and play the obtained alarm information on the homepage of the front-end interface in the form of a pop-up window;

[0050] The alarm push module is used to identify abnormal devices based on online monitoring data, generate abnormal prompt information and perform voice broadcast.

[0051] As an improvement to the above solution, the power supply command and dispatch system further includes:

[0052] A task pattern generation module is used to determine a target treatment plan according to the power supply task based on the preset correspondence between tasks and treatment plans; and to generate a task order according to the target treatment plan and the assigned power supply team;

[0053] A task dispatching module, configured to dispatch tasks according to the task list in response to a task dispatching instruction from a task initiator;

[0054] The task feedback module is used to feed back the acquired feedback information of the power conservation task to the task initiator in response to a task feedback instruction.

[0055] As an improvement to the above solution, the task dispatching module must follow the following principles when dispatching tasks:

[0056] The task initiator can issue the power supply task to all relevant subordinate organizations in the command system;

[0057] The organization that receives the power supply maintenance task can transfer the task to its subordinates.

[0058] As an improvement to the above solution, the power supply command and dispatch system includes an assisting dispatch module for:

[0059] When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface;

[0060] After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and a voice prompt will be given to ask whether to assign the task;

[0061] In response to the task assignment instruction input by the user's voice, assign tasks according to the power supply task list and the corresponding power supply teams;

[0062] In response to the task non-assignment instruction input by the user's voice, the temporary power supply task list and the corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

[0063] As an improvement to the above solution, the power supply command and dispatch system includes an execution result feedback module for:

[0064] In response to a query instruction input by voice, information to be displayed associated with the query instruction is retrieved based on a geographic information system and a power grid map for display.

[0065] As an improvement to the above solution, the execution result feedback module is specifically used to:

[0066] In response to the voice input command "Generate a superior power supply tracing map for the Olympic Sports Center Stadium," a power supply path is generated on the geographic information interface, starting from the Olympic Sports Center and moving upwards in accordance with the principle of dynamically tracing the power supply path from low to high voltage levels. Based on this power supply path, a power grid map is traced back to the user as the starting point to determine the tracing route and direction.

[0067] In response to the voice input command "What is the operating status of the relevant lines?", the power supply briefing information is retrieved; based on the geographic information system and the power grid map, the power supply inspection briefing of the relevant lines is generated according to the power supply briefing information and voice broadcasted;

[0068] In response to the voice input command "Please retrieve the first volume of line A", the system automatically retrieves the first volume of line A and briefly broadcasts the synopsis;

[0069] In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the digital twin perspective of substation B, and the automatic inspection of the substation is completed;

[0070] In response to the voice-input "Automatic Negative Feedback Adjustment Behavior Immersive Security Mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task assignment or on-site interaction.

[0071] As an improvement to the above solution, the execution result feedback module is further used to:

[0072] In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice;

[0073] After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment;

[0074] According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity are adjusted.

[0075] In order to solve the same technical solution, an embodiment of the present invention further provides a power supply command and dispatch method adapted to the above-mentioned power supply command and dispatch system, comprising:

[0076] Calculating the importance coefficient of power supply for the event based on the event's risk coefficient, number of participants coefficient, and public opinion attention coefficient; wherein the importance coefficient of power supply is positively correlated with the risk coefficient, the number of participants coefficient, and the public opinion attention coefficient, respectively;

[0077] Calculating a task risk coefficient of the power supply task based on the task importance level and task difficulty of the power supply task, and the power supply importance coefficient of the target event; wherein the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient, respectively;

[0078] Obtain all power supply teams within a preset power supply range; wherein each power supply team includes at least one power supply personnel;

[0079] Obtain the location information, current work status, acceptance level for temporary emergency tasks, and length of service of the power supply personnel to construct an executor matrix;

[0080] Calculate the matrix matching value of each power supply team according to the executor matrix;

[0081] Calculating the degree of matching between each power supply team and the power supply task according to the task risk coefficient of the power supply task and the matrix matching value;

[0082] The power supply protection team with the highest matching degree is assigned to the power supply protection task to perform the power supply protection task.

[0083] As an improvement to the above solution, the schedule information module, before calculating the power supply importance coefficient of the event based on the event's risk coefficient, the number of participants coefficient, and the public opinion attention coefficient, further comprises:

[0084] Determining a risk estimation coefficient for each match according to the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; and adding the risk estimation coefficients of all matches of the match to obtain the risk coefficient of the match;

[0085] Determine the number of participants for each match according to the number of participants in each match of the match; wherein the larger the number of participants, the larger the number of participants in the corresponding match; and add the number of participants for all matches of the match to obtain the number of participants for the match;

[0086] The public opinion attention coefficient of each match of the event is determined according to the public opinion attention of each match of the event; wherein, the larger the public opinion relationship coefficient is, the higher the corresponding public opinion attention is; the public opinion attention coefficients of all matches of the event are added together to obtain the public opinion attention coefficient of the event.

[0087] As an improvement to the above solution, the task risk coefficient of the power supply task is calculated based on the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event, including:

[0088] Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and the power supply coefficient of the target branch library are positively correlated;

[0089] Determining a range coefficient of the target branch library according to the range of the power supply lines involved in the target branch library, and adding the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the power supply line range is positively correlated with the range coefficient;

[0090] Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branch libraries to obtain the task density coefficient of the target venue;

[0091] The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue, and the task density coefficient of the target venue and dividing the sum by three;

[0092] The task difficulty of the target branch library is determined according to the number of personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the number of personnel and vehicles supporting the target branch library is positively correlated with the task difficulty;

[0093] The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

[0094] As an improvement to the above solution, the location information, current working status, acceptance level for temporary emergency tasks and length of service of the power supply personnel are obtained to construct an executor matrix, specifically including:

[0095] Obtaining the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply site, and determining a first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time;

[0096] Determining a second matrix score according to the current working status of the power protection personnel; wherein the current working status includes a task-performing state and a task-not-performing state, and the second matrix score of the task-performing state is less than the second matrix score of the task-not-performing state;

[0097] Determining a third matrix score according to the power protection personnel's acceptance of the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score;

[0098] Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service;

[0099] An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power protection personnel.

[0100] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0101] When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is the dispatch time or the deadline, and the earlier the task time is, the lower the first score is;

[0102] For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks, and patrol tasks, the second score of the emergency repair task is smaller than the second score of the on-duty task, and the second score of the on-duty task is smaller than the second score of the patrol task;

[0103] For each of the power protection tasks, determining a third score according to the number of faulty devices in the power protection task;

[0104] Calculate the total score of all power supply tasks according to the first score, the second score and the third score;

[0105] All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

[0106] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0107] When there are multiple power supply tasks in the task pool, a power supply team is assigned to each power supply task in descending order of priority; wherein each power supply task corresponds to an assigned power supply team one by one.

[0108] As an improvement to the above solution, the system adopts a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

[0109] As an improvement to the above solution, the status register of the system is a static random access memory, and the number of the status registers is flexibly configured by software programming of the processor.

[0110] As an improvement to the above solution, the heterogeneous multi-core processor integrates multiple processors, and configures a resource domain identifier for each of the processors, bus host, peripheral device and memory area, packages the monitored bus signal and restricts access, controls the processor and starts from the main controller to the corresponding peripheral devices and memory areas.

[0111] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0112] The obtained alarm information is scrolled and played on the home page of the front-end interface in the form of a pop-up window;

[0113] Identify abnormal devices based on online monitoring data, generate abnormal prompt information and make voice broadcasts.

[0114] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0115] Based on the preset correspondence between tasks and treatment plans, a target treatment plan is determined according to the power supply task; a task order is generated according to the target treatment plan and the assigned power supply team;

[0116] In response to a task distribution instruction from a task initiator, dispatch tasks according to the task list;

[0117] In response to a task feedback instruction, the acquired feedback information of the power conservation task is fed back to the task initiator.

[0118] As an improvement to the above solution, the following principles should be followed when dispatching tasks:

[0119] The task initiator can issue the power supply task to all relevant subordinate organizations in the command system;

[0120] The organization that receives the power supply maintenance task can transfer the task to its subordinates.

[0121] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0122] When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface;

[0123] After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and a voice prompt will be given to ask whether to assign the task;

[0124] In response to the task assignment instruction input by the user's voice, assign tasks according to the power supply task list and the corresponding power supply teams;

[0125] In response to the task non-assignment instruction input by the user's voice, the temporary power supply task list and the corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

[0126] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0127] In response to a query instruction input by voice, information to be displayed associated with the query instruction is retrieved based on a geographic information system and a power grid map for display.

[0128] As an improvement to the above solution, in response to a voice-input query instruction, based on a geographic information system and a power grid map, information to be displayed associated with the query instruction is retrieved and displayed, including:

[0129] In response to the voice input command "Generate a superior power supply tracing map for the Olympic Sports Center Stadium," a power supply path is generated on the geographic information interface, starting from the Olympic Sports Center and moving upwards in accordance with the principle of dynamically tracing the power supply path from low to high voltage levels. Based on this power supply path, a power grid map is traced back to the user as the starting point to determine the tracing route and direction.

[0130] In response to the voice input command "What is the operating status of the relevant lines?", the power supply briefing information is retrieved; based on the geographic information system and the power grid map, the power supply inspection briefing of the relevant lines is generated according to the power supply briefing information and voice broadcasted;

[0131] In response to the voice input command "Please retrieve the first volume of line A", the system automatically retrieves the first volume of line A and briefly broadcasts the synopsis;

[0132] In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the digital twin perspective of substation B, and the automatic inspection of the substation is completed;

[0133] In response to the voice-input "Automatic Negative Feedback Adjustment Behavior Immersive Security Mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task assignment or on-site interaction.

[0134] As an improvement to the above solution, the power supply command and dispatch method further includes:

[0135] In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice;

[0136] After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment;

[0137] According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity are adjusted.

[0138] Compared with the prior art, the power supply command and dispatch system and method disclosed in the embodiment of the present invention include: a monitoring video module for selecting target videos for playback according to preset carousel rules or by responding to user operations by accessing substation videos, transmission line videos, distribution room videos and task site control ball videos; an online monitoring module for scrolling and displaying transmission line alarm data, substation alarm data and distribution room alarm data in a set layer window of the system's front-end interface; the set layer window is a semi-transparent window; a task inspection module for scrolling and displaying the acquired task inspection information in the front-end interface; wherein the task inspection information at least includes task name, inspection object, inspection team, etc. , contact information, task creation time, task processing status and task details; schedule information module, used to: determine the risk estimation coefficient of each game according to the risk level of each game; wherein, the risk level is positively correlated with the risk estimation coefficient; add up the risk estimation coefficients of all games of the game to obtain the risk coefficient of the game; determine the personnel quantity coefficient of each game according to the number of people in each game of the game; wherein, the larger the number of people coefficient, the more people in the corresponding game; add up the number coefficients of all games of the game to obtain the personnel quantity coefficient of the game; determine the public opinion attention coefficient of each game according to the public opinion attention of each game of the game number; wherein, the greater the public opinion relationship coefficient, the higher the corresponding public opinion attention; the public opinion attention coefficient of all matches of the event is added together to obtain the public opinion attention coefficient of the event; the power supply importance coefficient of the event is calculated based on the risk coefficient, the number of personnel coefficient and the public opinion attention coefficient; wherein, the power supply importance coefficient is positively correlated with the risk coefficient, the number of personnel coefficient and the public opinion attention coefficient respectively; a barrage alarm module is used to scroll the obtained alarm information on the homepage of the front-end interface in the form of a pop-up window; a task allocation module includes a task risk calculation unit, a team matching value calculation unit and a task allocation unit; the task risk calculation unit is used to calculate the power supply importance coefficient based on the risk coefficient, the number of personnel coefficient and the public opinion attention coefficient. The task risk coefficient of the power supply task is calculated according to the task importance level and task difficulty of the power supply task, and the power supply importance coefficient of the target event; wherein, the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient respectively; the team matching value calculation unit is used to: obtain all power supply teams within a preset power supply range; wherein, each of the power supply teams includes at least one power supply personnel; obtain the location information, current work status, acceptance degree for temporary emergency tasks and length of service of the power supply personnel for use in constructing an executor matrix; calculate the matrix matching value of each of the power supply teams according to the executor matrix;The task assignment unit is configured to assign power supply teams to the power supply task, including: calculating the degree of match between each power supply team and the power supply task based on the task risk coefficient of the power supply task and the matrix matching value; and assigning the power supply team with the highest degree of match to perform the power supply task. Thus, this embodiment of the present invention reduces the difficulty of emergency command and improves the efficiency of emergency command by determining the task risk based on the nature of the event, the importance and difficulty of the power supply task, and combining the comprehensive qualities of the power supply teams to assign appropriate power supply teams to the power supply task. BRIEF DESCRIPTION OF THE DRAWINGS

[0139] In order to more clearly illustrate the technical solution of the present invention, the following is a brief introduction to the drawings required for use in the implementation. Obviously, the drawings described below are only some implementation methods of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0140] FIG1 is a technical solution roadmap of a power supply strategy for a power supply command and dispatch system provided by one embodiment of the present invention;

[0141] FIG2 is a flow chart of a power supply command and dispatch method provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0142] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0143] An embodiment of the present invention provides a power supply command and dispatch system, comprising a monitoring terminal and a command and dispatch terminal; the monitoring terminal comprises at least a monitoring video module, an online monitoring module, and a task inspection module; the command and dispatch terminal comprises at least a schedule information module and a task allocation module;

[0144] The monitoring video module is used to access substation videos, transmission line videos, distribution room videos, and mission site control ball videos, and select target videos for playback according to preset carousel rules or in response to user operations;

[0145] The online monitoring module is used to scroll and display the transmission line monitoring data, substation monitoring data and distribution room monitoring data in the set layer window of the front-end interface of the system; the set layer window is a semi-transparent window;

[0146] The task inspection module is used to scroll and display the acquired task inspection information on the front-end interface; wherein the task inspection information at least includes the task name, inspection object, inspection team, contact information, task creation time, task processing status and task details;

[0147] Schedule information module, used for:

[0148] Determining a risk estimation coefficient for each match according to the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; and adding the risk estimation coefficients of all matches of the match to obtain the risk coefficient of the match;

[0149] Determine the number of participants for each match according to the number of participants in each match of the match; wherein the larger the number of participants, the larger the number of participants in the corresponding match; and add the number of participants for all matches of the match to obtain the number of participants for the match;

[0150] Determine the public opinion attention coefficient of each match according to the public opinion attention of each match of the event; wherein, the greater the public opinion relationship coefficient, the higher the corresponding public opinion attention; add the public opinion attention coefficients of all matches of the event to obtain the public opinion attention coefficient of the event;

[0151] Calculating the importance coefficient of power supply for the event based on the risk coefficient, the number of personnel coefficient, and the public opinion attention coefficient; wherein the importance coefficient of power supply is positively correlated with the risk coefficient, the number of personnel coefficient, and the public opinion attention coefficient, respectively;

[0152] The bullet screen alarm module is used to scroll and play the obtained alarm information on the homepage of the front-end interface in the form of a pop-up window;

[0153] Task allocation module, including task risk calculation unit, team matching value calculation unit and task allocation unit;

[0154] The task risk calculation unit is configured to calculate a task risk coefficient of the power supply task based on the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event; wherein the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient, respectively;

[0155] The team matching value calculation unit is used to:

[0156] Obtain all power supply teams within a preset power supply range; wherein each power supply team includes at least one power supply personnel;

[0157] Obtain the location information, current work status, acceptance level for temporary emergency tasks, and length of service of the power supply personnel to construct an executor matrix;

[0158] Calculate the matrix matching value of each power supply team according to the executor matrix;

[0159] The task allocation unit is used to allocate a power supply protection team for the power supply protection task, including:

[0160] Calculating the degree of matching between each power supply team and the power supply task according to the task risk coefficient of the power supply task and the matrix matching value;

[0161] The power supply protection team with the highest matching degree is assigned to the power supply protection task to perform the power supply protection task.

[0162] For example, referring to the technical solution roadmap of the power supply strategy of the power supply command and dispatch system shown in FIG1 , first, major event information is created and an intelligent task distribution algorithm is designed.

[0163] 1. Creation of major event information

[0164] The creation of major event information includes the creation of monitoring video modules, online monitoring modules, task inspection module, schedule information module, barrage alarm module and important alarm information barrage.

[0165] 1.1. Creation of surveillance video module

[0166] The system accesses substation videos, transmission line videos, distribution room videos, and mission site control ball videos. Each professional video point is equipped with video footage of important power supply locations for rotation, and it also supports clicking on a self-selected point to view video details.

[0167] 1.2. Online monitoring module creation

[0168] The system map front end (front-end interface) superimposes a translucent window in the form of a layer, scrolling to display the alarm data of professional online monitoring of transmission lines, substations, and distribution rooms, including statistical data, detailed data, and alarm data such as conductor wizards, ice monitoring, micro-meteorological monitoring, tower tilt monitoring, wind deviation monitoring, and image online monitoring.

[0169] 1.3. Creation of task inspection module

[0170] The system scrolls and displays the task inspection result information (task inspection information) entered on-site through the APP, including task name, task type, inspection type, inspection object, inspection team, team leader name, contact information, task creation time, task processing status, and task details (on-site photos and other materials).

[0171] 1.4. Creation of Schedule Importance Model (Schedule Information Module)

[0172] Event schedule information can be maintained and displayed through the mobile terminal, and can be connected to "Asian Games Online" to obtain real-time event schedule information. By maintaining "Asian Games Online", the system can initialize and obtain full event information; when the event schedule changes, relevant personnel will use the system to update in real time the event name, event risk factor, number of spectators, online ratings, associated venue ID and name, venue support team, team captain information, venue support mission information, etc.

[0173] The system estimates the importance of the event itself based on the risk of the event itself W(x), the number of people involved in the event coefficient P(x), and the public opinion broadcast coefficient S(x), to help determine the power supply importance coefficient Q(x) of the event.

[0174] (1) Determination of the risk factor of the event:

[0175] Determine the danger level of each match according to the standards in the table above, and thus determine the danger estimation coefficient of each match. The danger coefficient of the match is calculated as follows

[0176] Where W(x) represents the risk factor, n represents the total number of events, and W represents the risk estimation coefficient corresponding to a single event;

[0177] (2) Determination of the number of participants involved in the event (number of participants coefficient):

[0178] Among them, P(x) represents the number of personnel coefficient of the event, and P represents the number of personnel coefficient corresponding to a single event.

[0179] (3) Determination of the public attention coefficient of the event:

[0180] S(x) represents the public opinion attention coefficient of the event; S represents the public opinion attention coefficient of the corresponding single event;

[0181] (IV) Determine the power supply importance coefficient F(X):

[0182] 1.5. Important alarm information barrage (barrage alarm module)

[0183] For the Asian Games MOC (Main Operations Centre) information, important emergencies, various alarms, and accident tripping information, the system uses pop-up windows to scroll on the homepage, and users can click to view the details of important information.

[0184] 2. Intelligent task distribution algorithm

[0185] 2.1. Mission risk coefficient simulation (mission risk calculation unit)

[0186] The system determines the task risk coefficient of the power supply task according to the power supply importance coefficient of the event, the task importance level of the power supply task, and the task difficulty.

[0187] 2.2. Task Executor Matrix Matching (Team Matching Value Calculation Unit)

[0188] Retrieve data on all qualified professionals within the current system mission scope (preset power protection scope) who meet the requirements for on-site dispatch. Use mobile terminals to track personnel within the activity scope in real time, thereby obtaining the executor matrix and estimated arrival time.

[0189] (1) The system creates patrol points in the indoor environment and generates QR codes. At the same time, it establishes corresponding relationships with patrol professions. The system automatically determines what type of professional personnel are needed for the current power supply task;

[0190] (2) During the inspection process, the system automatically provides personnel file scanning function and records parameters such as personnel age, whether they have accepted emergency tasks, etc.

[0191] (3) When a patrol task is submitted, it will be confirmed whether the person is currently in the state of executing the task;

[0192] (4) The system calculates the matrix matching value of each team (power supply team) in the current optional task pool based on the matrix score, selects the task execution team according to the screening method from high to low matrix matching value, and executes the next task dispatch;

[0193] (5) The matrix matching value G(x) is the sum of the matrix scores corresponding to the current team. The matrix scores corresponding to each position information, current work status, acceptance of temporary emergency tasks, and length of service are shown in the following table.

[0194] 2.3 Task Distribution Algorithm

[0195] The system generates all the daily tasks of the power supply team according to demand. After confirmation by the commander, it is sent to the mobile APP of the captain of each power supply team. After the captain completes the task, he will feedback to the system and synchronize it to the system.

[0196] According to the event schedule, the system automatically generates attendance tasks for all customer-side teams and grid-side teams corresponding to the venue 2 hours before the start of the event. After confirmation by the commander, it is sent to the mobile APP of the captain of each power supply team. After the captain completes the attendance, it is fed back to the system and synchronized to the system.

[0197] The core of the task distribution algorithm includes:

[0198] Based on the ranking of risk factors, team matrix, and task distribution matching in their respective data, we determine whether the current team is the most suitable for the task. The assigned tasks should correspond to the teams one by one. The current power supply team can only take on the next task after completing the current task. Specifically, the matching degree A(x) of each team and the current corresponding task is: A(x)=R(x)*G(x)

[0199] For example, as shown in the table below, for a scenario where a single team corresponds to multiple tasks, the matching degree between the team and different tasks is calculated, and the result with the highest matching degree is selected to assign the most appropriate task to the team.

[0200] Taking team K as an example, G(1) in the above table represents the matrix matching value of team K for task 1, G(2) represents the matrix matching value of team K for task 2, G(3) represents the matrix matching value of team A for task 3, and G(N) represents the matrix matching value of team K for task N. If R(1)*G(1)<R(2)*G(2)<R(3)*G(3)<...<R(N)*G(N), it can be seen that the Nth matching solution is the optimal choice to solve the current problem. The system will automatically issue task N with a risk factor of R(N) to the power supply team involved in the matrix matching value of the Nth team.

[0201] In one embodiment, the task risk calculation unit is specifically configured to:

[0202] Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and the power supply coefficient of the target branch library are positively correlated;

[0203] Determining a range coefficient of the target branch library according to the range of the power supply lines involved in the target branch library, and adding the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the power supply line range is positively correlated with the range coefficient;

[0204] Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branch libraries to obtain the task density coefficient of the target venue;

[0205] The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue, and the task density coefficient of the target venue and dividing the sum by three;

[0206] The task difficulty of the target branch library is determined according to the number of personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the number of personnel and vehicles supporting the target branch library is positively correlated with the task difficulty;

[0207] The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

[0208] Exemplarily, the first step is to define the level Ln according to the power lines (there are 7 power protection levels, including special, special-related, first-level, first-level related, second-level, second-level related, and third-level, corresponding to each power protection user. At the same time, a highest power protection level is defined, that is, all users correspond to the highest level among the power protection levels, which is convenient for tracing users and activities according to equipment). The current substation involves 3 special-level lines and 2 first-level lines, so the current substation is a special-level substation. The current substation involves 3 special-level related lines and 2 first-level lines, so the current substation is a first-level substation. The current substation involves 3 first-level lines and 2 second-level lines, so the current substation is a first-level substation. (The important power supply substations and lines in the table below refer to all station and line nodes on the main supply line in the current power supply activity. If an accident occurs in the station and line, it will have a direct impact on the power supply activities at the power supply site. Therefore, they are defined as important power supply substations and lines. On this basis, important power supply substations and lines are further divided into special grade, special grade related, first grade, first grade related, second grade, second grade related, and third grade according to the power supply level)

[0209] Determine the user power supply level of each target branch according to the table above, find the corresponding coefficient, and add the power supply coefficients of each target branch to obtain the power supply coefficient of the target venue;

[0210] The second step is to determine the scope of power supply tasks (provincial, municipal, administrative district, venue and building level)

[0211] The range coefficient of the target branch is determined by the above table. For example, when the power supply protection activity of the target branch involves inter-provincial power supply lines, the corresponding coefficient is 4. The range coefficient of the target venue is obtained by adding up the range coefficients of all target branches.

[0212] The third step is to determine the density of power supply tasks (the density of tasks in different stages of peacetime and wartime, preparation for war, imminent war, and decisive battle)

[0213] Determine the task density coefficient of the target branch library using the above table, and add the task density coefficients of all the target branches to obtain the task density coefficient of the target venue;

[0214] Step 4: Determine the importance level of the power supply task I(X):

[0215] Among them, L(x) represents the power conservation coefficient of the target venue, T(x) represents the power conservation coefficient of the target venue, and P(x) represents the range coefficient of the target venue.

[0216] Step 5: Determine the difficulty of commanding the power supply task (task difficulty):

[0217] Determine the task difficulty of each target branch according to the table above, and add them up to get the task difficulty of the target venue:

[0218] Multiply the mission importance level, mission difficulty and power supply importance coefficient to get the mission risk coefficient: R(x)=Q(x)*I(x)*D(x)

[0219] In one embodiment, obtaining the location information, current working status, acceptance level of temporary emergency tasks, and length of service of the power supply personnel for constructing an executor matrix specifically includes:

[0220] Obtaining the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply site, and determining a first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time;

[0221] Determining a second matrix score according to the current working status of the power protection personnel; wherein the current working status includes a task-performing state and a task-not-performing state, and the second matrix score of the task-performing state is less than the second matrix score of the task-not-performing state;

[0222] Determining a third matrix score according to the power protection personnel's acceptance of the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score;

[0223] Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service;

[0224] An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power protection personnel.

[0225] In one embodiment, the task allocation unit is further configured to:

[0226] When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is the dispatch time or the deadline, and the earlier the task time is, the lower the first score is;

[0227] For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks, and patrol tasks, the second score of the emergency repair task is smaller than the second score of the on-duty task, and the second score of the on-duty task is smaller than the second score of the patrol task;

[0228] For each of the power protection tasks, determining a third score according to the number of faulty devices in the power protection task;

[0229] Calculate the total score of all power supply tasks according to the first score, the second score and the third score;

[0230] All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

[0231] For example, in "2.3 Task Distribution Algorithm", in addition to the core algorithm, it also includes:

[0232] 1. Power supply task distribution - intelligent power supply

[0233] The elements of the power supply task mainly include: power supply team, power supply target, power supply execution process, task execution results, and power supply task risks, among which:

[0234] 1. Power supply team: the specific executors of power supply tasks.

[0235] 2. Power supply target: the physical equipment that the power supply team must provide power to.

[0236] 3. Starting point: The point where the power supply target begins to perform the task, such as a parking spot or workstation.

[0237] 4. Task Execution Process: These are the key nodes required for a power supply maintenance task, rather than general execution nodes. The task execution process here often involves business-related nodes. For example, factors such as the number of guard posts within the power distribution room within the user venue, the number of guard posts, and the types of equipment involved will all influence the parameters of the task execution process.

[0238] 5. Task execution results: The results after the power supply task is finally completed, usually including parameters such as equipment status, number of inspections, and failure rate.

[0239] 6. Execution action: Task distribution action planned based on factors according to the risk of power supply task.

[0240] Each power supply task contains a power supply target. The power supply target starts from a starting point and can reach one or more task execution results through one or more task execution processes. For multi-node power supply tasks, the protection points are selected.

[0241] 2. System Level

[0242] The task allocation unit of the power supply task is divided into two layers: the upper layer business constraint definition and the lower layer core matching algorithm. The business constraint definition is as follows:

[0243] 1. Power supply task distribution - business constraints

[0244] Core influencing parameter: the degree of close connection between business and profession

[0245] Business constraints involve a large number of different scenarios and need to meet different business requirements, which is relatively complex.

[0246] For example, when tasks are assigned, the tasks to be done may be of different types. Some tasks are more urgent and have higher priority and need to be done first; some tasks have higher waiting costs, so a certain number of teams need to be reserved for them at all times to ensure that when such tasks are issued, personnel can be immediately assigned to ensure power supply; idle teams may have different professional types, and some professional teams can only perform specific types of tasks.

[0247] 2. Power supply task distribution - task constraints

[0248] Core influencing parameter: task priority

[0249] Different tasks have different priorities, which can be measured using the following indicators:

[0250] (1) Task dispatch / deadline: In the current non-empty task pool, different tasks have different dispatch times or deadlines. Generally speaking, the deadline is given priority, and the earlier the task, the higher the priority. When the deadline is unknown, the dispatch time is considered.

[0251] (2) Task type: Tasks are divided into types, including transmission, transformation, and distribution tasks.

[0252] Generally speaking, the priorities of different task types are emergency repair tasks > on-duty tasks > patrol tasks, and the order is mainly configured based on actual conditions.

[0253] (3) Queuing status: Taking the emergency repair task as an example, equipment failure may have occurred in multiple distribution rooms, and a higher priority needs to be given to the issuance of this distribution professional task. Therefore, the priority of the emergency repair task of the distribution room is higher than other inspection or on-duty tasks.

[0254] 3. Task Matching and Distribution Mechanism

[0255] For each task, a comprehensive score can be given based on its indicators to evaluate its priority; the lower the score, the higher the priority.

[0256] For individual indicators, each task's corresponding score is limited to a configurable range of 0 to 1. For example, if two tasks occur in the same period with scores of 0.5 and 0.8, respectively, the former task takes precedence over the latter. Prioritize it and assign it to teams with available time.

[0257] Task types are categorical indicators. For indicators of quantity (the number of tasks in the power distribution room queue) or time (the deadline of the task), they are sorted by value and then a score is fitted based on the order. For example, suppose the task set is A, B, C, D, and E, with a total of 5 tasks. Their deadlines are B, C, A, E, and D in ascending order. Then the scores of A, B, C, D, and E are:

[0258] D=1,

[0259] Similarly, the deadline will also affect the order of task distribution.

[0260] In one embodiment, the task allocation unit is further used to: when there are multiple power supply tasks in the task pool, allocate a power supply team to each power supply task in order of priority from high to low; wherein each power supply task corresponds one-to-one to the allocated power supply team.

[0261] In one embodiment, the system uses a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

[0262] It's understandable that, combined with the technical solution roadmap for the power supply strategy of the power supply command and dispatch system shown in Figure 1, this technology roadmap also includes the use of heterogeneous processors to enhance task allocation and processing efficiency. Heterogeneous multi-core processors include general-purpose main processors and accelerators. Heterogeneous multi-core processors can use different types of processor cores to complete different tasks. If the task has a high degree of parallelism, numerous streamlined accelerators are used to accelerate it. Otherwise, the powerful general-purpose main processor is used to run the task.

[0263] The heterogeneous multi-core processor integrates multiple processors and configures a resource domain identifier for each processor, bus host, peripheral device and memory area, packages the monitored bus signal and restricts access, controls the processor and starts from the main controller to the corresponding peripheral devices and memory areas.

[0264] In one embodiment, the system's status registers are static random access memory (SRAM), and the number of these status registers is flexibly configurable by software programming of the processor. Specifically, the control status registers can be implemented in SRAM (Static Random Access Memory), and their number can be flexibly configured by software programming of the Cortex-M33 or other processor core.

[0265] In one embodiment, it further includes:

[0266] The alarm push module is used to identify abnormal devices based on online monitoring data, generate abnormal prompt information and perform voice broadcast;

[0267] The task mode generation module is used to: determine the target treatment plan according to the power supply task based on the preset correspondence between the task and the treatment plan; generate a task order according to the target treatment plan and the assigned power supply team;

[0268] A task dispatching module, configured to respond to a task dispatching instruction from a task initiator and dispatch tasks according to the task list;

[0269] The task feedback module is used to feed back the acquired feedback information of the power conservation task to the task initiator in response to a task feedback instruction.

[0270] In one embodiment, the task dispatching module must follow the following principles when dispatching tasks:

[0271] The task initiator can issue the power supply task to all relevant subordinate organizations in the command system;

[0272] The organization that receives the power supply maintenance task can transfer the task to its subordinates.

[0273] Specifically, in conjunction with Figure 1, this technical route also includes task model creation, specifically including:

[0274] (1) Alarm push module: Based on the existing online monitoring data, when equipment abnormality or failure is detected, the information is broadcasted by voice;

[0275] (2) Task mode generation module: determines the power supply task based on the alarm content, matches the response plan, and automatically generates a task list (including alarm content, response measures, assigned battle zone, and assigned team);

[0276] (3) Task model transfer: The on-site command center can send the task to the theater, team command center, and team at the same time. The theater or team command center can transfer the task to other organizations or teams. Organizations at all levels can provide feedback to the task initiator based on the tasks received. The principles are as follows:

[0277] a. The mission initiator can issue missions to all relevant organizations (combat zones, team headquarters, and teams) in the command system;

[0278] b. The received organizational tasks can be transferred to lower levels (war zone, team headquarters, teams);

[0279] c. The received tasks are only fed back to the task initiator.

[0280] A voice interaction function is implemented for abnormal alarm information. Through voice command input, task orders related to abnormal faults can be dispatched. When a temporary power supply task is issued, the system searches for a support team and confirms the dispatch through voice interaction with the commander, ensuring that the task is issued in one interaction.

[0281] In one embodiment, the system further includes an order assistance module for:

[0282] When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface;

[0283] After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and a voice prompt will be given to ask whether to assign the task;

[0284] In response to the task assignment instruction input by the user's voice, the task is assigned according to the power supply task list and the corresponding power supply team;

[0285] In response to the task non-assignment instruction input by the user's voice, the temporary power supply task list and the corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

[0286] Specifically, combined with Figure 1, this technical route also includes intelligent task generation and dispatching, specifically including intelligent voice-assisted dispatching and task flow reporting.

[0287] 1. Intelligent voice assistance for dispatching orders

[0288] (1) When a temporary power supply task is created, the template task and recommended support personnel are automatically configured, and the "Temporary" label is displayed in the system simultaneously, and the "Task Automatic Configuration" progress bar is displayed.

[0289] (2) After the system is automatically configured, a list of configured power supply tasks and information about the recommended support team will pop up on the large screen. A voice inquiry will be sent to confirm that a temporary power supply task has been created and the recommended support team has been found. The question is whether to assign the power supply task.

[0290] (3) When the commander answers: yes / dispatched, etc., the information is sent back to the system, and the system automatically executes the task dispatching operation and displays information such as the person in charge of the power supply task; if the commander answers: manually dispatched later / not dispatched for the time being, etc., the task is not dispatched, and the system stays in the task configuration interface, and the configuration of tasks and personnel can continue.

[0291] 2. Task flow report

[0292] Streamline reporting is limited to headquarters at all levels reporting to the higher-level headquarters and cannot be reported across levels. Each team headquarters and theater headquarters will report zero reports, daily reports, dynamic information, etc. to the higher-level headquarters via PC or app every day.

[0293] In one embodiment, the system further includes an execution result feedback module for:

[0294] In response to a query instruction input by voice, information to be displayed associated with the query instruction is retrieved based on a geographic information system and a power grid map for display.

[0295] In one embodiment, the execution result feedback module is specifically configured to:

[0296] In response to the voice input command "Generate a superior power supply tracing map for the Olympic Sports Center Stadium," a power supply path is generated on the geographic information interface, starting from the Olympic Sports Center and moving upwards in accordance with the principle of dynamically tracing the power supply path from low to high voltage levels. Based on this power supply path, a power grid map is traced back to the user as the starting point to determine the tracing route and direction.

[0297] In response to the voice input command "What is the operating status of the relevant lines?", the power supply briefing information is retrieved; based on the geographic information system and the power grid map, the power supply inspection briefing of the relevant lines is generated according to the power supply briefing information and voice broadcasted;

[0298] In response to the voice input command "Please retrieve the first volume of line A", the system automatically retrieves the first volume of line A and briefly broadcasts the synopsis;

[0299] In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the substation digital twin perspective, and the automatic inspection of substation B is completed;

[0300] In response to the voice-input "Automatic Negative Feedback Adjustment Behavior Immersive Security Mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task assignment or on-site interaction.

[0301] In one embodiment, the execution result feedback module is further configured to:

[0302] In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice;

[0303] After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment;

[0304] According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity are adjusted.

[0305] For example, in conjunction with Figure 1, after the task is assigned, the execution results of the task are proofread, such as voice inquiries on whether the task has been assigned, the progress of task execution, etc., negative feedback adjustment is performed based on the task execution results, and the task execution results are archived. Specifically, based on the Zhejiang Electric Power GIS and the power grid map, the system switches to the result voice proofreading mode to improve the precision of power supply command and control and improve the display effect. This mode is based on the power grid map, and dynamically traces the power supply path from low to high according to the voltage level, displays the power supply data in a carousel, and AI inquires and prompts about the power supply business. More specifically, the system is responsible for the power grid map, superimposing the progress of the power supply negative feedback adjustment behavior task nodes, dynamically rotating power supply video images, online monitoring, inspection results, team trajectory and other data and voice broadcasting, splitting the negative feedback adjustment behavior tasks into various professional tasks and dispatching them to the on-site personnel APP end for on-site personnel to review.

[0306] (1) Negative feedback regulation behavior initiation:

[0307] a. Issue the command "Generate a superior power supply traceability map for the Olympic Sports Center Stadium" via voice. The system's geographic information interface generates a power supply path starting from the Olympic Sports Center and working upwards. Starting from the user, the system traces the power grid to a geographical map and selects the traceability route and direction.

[0308] b. Issue the command "What is the operating status of the relevant lines" through voice, and the system will call the system power supply briefing information, generate the relevant line power supply inspection briefing and broadcast it by voice;

[0309] c. Give the voice command "Please retrieve the first volume of line A". The system will automatically retrieve the first volume of line A and briefly broadcast the summary.

[0310] d. The voice command "Conduct digital twin inspection of substation B" is issued, and the screen switches to the substation digital twin perspective, and the inspection of substation B is completed through automatic inspection;

[0311] e. The automatic negative feedback adjustment behavior immersive protection mode can be turned on, and a power supply path can be selected for automatic inspection, voice introduction, pop-up display, task assignment and on-site interaction.

[0312] (2) Negative feedback adjustment behavior reminder: During the negative feedback adjustment behavior, AI will ask through the speaker whether the task has been issued as a work order, whether it is connected to the site, etc. It will broadcast once after completing a node review. After the overall completion, it will ask whether to perform negative feedback adjustment behavior on the untraceable line.

[0313] (3) Negative feedback regulation behavior configuration: You can set the task broadcast voice, task broadcast frequency, task granularity (comprehensive / fast / custom), etc.

[0314] Referring to the flowchart of the power supply command and dispatch method shown in FIG2 , an embodiment of the present invention provides a power supply command and dispatch method, including:

[0315] S1. Determining a risk estimation coefficient for each match based on the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; and summing the risk estimation coefficients of all matches of the match to obtain a risk coefficient for the match;

[0316] S2. Determine a personnel quantity coefficient for each match based on the number of participants in each match of the match; wherein a larger personnel quantity coefficient corresponds to a larger number of participants in the match; and add the number coefficients of all matches of the match to obtain the personnel quantity coefficient for the match;

[0317] S3. Determine a public opinion attention coefficient for each match of the event based on the public opinion attention of each match; wherein a larger public opinion relationship coefficient indicates a higher public opinion attention; and sum the public opinion attention coefficients of all matches of the event to obtain the public opinion attention coefficient for the event;

[0318] S4. Calculating a power supply importance coefficient for the event based on the risk factor, the number of personnel coefficient, and the public opinion attention coefficient; wherein the power supply importance coefficient is positively correlated with the risk factor, the number of personnel coefficient, and the public opinion attention coefficient, respectively;

[0319] S5. Calculating a task risk coefficient for the power supply task based on the task importance level and task difficulty of the power supply task, and the power supply importance coefficient of the target event; wherein the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient, respectively;

[0320] S6. Obtain all power supply teams within the preset power supply range; wherein each power supply team includes at least one power supply personnel;

[0321] S7. Obtain the location information, current work status, acceptance level for temporary emergency tasks, and length of service of the power supply personnel to construct an executor matrix;

[0322] S8. Calculate the matrix matching value of each power supply team according to the executor matrix;

[0323] S9. Calculating the degree of matching between each power supply team and the power supply task according to the task risk coefficient of the power supply task and the matrix matching value;

[0324] S10. Allocate the power supply protection team with the highest matching degree to the power supply protection task to perform the power supply protection task.

[0325] In one embodiment, the calculating of the task risk coefficient of the power supply task based on the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event includes:

[0326] Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and the power supply coefficient of the target branch library are positively correlated;

[0327] Determining a range coefficient of the target branch library according to the range of the power supply lines involved in the target branch library, and adding the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the power supply line range is positively correlated with the range coefficient;

[0328] Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branch libraries to obtain the task density coefficient of the target venue;

[0329] The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue, and the task density coefficient of the target venue and dividing the sum by three;

[0330] The task difficulty of the target branch library is determined according to the number of personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the number of personnel and vehicles supporting the target branch library is positively correlated with the task difficulty;

[0331] The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

[0332] In one embodiment, obtaining the location information, current working status, acceptance level of temporary emergency tasks, and length of service of the power supply personnel for constructing an executor matrix specifically includes:

[0333] Obtaining the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply site, and determining a first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time;

[0334] Determining a second matrix score according to the current working status of the power protection personnel; wherein the current working status includes a task-performing state and a task-not-performing state, and the second matrix score of the task-performing state is less than the second matrix score of the task-not-performing state;

[0335] Determining a third matrix score according to the power protection personnel's acceptance of the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score;

[0336] Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service;

[0337] An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power protection personnel.

[0338] In one embodiment, it further includes:

[0339] When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is the dispatch time or the deadline, and the earlier the task time is, the lower the first score is;

[0340] For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks, and patrol tasks, the second score of the emergency repair task is smaller than the second score of the on-duty task, and the second score of the on-duty task is smaller than the second score of the patrol task;

[0341] For each of the power protection tasks, determining a third score according to the number of faulty devices in the power protection task;

[0342] Calculate the total score of all power supply tasks according to the first score, the second score and the third score;

[0343] All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

[0344] In one embodiment, it further includes: when there are multiple power supply tasks in the task pool, a power supply team is assigned to each power supply task in order of priority from high to low; wherein each power supply task corresponds to the assigned power supply team one by one.

[0345] In one embodiment, the system uses a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

[0346] In one embodiment, the control status registers may be implemented in an SRAM, and the number of control status registers may be flexibly configured by software programming of the Cortex-M33 or other processor cores.

[0347] In one embodiment, it further includes:

[0348] Identify abnormal devices based on online monitoring data, generate abnormal prompt information and make voice announcements;

[0349] Based on the preset correspondence between tasks and treatment plans, a target treatment plan is determined according to the power supply task; a task order is generated according to the target treatment plan and the assigned power supply team;

[0350] In response to a task distribution instruction from a task initiator, dispatch tasks according to the task list;

[0351] In response to a task feedback instruction, the acquired feedback information of the power conservation task is fed back to the task initiator.

[0352] In one embodiment, the following principles must be followed when dispatching tasks:

[0353] The task initiator can issue the power supply task to all relevant subordinate organizations in the command system;

[0354] The organization that receives the power supply maintenance task can transfer the task to its subordinates.

[0355] In one embodiment, it further includes:

[0356] When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface;

[0357] After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and a voice prompt will be given to ask whether to assign the task;

[0358] In response to the task assignment instruction input by the user's voice, assign tasks according to the power supply task list and the corresponding power supply teams;

[0359] In response to the task non-assignment instruction input by the user's voice, the temporary power supply task list and the corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

[0360] In one embodiment, it further includes:

[0361] In response to a query instruction input by voice, information to be displayed associated with the query instruction is retrieved based on a geographic information system and a power grid map for display.

[0362] In one embodiment, in response to the voice input query instruction, based on the geographic information system and the power grid map, the information to be displayed associated with the query instruction is retrieved and displayed, including:

[0363] In response to the voice input command "Generate a superior power supply tracing map for the Olympic Sports Center Stadium," a power supply path is generated on the geographic information interface, starting from the Olympic Sports Center and moving upwards in accordance with the principle of dynamically tracing the power supply path from low to high voltage levels. Based on this power supply path, a power grid map is traced back to the user as the starting point to determine the tracing route and direction.

[0364] In response to the voice input command "What is the operating status of the relevant lines?", the power supply briefing information is retrieved; based on the geographic information system and the power grid map, the power supply inspection briefing of the relevant lines is generated according to the power supply briefing information and voice broadcasted;

[0365] In response to the voice input command "Please retrieve the first volume of line A", the system automatically retrieves the first volume of line A and briefly broadcasts the synopsis;

[0366] In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the digital twin perspective of substation B, and the automatic inspection of the substation is completed;

[0367] In response to the voice-input "Automatic Negative Feedback Adjustment Behavior Immersive Security Mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task assignment or on-site interaction.

[0368] In one embodiment, it further includes:

[0369] In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice;

[0370] After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment;

[0371] According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity are adjusted.

[0372] It is worth noting that the specific working process of the power supply command and dispatch method can refer to the working process of the power supply command and dispatch system described in the above embodiment, which will not be repeated here.

[0373] Compared with the prior art, the power supply command and dispatch system and method disclosed in the embodiment of the present invention include: determining a hazard estimation coefficient for each match according to the hazard level of each match; wherein the hazard level is positively correlated with the hazard estimation coefficient; adding the hazard estimation coefficients of all matches of the match to obtain the hazard coefficient of the match; determining a personnel quantity coefficient for each match according to the number of people participating in the match; wherein the larger the personnel quantity coefficient, the larger the number of people participating in the match; adding the quantity coefficients of all matches of the match to obtain the personnel quantity coefficient of the match; determining a public opinion attention coefficient for each match according to the public opinion attention of each match; wherein the larger the public opinion relationship coefficient, the higher the corresponding public opinion attention; adding the public opinion attention coefficients of all matches of the match to obtain the public opinion attention coefficient of the match; calculating the power supply importance coefficient of the match according to the hazard coefficient, the personnel quantity coefficient and the public opinion attention coefficient; wherein the power supply importance coefficient is respectively correlated with the hazard coefficient. The task risk coefficient of the power supply task is calculated based on the task importance level and task difficulty of the power supply task, and the power supply importance coefficient of the target event; wherein the target event is an event associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient respectively; all power supply teams within the preset power supply range are obtained; wherein each power supply team includes at least one power supply personnel; the location information, current work status, acceptance degree for temporary emergency tasks and length of service of the power supply personnel are obtained for constructing an executor matrix; the matrix matching value of each power supply team is calculated based on the executor matrix; the matching degree of each power supply team with the power supply task is calculated based on the task risk coefficient of the power supply task and the matrix matching value; the power supply team with the highest matching degree is assigned to the power supply task to perform the power supply task. It can be seen that the embodiment of the present invention determines the task risk according to the nature of the event itself, the importance and difficulty of the power supply task, and combines the comprehensive quality of the power supply team to assign a suitable power supply team to the power supply task. There is no need to manually assign power supply tasks, which reduces the difficulty of emergency command and improves the efficiency of emergency command.

[0374] The above is a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of the present invention. These improvements and modifications are also considered to be within the scope of protection of the present invention.

Claims

1. A power supply command and dispatch system, characterized in that: It includes a monitoring terminal and a command and dispatch terminal; the monitoring terminal at least includes a monitoring video module, an online monitoring module, and a task inspection module; the command and dispatch terminal at least includes a schedule information module and a task allocation module; The schedule information module is used to calculate the power supply importance coefficient of the event according to the event's risk coefficient, personnel quantity coefficient and public opinion attention coefficient; wherein the power supply importance coefficient is positively correlated with the risk coefficient, the personnel quantity coefficient and the public opinion attention coefficient respectively; The task allocation module includes a task risk calculation unit, a team matching value calculation unit and a task allocation unit; The task risk calculation unit is used to calculate the task risk coefficient of the power supply task according to the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event; wherein the target event is a competition associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient respectively; The team matching value calculation unit is used to: Obtain all power supply teams within a preset power supply range; wherein each of the power supply teams includes at least one power supply personnel; Obtain the location information, current working status, acceptance level of temporary emergency tasks and length of service of the power supply personnel to construct an executor matrix; Calculate the matrix matching value of each power supply protection team according to the executor matrix; The task allocation unit is used to allocate a power supply protection team for the power supply protection task, including: Calculating the matching degree between each power supply protection team and the power supply protection task according to the task risk coefficient of the power supply protection task and the matrix matching value; The power supply protection team with the highest matching degree is assigned to the power supply protection task to perform the power supply protection task.

2. The power supply command and dispatch system according to claim 1, characterized in that: The monitoring video module is used to select a target video for playback according to a preset carousel rule or by responding to user operations by accessing the substation video, the transmission line video, the distribution room video and the mission site control ball video; The online monitoring module is used to display the transmission line alarm data, substation alarm data and distribution room alarm data in a scrolling manner in a set layer window of the front-end interface of the system; The setting layer window is a semi-transparent window; The task inspection module is used to scroll and display the acquired task inspection information on the front-end interface; wherein the task inspection information at least includes task name, inspection object, inspection team, contact information, task creation time, task processing status and task details.

3. The power supply command and dispatch system according to claim 1 or 2, characterized in that: The schedule information module, before calculating the power supply importance coefficient of the event according to the event's danger coefficient, the number of people coefficient and the public opinion attention coefficient, is specifically used to: Determine the risk estimation coefficient of each match according to the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; add the risk estimation coefficients of all matches of the match to obtain the risk coefficient of the match; Determine the personnel quantity coefficient of each match according to the number of participants in each match of the match; wherein, the larger the personnel quantity coefficient, the larger the number of participants in the corresponding match; and add the number coefficients of all matches of the match to obtain the personnel quantity coefficient of the match; The public opinion attention coefficient of each match is determined according to the public opinion attention of each match of the event; wherein, the larger the public opinion relationship coefficient is, the higher the corresponding public opinion attention is; the public opinion attention coefficients of all matches of the event are added together to obtain the public opinion attention coefficient of the event.

4. The power supply command and dispatch system according to claim 1, characterized in that: The task risk calculation unit is specifically used to: Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and power supply coefficient of the target branch library are positively correlated; Determine the range coefficient of the target branch library according to the range of the power supply line involved in the target branch library, and add the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the range of the power supply line is positively correlated with the range coefficient; Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branches to obtain the task density coefficient of the target venue; The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue and the task density coefficient of the target venue and dividing the sum by three; The task difficulty of the target branch library is determined according to the scale of the personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the scale of the personnel and vehicles supporting the target branch library is positively correlated with the task difficulty; The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

5. The power supply command and dispatch system according to claim 1, characterized in that: The acquisition of the location information, current working status, acceptance of temporary emergency tasks and length of service of the power supply personnel for building an executor matrix specifically includes: Acquire the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply protection site, and determine the first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time; Determine the second matrix score according to the current working status of the power supply personnel; wherein the current working status includes a task-executing status and a task-not-executing status, and the second matrix score of the task-executing status is less than the second matrix score of the task-not-executing status; Determining the third matrix score according to the acceptance degree of the power supply personnel to the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score; Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service; An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power supply personnel.

6. The power supply command and dispatch system according to claim 1, characterized in that: The task allocation unit is further used for: When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is a dispatch time or a deadline, and the earlier the task time is, the lower the first score is; For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks and patrol tasks, the second score of the emergency repair task is less than the second score of the on-duty task, and the second score of the on-duty task is less than the second score of the patrol task; For each of the power protection tasks, determine a third score according to the number of faulty devices in the power protection task; Calculate the total score of all power supply tasks according to the first score, the second score and the third score; All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

7. The power supply command and dispatch system according to claim 1 or 6, characterized in that: The task allocation unit is further used for: When there are multiple power supply tasks in the task pool, a power supply team is assigned to each power supply task in order of priority from high to low; wherein each power supply task corresponds to the assigned power supply team one by one.

8. The power supply command and dispatch system according to claim 1, characterized in that: The system uses a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

9. The power supply command and dispatch system according to claim 8, characterized in that: The status register of the system is a static random access memory, and the number of the status registers is flexibly configured by software programming of the heterogeneous multi-core processor.

10. The power supply command and dispatch system according to claim 8 or 9, characterized in that: The heterogeneous multi-core processor integrates multiple processors, and configures a resource domain identifier for each of the processors, bus hosts, peripheral devices and memory areas, packages the monitored bus signals and restricts access, controls the processors and starts from the main controller to the corresponding peripheral devices and memory areas.

11. The power supply command and dispatch system according to claim 3, characterized in that: The power supply command and dispatch system also includes: A bullet screen warning module, which is used to scroll and play the obtained warning information on the home page of the front-end interface in the form of a pop-up window; The alarm push module is used to determine abnormal equipment based on online monitoring data, generate abnormal prompt information and make voice broadcasts.

12. The power supply command and dispatch system according to claim 3, characterized in that: The power supply command and dispatch system also includes: A task mode generation module is used to determine a target treatment plan according to the power supply task based on the correspondence between the preset tasks and treatment plans; and to generate a task list according to the target treatment plan and the assigned power supply team; A task dispatching module, used to respond to the task distribution instruction of the task initiator and dispatch tasks according to the task list; The task feedback module is used to feed back the acquired feedback information of the power conservation task to the task initiator in response to the task feedback instruction.

13. The power supply command and dispatch system according to claim 12, characterized in that: The task dispatching module shall follow the following principles when executing task dispatching: The task initiator may issue the power supply protection task to all relevant subordinate organizations in the command system; The organization that receives the power supply protection task can transfer the task to its subordinates.

14. The power supply command and dispatch system according to claim 3, characterized in that: The power supply command and dispatch system includes an assisting dispatching module for: When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface; After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and voice will be used to ask whether to assign the task; In response to the task assignment instruction input by the user's voice, the task assignment is performed according to the power supply task list and the corresponding power supply team; In response to a task non-assignment instruction input by the user's voice, a temporary power supply task list and a corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

15. The power supply command and dispatch system according to claim 3, characterized in that: The power supply command and dispatch system includes an execution result feedback module for: In response to a voice-input query instruction, based on a geographic information system and a power grid map, information to be displayed that is associated with the query instruction is retrieved for display.

16. The power supply command and dispatch system according to claim 15, characterized in that: The execution result feedback module is specifically used for: In response to the voice input command "Generate the upper power supply tracing map of the Olympic Sports Center Stadium", in the geographic information interface, according to the principle of dynamically tracing the power supply protection path from low to high voltage levels, the power supply path is generated step by step from the Olympic Sports Center upward; Based on the power supply path, taking the user as the starting point, a map of the power grid is traced to determine the tracing route and direction; In response to the voice input command "what is the operating status of the relevant line", retrieve the power supply protection briefing information; Based on the geographic information system and a map of the power grid, generate a power supply inspection briefing for related lines according to the power supply briefing information and make a voice broadcast; In response to the voice input command "Please retrieve the first line and the first volume of line A", the system automatically retrieves the first line and the first volume of line A and briefly broadcasts the outline; In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the digital twin perspective of substation B, and the automatic inspection of the substation is completed; In response to the voice input "automatic negative feedback regulation behavior immersive assurance mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task dispatch or on-site interaction.

17. The power supply command and dispatch system according to claim 15 or 16, characterized in that: The execution result feedback module is also used for: In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice; After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment; According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity is adjusted.

18. A power supply command and dispatch method adapted to the power supply command and dispatch system according to any one of claims 1 to 17, characterized in that: include: The importance coefficient of power supply for the event is calculated according to the danger coefficient, the number of personnel coefficient and the public opinion attention coefficient of the event; wherein the importance coefficient of power supply is positively correlated with the danger coefficient, the number of personnel coefficient and the public opinion attention coefficient respectively; Calculate the task risk coefficient of the power supply task according to the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task, and the task risk coefficient is positively correlated with the task importance level, the task difficulty, and the power supply importance coefficient respectively; Obtain all power supply teams within a preset power supply range; wherein each of the power supply teams includes at least one power supply personnel; Obtain the location information, current working status, acceptance level of temporary emergency tasks and length of service of the power supply personnel to construct an executor matrix; Calculate the matrix matching value of each power supply protection team according to the executor matrix; Calculating the matching degree between each power supply protection team and the power supply protection task according to the task risk coefficient of the power supply protection task and the matrix matching value; The power supply protection team with the highest matching degree is assigned to the power supply protection task to perform the power supply protection task.

19. The power supply command and dispatch method according to claim 18, characterized in that: The schedule information module, before calculating the power supply importance coefficient of the event according to the danger coefficient, the number of personnel coefficient and the public opinion attention coefficient of the event, the method further includes: Determine the risk estimation coefficient of each match according to the risk level of each match; wherein the risk level is positively correlated with the risk estimation coefficient; add the risk estimation coefficients of all matches of the match to obtain the risk coefficient of the match; Determine the personnel quantity coefficient of each match according to the number of participants in each match of the match; wherein, the larger the personnel quantity coefficient, the larger the number of participants in the corresponding match; and add the number coefficients of all matches of the match to obtain the personnel quantity coefficient of the match; The public opinion attention coefficient of each match is determined according to the public opinion attention of each match of the event; wherein, the larger the public opinion relationship coefficient is, the higher the corresponding public opinion attention is; the public opinion attention coefficients of all matches of the event are added together to obtain the public opinion attention coefficient of the event.

20. The power supply command and dispatch method according to claim 18, characterized in that: The calculating of the task risk coefficient of the power supply task according to the task importance level and task difficulty of the power supply task and the power supply importance coefficient of the target event includes: Determine the power supply level of the target branch library according to the power supply level of the power supply equipment associated with the target branch library, determine the power supply coefficient of the target branch library according to the power supply level of the target branch library, and add the power supply coefficients of all the target branch libraries to obtain the power supply coefficient of the target venue; wherein the target venue is the venue associated with the power supply task, the target venue includes several target branches, and the power supply level and power supply coefficient of the target branch library are positively correlated; Determine the range coefficient of the target branch library according to the range of the power supply line involved in the target branch library, and add the range coefficients of all the target branches to obtain the range coefficient of the target venue; wherein the range of the power supply line is positively correlated with the range coefficient; Determine the task density coefficient of the target branch library according to the task execution time of the target branch library, and add the task density coefficients of all the target branches to obtain the task density coefficient of the target venue; The task importance level of the power supply task is obtained by adding the power supply coefficient of the target venue, the range coefficient of the target venue and the task density coefficient of the target venue and dividing the sum by three; The task difficulty of the target branch library is determined according to the scale of the personnel and vehicles supporting the target branch library, and the task difficulty of the power supply task is obtained by adding the task difficulty of all target branches; wherein the scale of the personnel and vehicles supporting the target branch library is positively correlated with the task difficulty; The task risk coefficient of the power supply task is obtained by multiplying the task importance level, the task difficulty and the power supply importance coefficient of the target event; wherein the target event is the event associated with the power supply task.

21. The power supply command and dispatch method according to claim 18, characterized in that: The acquisition of the location information, current working status, acceptance of temporary emergency tasks and length of service of the power supply personnel for building an executor matrix specifically includes: Acquire the location information of the power supply personnel to calculate the estimated arrival time of the power supply personnel at the power supply protection site, and determine the first matrix score according to the estimated arrival time; wherein the higher the first matrix score, the shorter the corresponding estimated arrival time; Determine the second matrix score according to the current working status of the power supply personnel; wherein the current working status includes a task-executing status and a task-not-executing status, and the second matrix score of the task-executing status is less than the second matrix score of the task-not-executing status; Determining the third matrix score according to the acceptance degree of the power supply personnel to the temporary emergency task; wherein the acceptance degree is positively correlated with the third matrix score; Determine the fourth matrix score according to the length of service of the power supply personnel; wherein the higher the fourth matrix score, the longer the corresponding length of service; An executor matrix is ​​constructed according to the first matrix scores, the second matrix scores, the third matrix scores and the fourth matrix scores of all power supply personnel.

22. The power supply command and dispatch method according to claim 18, characterized in that: The power supply command and dispatch method further includes: When there are multiple power supply tasks in the task pool, for each power supply task, a first score is determined according to the task time of the power supply task itself; wherein the task time is a dispatch time or a deadline, and the earlier the task time is, the lower the first score is; For each of the power supply protection tasks, a second score is determined according to the task type of the power supply protection task itself; wherein the task types include emergency repair tasks, on-duty tasks and patrol tasks, the second score of the emergency repair task is less than the second score of the on-duty task, and the second score of the on-duty task is less than the second score of the patrol task; For each of the power protection tasks, determine a third score according to the number of faulty devices in the power protection task; Calculate the total score of all power supply tasks according to the first score, the second score and the third score; All power supply tasks are prioritized according to the total score; wherein, the higher the total score, the lower the corresponding priority.

23. The power supply command and dispatch method according to claim 18 or 22, characterized in that: The power supply command and dispatch method further includes: When there are multiple power supply tasks in the task pool, a power supply team is assigned to each power supply task in order of priority from high to low; wherein each power supply task corresponds to the assigned power supply team one by one.

24. The power supply command and dispatch method according to claim 18, characterized in that: The system uses a heterogeneous multi-core processor to process data, and the heterogeneous multi-core processor includes a digital signal processor core.

25. The power supply command and dispatch method according to claim 24, characterized in that: The status register of the system is a static random access memory, and the number of the status registers is flexibly configured by software programming of the processor.

26. The power supply command and dispatch method according to claim 24 or 25, characterized in that: The heterogeneous multi-core processor integrates multiple processors, and configures a resource domain identifier for each of the processors, bus hosts, peripheral devices and memory areas, packages the monitored bus signals and restricts access, controls the processors and starts from the main controller to the corresponding peripheral devices and memory areas.

27. The power supply command and dispatch method according to claim 18, characterized in that: The power supply command and dispatch method further includes: The obtained alarm information is scrolled and played on the home page of the front-end interface in the form of a pop-up window; Determine abnormal equipment based on online monitoring data, generate abnormal prompt information and make voice broadcasts.

28. The power supply command and dispatch method according to claim 18, characterized in that: The power supply command and dispatch method further includes: Based on the correspondence between the preset tasks and the disposal solutions, a target disposal solution is determined according to the power supply task; a task list is generated according to the target disposal solution and the assigned power supply team; In response to the task distribution instruction of the task initiator, dispatching the task according to the task list; In response to the task feedback instruction, the acquired feedback information of the power conservation task is fed back to the task initiator.

29. The power supply command and dispatch method according to claim 28, characterized in that: When dispatching tasks, the following principles must be followed: The task initiator may issue the power supply protection task to all relevant subordinate organizations in the command system; The organization that receives the power supply protection task can transfer the task to its subordinates.

30. The power supply command and dispatch method according to claim 18, characterized in that: The power supply command and dispatch method further includes: When creating a temporary power conservation task, a task configuration progress bar is displayed on the front-end interface; After the temporary power supply task is configured, a temporary power supply task list and the corresponding power supply team will pop up on the front-end interface, and voice will be used to ask whether to assign the task; In response to the task assignment instruction input by the user's voice, the task assignment is performed according to the power supply task list and the corresponding power supply team; In response to a task non-assignment instruction input by the user's voice, a temporary power supply task list and a corresponding power supply team are continuously displayed on the front-end interface until the task assignment instruction is received.

31. The power supply command and dispatch method according to claim 18, characterized in that: The power supply command and dispatch method further includes: In response to a voice-input query instruction, based on a geographic information system and a power grid map, information to be displayed that is associated with the query instruction is retrieved for display.

32. The power supply command and dispatch method according to claim 31, characterized in that: The method of responding to the voice input query instruction, based on the geographic information system and the power grid map, retrieves the information to be displayed associated with the query instruction for display, including: In response to the voice input command "Generate the upper power supply tracing map of the Olympic Sports Center Stadium", in the geographic information interface, according to the principle of dynamically tracing the power supply path from low to high voltage levels, a power supply path is generated from the Olympic Sports Center upward step by step; and based on the power supply path, with the user as the starting point, a map of the power grid is traced to determine the tracing route and direction; In response to the voice input command "how is the operation status of the relevant line", the power supply briefing information is retrieved; based on the geographic information system and the power grid map, the relevant line power supply inspection briefing is generated according to the power supply briefing information and voice broadcast; In response to the voice input command "Please retrieve the first line and the first volume of line A", the system automatically retrieves the first line and the first volume of line A and briefly broadcasts the outline; In response to the voice input of "perform a digital twin inspection of substation B", the screen of the front-end interface is switched to the digital twin perspective of substation B, and the automatic inspection of the substation is completed; In response to the voice input "automatic negative feedback regulation behavior immersive assurance mode" instruction, a power supply path is selected for automatic patrol, voice introduction, pop-up display, task dispatch or on-site interaction.

33. The power supply command and dispatch method according to claim 31 or 32, characterized in that: The power supply command and dispatch method further includes: In the process of retrieving the information to be displayed associated with the query instruction for display, obtaining the progress inquiry question associated with the query instruction and asking the user through voice; After the display of the information to be displayed is completed, the user is asked by voice whether to perform negative feedback adjustment; According to the negative feedback operation input by the user, the voice broadcast information, voice broadcast frequency or task granularity is adjusted.

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