CN116542499A

CN116542499A - Multi-area energy station supply method, system, device, electronic equipment and medium

Info

Publication number: CN116542499A
Application number: CN202310822546.4A
Authority: CN
Inventors: 旷金国; 王朝晖; 王昭强; 陆春富
Original assignee: Shenzhen Qianhai Energy Technology Development Co ltd
Current assignee: Shenzhen Qianhai Energy Technology Development Co ltd
Priority date: 2023-07-06
Filing date: 2023-07-06
Publication date: 2023-08-04
Anticipated expiration: 2043-07-06
Also published as: CN116542499B

Abstract

The embodiment of the application provides a multi-area energy station supply method, a system, a device, electronic equipment and a medium, and belongs to the technical field of area energy supply. The method is applied to a multi-area energy supply system, and the system comprises at least two area energy supply stations; a plurality of energy supply points; a main pipeline; a plurality of branch pipes; dynamically switching on and off the valve; a controller; the method comprises the following steps: detecting the time-by-time energy consumption of the energy supplied points in a plurality of areas at regular time; inputting the time-by-time energy consumption into an energy calculation model to obtain energy dividing parameters; calculating energy dividing parameters, dividing the energy supply range of the regional energy supply station according to the supply scene, and obtaining a target dividing strategy; the target division strategy is at least used for indicating the switching state of the dynamic switching valve; and adjusting the dynamic switch valve according to a target division strategy, and dividing the energy supply range of the regional energy supply station. Thereby improving the utilization rate of energy sources among the areas and ensuring economic benefit.

Description

Multi-area energy station supply method, system, device, electronic equipment and medium

Technical Field

The present disclosure relates to the field of regional energy supply technologies, and in particular, to a method, a system, a device, an electronic device, and a medium for supplying a multi-region energy station.

Background

The regional energy stations are one or more large-scale domestic hot water and central air conditioning cold and heat source systems which are supplied through regional pipe networks in order to meet the concentrated cooling and heating demands in the region and intensively produce hot water, cold water and the like by special energy stations.

In the related art, each energy supply area is independently designed according to the predicted energy consumption, and one area energy supply station can only supply the energy supply points of a specific area. Therefore, when the energy demand of the energy supply point is too large or too small, the hydraulic balance of the pipe network is difficult to maintain, and the situation of insufficient energy supply or surplus energy storage in a single area is possibly caused; for an integral area with a plurality of energy supply stations, the possible supply and demand balance conditions of each energy supply station are opposite to those of a specific energy supply area, and the situation that supply is greater than demand or supply is insufficient occurs, so that the energy consumption requirement of an energy supply point is influenced, and the economical efficiency of the operation of an inner pipe network in the area is also not facilitated.

Disclosure of Invention

The main purpose of the embodiment of the application is to provide a multi-area energy supply station supply method, a system, a device, electronic equipment and a medium, which can dynamically regulate and control energy transportation between the area energy supply stations, improve the utilization rate of energy between the areas and ensure the economic benefit of the area energy supply stations.

To achieve the above object, a first aspect of the embodiments of the present application proposes a multi-zone energy station supply method, which is applied to a multi-zone energy station supply system, the system including: at least two regional energy supply stations; a plurality of energy supply points; wherein, the energy supply stations supply energy to the energy supply points; the main pipeline is connected with the regional energy supply station; the branch pipelines are used for connecting the main pipeline and the corresponding energy supply points; the dynamic switch valve is positioned on the main pipeline and arranged on two sides of the intersection point of each branch pipeline and the main pipeline; the controller is used for controlling the switching state of the dynamic switching valve so as to control the energy paths of the energy supply stations of each area and the corresponding energy supplied points, thereby dividing the energy supply range of the energy supply stations of each area;

The method comprises the following steps: detecting the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time; inputting the time-by-time energy consumption into an energy calculation model for calculation to obtain energy dividing parameters; dividing the energy supply range of the regional energy supply station according to the energy division parameters and the supply scene to obtain a target division strategy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve; and adjusting the dynamic switch valve of each energy supply point according to the target division strategy so as to divide the energy supply range of the regional energy supply station.

According to some embodiments of the present application, the main pipeline comprises an energy supply main pipeline and an energy return main pipeline, and the branch pipeline comprises an energy supply branch pipeline and an energy return branch pipeline; the energy supply dry pipeline is connected with the energy supply point through the energy supply branch pipeline, and the energy return dry pipeline is connected with the energy supply point through the energy return branch pipeline; the method further comprises the steps of: dynamic switch valves are arranged on two sides of the intersection point of the energy supply main pipeline and each energy supply branch pipeline on the energy supply main pipeline; dynamic switch valves, the quantity of which is equal to that of the energy supply main pipelines, are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline on the energy return main pipeline, so that each regional energy supply station can provide energy for any energy supply point in the system through the adjustment of the dynamic switch valves; if the system pipe network is a dendritic pipe network, the total number of dynamic switch valves on the energy supply pipe of each system is m+1, and the total number of dynamic switch valves on the energy return pipe of the system is m+1; if the system pipe network is an annular pipe network, the total number of dynamic switch valves on the energy supply pipes of each system is m+3, and the total number of dynamic switch valves on the energy return pipes in each system is m+3; and m is the number of the energy supplied points, and m is a positive integer greater than or equal to 1.

According to some embodiments of the application, the energy partitioning parameters include: total hourly energy consumption, total daily energy consumption, total energy consumption, first total daily energy supply, second total daily energy supply, total energy supply, peak time energy consumption, peak time total energy consumption, first regional energy supply station peak time energy supply, second regional energy supply station peak time energy supply, and peak time total energy supply; the regional energy supply station comprises a first regional energy supply station and a second regional energy supply station; the zone comprises a first zone and a second zone, the first zone energy supply station providing energy to the first zone and the second zone energy supply station providing energy to the second zone;

according to some embodiments of the application, the energy division parameters are calculated by the energy calculation model by: according to the time-by-time energy consumption corresponding to each energy supplied point, adding the time-by-time energy consumption of the energy supplied points in the first area and the second area to obtain total time-by-time energy consumption; adding the time-by-time energy consumption of each energy supplied point according to the time-by-time energy consumption to obtain the total daily energy consumption of each energy supplied point; adding the total daily energy consumption of the energy supplied points in the first area and the second area to obtain total energy consumption; adding the total daily energy consumption of each energy supplied point corresponding to the first area to obtain a first total daily energy supply of the first area energy supply station; adding the total daily energy consumption of each energy supplied point corresponding to the second area to obtain a second total daily energy supply of the second area energy supply station; calculating a total energy supply amount according to the sum of the first full-day energy supply amount and the second full-day energy supply amount; wherein the total energy consumption is equal to the total energy supply; acquiring electricity price peak time, and calculating energy consumption of each energy supplied point in the peak time according to the total time-by-time energy consumption; adding the peak energy consumption of the energy supplied points in the first area and the second area, and calculating the total energy consumption in the peak time; adding the peak energy consumption of each energy supplied point corresponding to the first area to obtain the peak energy supply of the first area energy supply station; adding the peak energy consumption of each energy supplied point corresponding to the second area to obtain the peak energy supply of the second area energy supply station; obtaining total energy supply quantity in peak time according to the sum of the energy supply quantity in peak time of the first regional energy supply station and the energy supply quantity in peak time of the second regional energy supply station; wherein the peak total energy consumption amount and the peak total energy supply amount are equal.

According to some embodiments of the present application, the dividing the energy supply range of the regional energy supply station according to the energy division parameter and the supply scene, to obtain a target division policy, includes: acquiring total energy consumption and energy storage sum, and comparing the total energy consumption with the energy storage sum; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum; if the total energy consumption is smaller than or equal to the energy storage sum, dividing energy supply ranges corresponding to the regional energy supply stations to obtain a first region corresponding to the first regional energy supply station and a second region corresponding to the second regional energy supply station; the first total-day energy supply quantity corresponding to the first area is smaller than or equal to the first area energy storage sum, and the second total-day energy supply quantity corresponding to the second area is smaller than or equal to the second area energy storage sum; or if the total energy consumption is less than or equal to the sum of the first regional energy storages, providing energy to the system by the first regional energy supply station; or if the total energy consumption is less than or equal to the sum of the energy storage of the second area, providing energy to the system by the second area energy supply station.

According to some embodiments of the present application, the dividing the energy supply range of the regional energy supply station according to the energy division parameter and the supply scene, to obtain a target division policy, further includes: acquiring a peak period total energy supply amount and a total energy supply amount, and comparing the peak period total energy supply amount with the total energy supply amount; acquiring total time-by-time energy consumption and the sum of the residual energy storage capacity and the energy production capacity of a peak period, and comparing the total time-by-time energy consumption with the sum of the residual energy storage capacity and the energy production capacity of the peak period; if the energy storage sum is greater than or equal to the total energy supply amount in the peak period and less than the total energy supply amount, and the sum of the residual energy storage amount and the energy production amount in the peak period is greater than the total time-by-time energy consumption amount, setting the energy storage sum in the first area to be greater than or equal to the energy supply amount in the peak period of the first area energy supply station, and setting the energy storage sum in the second area to be greater than or equal to the energy supply amount in the peak period of the second area energy supply station; energy is provided by adopting energy storage in peak time, and energy is provided by adopting residual energy storage and energy production in ordinary time; wherein the energy production is generated by an energy production machine; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum, and the residual energy storage quantity is obtained by subtracting the total energy supply quantity in the peak time from the energy storage sum.

According to some embodiments of the present application, the dividing the energy supply range of the regional energy supply station according to the energy division parameter and the supply scene, to obtain a target division policy, further includes: acquiring a peak period total energy supply amount and a total energy supply amount, and comparing the peak period total energy supply amount with the total energy supply amount; acquiring total time-by-time energy consumption and the sum of the residual energy storage capacity and the energy production capacity of a peak period, and comparing the total time-by-time energy consumption with the sum of the residual energy storage capacity and the energy production capacity of the peak period; if the energy storage sum is greater than or equal to the total energy supply amount in the peak period and less than the total energy supply amount, and the sum of the residual energy storage amount and the energy production amount in the peak period is less than the total time-by-time energy consumption amount, energy storage and energy production are adopted to provide energy in the peak period and the normal period; the energy storage and energy production are adopted to provide energy in the peak time and the normal time, and the following constraint conditions are met: the total energy supply amount in the peak period is larger than or equal to the energy consumption amount in the peak period; the total energy supply amount is greater than or equal to the total energy consumption amount; the overall price is minimal; the total price refers to the sum of peak time electricity prices and normal time electricity prices.

According to some embodiments of the application, after the adjusting the dynamic switching valve of each energy source supplied point, the method further includes: acquiring the working lift range of the regional energy supply station; obtaining a supply type selection parameter according to a preset characteristic curve set of the supply device and the working lift range; predicting working parameters of the regional energy supply station according to the time-by-time energy consumption of each energy supply point and the supply type selection parameters; and calibrating the number and the operating frequency of the supply devices of the regional energy supply station according to the predicted operating parameters.

Embodiments of a second aspect of the present application provide a multi-zone energy station supply system, the system comprising: at least two regional energy supply stations; a plurality of energy supply points; wherein, the energy supply stations supply energy to the energy supply points; the main pipeline is connected with the regional energy supply station; the branch pipelines are used for connecting the main pipeline and the corresponding energy supply points; the dynamic switch valve is positioned on the main pipeline and arranged on two sides of the intersection point of each branch pipeline and the main pipeline; and the controller is used for controlling the switching state of the dynamic switching valve so as to control the energy paths of the energy supply stations of each area and the corresponding energy supplied points, thereby dividing the energy supply range of the energy supply stations of each area.

According to some embodiments of the present application, the main conduit includes an energy supply main conduit and an energy return main conduit; the energy supply dry pipeline is connected with the energy supply point through an energy supply branch pipeline, and the energy return dry pipeline is connected with the energy supply point through an energy return branch pipeline; the controller is specifically used for: dynamic switch valves are arranged on two sides of the intersection point of the energy supply main pipeline and each energy supply branch pipeline on the energy supply main pipeline; dynamic switch valves, the quantity of which is equal to that of the energy supply main pipelines, are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline on the energy return main pipeline, so that each regional energy supply station can provide energy for any energy supply point in the system through the adjustment of the dynamic switch valves; if the system pipe network is a dendritic pipe network, the total number of dynamic switch valves on the energy supply pipe of each system is m+1, and the total number of dynamic switch valves on the energy return pipe of the system is m+1; if the system pipe network is an annular pipe network, the total number of dynamic switch valves on the energy supply pipes of each system is m+3, and the total number of dynamic switch valves on the energy return pipes in each system is m+3; and m is the number of the energy supplied points, and m is a positive integer greater than or equal to 1.

Embodiments of a third aspect of the present application provide a multi-zone energy station supply apparatus, the apparatus comprising: the time-by-time energy consumption detection module is used for detecting the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time; the energy division parameter calculation module is used for inputting the time-by-time energy consumption into an energy calculation model for calculation to obtain energy division parameters; the target division strategy acquisition module is used for dividing the energy supply range of the regional energy supply station according to the energy division parameters and the supply scene to obtain a target division strategy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve; and the energy supply range dividing module is used for adjusting the dynamic switch valves of the energy supply points according to the target dividing strategy so as to divide the energy supply range of the regional energy supply station.

An embodiment of a fourth aspect of the present application proposes an electronic device, the electronic device comprising a memory and a processor, the memory storing a computer program, the processor implementing the multi-area energy station supply method according to any one of the embodiments of the first aspect of the present application when executing the computer program.

An embodiment of a fifth aspect of the present application proposes a computer readable medium storing a computer program which, when executed by a processor, implements a multi-zone energy station provisioning method according to any of the embodiments of the first aspect of the present application.

The multi-area energy station supply method, the system, the device, the electronic equipment and the medium can detect the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time, and input the time-by-time energy consumption into an energy calculation model for calculation to obtain energy division parameters; the energy supply range of the regional energy supply station is divided through the energy division parameters and the supply scene to obtain a target division strategy, wherein the target division strategy is at least used for indicating the switching state of each dynamic switching valve, and the dynamic switching valves of each energy supply receiving point are regulated according to the target division strategy so as to reasonably divide the energy supply range of the regional energy supply station. According to the method and the device, the consumption of the energy before a certain period can be counted, the energy transportation between the energy supply stations of the subsequent areas is dynamically regulated and controlled, the utilization rate of the energy between the areas is improved, and the economic benefit of the energy supply stations of the areas is guaranteed.

Drawings

FIG. 1 is a schematic diagram of a multi-zone power station supply system according to an embodiment of the present application;

FIG. 2 is a schematic diagram of the connection of the energy supply dry pipe, the energy return dry pipe and the dynamic switch valve according to the embodiment of the present application;

FIGS. 3-a and 3-b are schematic diagrams of an energized or a de-energized dry circuit provided in an embodiment of the present application;

FIGS. 4-a and 4-b are schematic illustrations of yet another 2 powered or return dry circuits provided by embodiments of the present application;

FIG. 5 is an alternative flow chart of a multi-zone energy station delivery method provided by an embodiment of the present application;

FIG. 6 is a further alternative flow chart of a multi-zone energy station delivery method provided by an embodiment of the present application;

FIG. 7 is a flowchart of calculating energy division parameters according to an embodiment of the present application;

fig. 8 is a flowchart of step S103 shown in fig. 5 according to the embodiment of the present application;

FIGS. 9-a and 9-b are schematic diagrams of a target partitioning strategy provided by embodiments of the present application;

FIGS. 10-a and 10-b are schematic diagrams of yet another 2 target partitioning strategies provided by embodiments of the present application;

FIGS. 11-a and 11-b are schematic diagrams of yet another 2 target partitioning strategies provided by embodiments of the present application;

fig. 12 is a further flowchart of step S103 shown in fig. 5 according to the embodiment of the present application;

FIGS. 13-a and 13-B are schematic diagrams of the embodiments of the present application, wherein the cold stations A and B use ice-melting refrigeration during peak hours and use ice-melting and ice-making machines during normal times;

14-a and 14-B, the cold stations A and B provided in the embodiments of the present application use ice melting refrigeration during peak hours, and use ice making machine refrigeration during normal times;

fig. 15 is a further flowchart of step S103 shown in fig. 5 according to the embodiment of the present application;

FIGS. 16-a and 16-b are operational profiles after optimal range partitioning;

FIGS. 17-a and 17-b are still further operational scenarios following optimal range partitioning;

FIG. 18 is a flow chart of an embodiment of the present application after adjustment of dynamic switching valves for each energy source-supplied point;

FIG. 19 is a functional block diagram of a multi-zone power station supply system provided in an embodiment of the present application;

fig. 20 is a schematic diagram of a hardware structure of an electronic device according to an embodiment of the present application;

reference numerals: a system 100; a regional energy supply station 110; an energy supply point 120; a main conduit 130; branch pipe 140; dynamically opening and closing valve 150; and a controller 160.

Detailed Description

In order to make the objects, technical solutions and advantages of the present application more apparent, the present application will be further described in detail with reference to the accompanying drawings and examples. It should be understood that the specific embodiments described herein are for purposes of illustration only and are not intended to limit the present application.

It should be noted that although functional block division is performed in a device diagram and a logic sequence is shown in a flowchart, in some cases, the steps shown or described may be performed in a different order than the block division in the device, or in the flowchart. The terms first, second and the like in the description and in the claims and in the above-described figures, are used for distinguishing between similar elements and not necessarily for describing a particular sequential or chronological order.

Unless defined otherwise, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs. The terminology used herein is for the purpose of describing embodiments of the present application only and is not intended to be limiting of the present application.

Regional energy supply systems refer to a centralized energy supply system established to meet energy demand within a particular region, each system supplying energy to a plurality of regional grids and delivering energy from a fixed supply station to individual users through the regional grids to complete the supply of energy. Typically, a regional network includes a plurality of energy supply points, that is, a regional network includes a plurality of users, and a network can supply energy to a plurality of end users, and the temperature of the energy supplied to the user side is defined as a fixed value. The regional energy supply system can adopt various energy forms, such as fuel gas, electric power, cold energy, heat energy and the like, and can be flexibly combined and regulated according to actual needs.

In the related art, the end points of two adjacent regional pipe networks are generally communicated with each other and are provided with valves, however, the valves are opened only when one of the regional pipe networks fails, and the regional energy supply stations which do not fail provide energy to the energy supply points of the failed region. When the regional pipe network normally operates, the valve is in a closed state, each regional energy supply station provides energy for an energy supply point in a fixed range, and the dynamic regulation and control of the whole regional energy supply system cannot be realized through the valve, so that when the energy demand of the energy supply point is overlarge or is overlarge, the hydraulic balance of the pipe network is difficult to maintain, the condition of insufficient single-regional energy supply or excessive energy storage possibly is caused, and the economical efficiency of the pipe network operation is not facilitated. Especially for regional energy supply systems, the daily electricity costs are enormous, and therefore, a reasonable strategy needs to be formulated to divide the energy supply region.

Based on this, the embodiment of the application provides a multi-area energy supply method, a system, a device, electronic equipment and a medium, which can count the consumption of energy before a certain period, dynamically regulate and control the energy transportation between the subsequent area energy supply stations, improve the utilization rate of energy between areas and ensure the economic benefit of the area energy supply stations.

It is understood that the multi-zone energy supply in the embodiments of the present application may refer to providing heat energy, or providing cold energy or other energy that may be intensively supplied by a zone, and cold energy is used for description when embodiments are described in the present application.

The method, system, device, electronic equipment and medium for supplying multi-area energy stations provided in the embodiments of the present application are specifically described through the following embodiments, and the multi-area energy station supply system in the embodiments of the present application is described first.

Referring to fig. 1, in some embodiments, a system 100 includes:

at least two regional energy supply stations 110;

a plurality of energy supply points 120; wherein, the plurality of energy supply points 120 are all supplied with energy by the regional energy supply station 110;

a main line 130 connected to the regional energy supply station 110;

a plurality of branch pipelines 140 for connecting the main pipeline 130 and the corresponding energy supply points 120;

the dynamic switch valve 150, the dynamic switch valve 150 is located on the main pipeline 130, and is arranged at two sides of the intersection point of each branch pipeline 140 and the main pipeline 130;

and a controller 160 for controlling the switching state of the dynamic switching valve 150 to control the energy paths of the respective regional energy supply stations 110 and the corresponding energy receiving points 120, thereby dividing the energy supply range of the regional energy supply stations 110.

In some embodiments, the regional energy supply station can provide centralized supply and management of multiple energy sources, such as electricity, heat, cold, etc., to surrounding buildings or regions to improve energy utilization efficiency and reduce energy consumption costs. In some embodiments, the energy supply points are a plurality of user points, and the regional energy supply stations supply energy to the energy supply points.

In some embodiments, the main conduit is the primary conduit connecting the regional energy supply station and the plurality of regions for delivering a substantial amount of energy to the connected regions to effect the supply of energy. It will be appreciated that branch lines are branches and extensions of the main line, connecting to specific energy supply points, i.e. to specific users, and providing the energy supply points with the appropriate amount of energy. It will be appreciated that, because the design and operation management of the main and branch pipelines directly affect the stability and reliability of the energy supply, generally in a multi-zone energy station supply system, a dendritic pipe network or a ring pipe network is used to implement the transportation of energy.

In some embodiments, the dynamic switch valve is located on the main pipeline and is disposed on two sides of the intersection point of each branch pipeline and the main pipeline, and in some embodiments, the dynamic switch valve receives an instruction opening or closing instruction sent by the controller to perform opening or closing operation.

In some embodiments, the controller may be a neural center and a command center of the system, and may generate operation control signals according to the instruction operation codes and the time sequence signals to complete instruction fetching and instruction execution control. For example, the controller can send an instruction of opening or closing to the dynamic switch valve, so as to control the opening and closing states of the dynamic switch valve, so as to control the energy paths of the energy supply stations in each area and the corresponding energy supply points, and divide the energy supply range of the energy supply stations in each area. In some embodiments, the controller is further capable of controlling the number and frequency of operation of the supplies of the regional energy supply station.

In some embodiments, the main conduit of the multi-zone energy station supply system includes a power supply main conduit and a power return main conduit; the energy supply main pipeline is connected with the energy supply point through an energy supply branch pipeline, and the energy return main pipeline is connected with the energy supply point through an energy return branch pipeline;

the controller is specifically for:

dynamic switch valves are arranged on two sides of the intersection point of the energy supply main pipeline and each energy supply branch pipeline on the energy supply main pipeline;

dynamic switch valves with the same quantity as the energy supply main pipelines are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline on the energy return main pipeline, so that each regional energy supply station can provide energy for any energy supply point in the system through the adjustment of the dynamic switch valves;

If the system pipe network is a dendritic pipe network, the total number of dynamic switch valves on the energy supply pipe of each system is m+1, and the total number of dynamic switch valves on the energy return pipe of the system is m+1; if the system pipe network is an annular pipe network, the total number of dynamic switch valves on energy supply pipes of each system is m+3, and the total number of dynamic switch valves on energy return pipes in each system is m+3; m is the number of energy supplied points, and m is a positive integer greater than or equal to 1. It can be understood that m represents the number of energy supply points (users), but if a plurality of energy supply points form a unit, the regional energy supply stations set dynamic switch valves in units of units, that is, when the system pipe network is a dendritic pipe network, the number of the dynamic switch valves should be less than m+1; when the system pipe network is an annular pipe network, the number of the dynamic switch valves is less than m+3.

It will be appreciated that in order to ensure the supply and recovery of energy, the main conduit and each branch conduit need to have a corresponding number of supply and return conduits in order to effect the supply and recovery of energy. The energy supply dry pipeline is used for conveying energy to all energy supply points, the energy return dry pipeline is used for recycling waste energy generated by all energy supply points, and the waste energy is conveyed back to the energy supply station for recycling after being treated.

Referring to fig. 2, fig. 2 is a schematic diagram of the connection of the power supply dry line, the power return dry line and the dynamic switching valve.

In some embodiments, S1 represents the energy supplied point, i.e., the user, valves S1-SL represent the supply mains to the left of the energy supplied point, valves S1-SR represent the supply mains to the right of the energy supplied point, valves S1-RL represent the return mains to the left of the energy supplied point, and valves S1-RR represent the return mains to the right of the energy supplied point. It can be understood that in the state 1 and the state 2, the 4 dynamic switch valves of the energy supply dry pipeline and the energy return dry pipeline are normally opened, and the energy source normally flows in the energy supply area where the user is located.

It will be appreciated that in state 3, assuming that the left side of S1 is cold station A and the left side of S2 is cold station B, then valves S1-SL and S1-RL are open and valves S1-SR and S1-RR are closed, energy is supplied to S1 by cold station A through valves S1-SL and then energy is recovered through valves S1-RL. Specifically, the flow direction of the energy source is the valve S1-SL→S1→the valve S1-RL.

It will be appreciated that in state 3, assuming that the left side of S1 is cold station A and the left side of S2 is cold station B, then valves S1-SR and S1-RR are open and valves S1-SL and S1-RL are closed, energy is supplied to S1 by cold station B through valves S1-SR and then energy is recovered through valves S1-RR. Specifically, the flow direction of the energy source is the valve S1-SR→S1→the valve S1-RR.

It is understood that the same number of dynamic switch valves are arranged on the energy supply main pipeline and the energy return main pipeline at the same time, so that energy can flow in from different directions of the energy supply main pipeline, and the energy supply range of each regional energy supply station is selected and optimized.

Referring to fig. 3-a, 3-b, 4-a and 4-b, fig. 3-a, 3-b, 4-a and 4-b are schematic diagrams of energy supply dry pipelines or energy return dry pipelines, the connection mode of the energy supply dry pipelines is not limited to this, and the pipe network area setting mode of adjusting and controlling the energy supply range through dynamic switch valves is within the protection scope of the application. In some embodiments, V1-V13 in the figures represent dynamic switching valves, S1-S10 represent energy supply points, namely, the users S1-S10, and the cold station a and the cold station B represent two regional energy supply stations, it being understood that the regional energy supply stations are not limited to cold stations, but may be stations for supplying other energy sources, such as thermal energy stations.

In fig. 3-a, when the dynamic switching valve V3 is closed, the cold station a supplies cold to S1 and S2, and the cold station B supplies cold to S3 and S4.

In fig. 3-B, when the valves V4 and V8 are closed, the cold station a supplies cold to the users S1, S2, S3, S7, S8, S9, S10 and the cold station B supplies cold to the users S4, S5, S6.

In fig. 4-a, when valve V2 is closed, cold station a supplies cold to S1, cold station B supplies cold to S2, S3 and S4;

in fig. 4-B, when the valves V3, V9 and V12 are closed, the cold station a supplies cold to S1, S2, S8, S9 and the cold station B supplies cold to S3, S4, S5, S6, S7, S10.

It can be appreciated that by controlling the dynamic on-off valves of the regional internal network, a fine division of the cooling range of each regional energy supply station can be achieved. And the regional energy supply station can accurately match and schedule the supply and demand of the system according to the energy consumption of each energy supplied point and the energy supply capacity. It will be appreciated that the operation of the multi-zone power supply is actually based on individual zone power supply stations each supplying power to a divided zone, and that hydraulic imbalance or supply stability problems after communication of the plurality of zone power supply stations do not occur, simplifying operation and control of the system. Meanwhile, the energy consumption of each energy supplied point in the previous day can be counted at regular time, so that the energy consumption and the supply areas of the energy supply stations in each area can be divided, and the pipeline network can be optimally scheduled according to the most energy-saving or most economical mode.

The multi-zone power station supply method in the embodiment of the present application may be described by the following embodiment.

In the embodiments of the present application, when related processing is required to be performed according to data related to a user identity or a characteristic, such as user information, user behavior data, user history data, user location information, and the like, permission or consent of the user is obtained first, for example, when data stored by the user and a request for accessing cached data of the user are obtained first. Moreover, the collection, use, processing, etc. of such data would comply with relevant laws and regulations. In addition, when the embodiment of the application needs to acquire the sensitive personal information of the user, the independent permission or independent consent of the user is acquired through a popup window or a jump to a confirmation page or the like, and after the independent permission or independent consent of the user is explicitly acquired, necessary user related data for enabling the embodiment of the application to normally operate is acquired.

In some embodiments, the multi-zone energy station supply method is applied in a multi-zone energy station supply system, at least two zone energy stations 110;

a main line 130 connected to the regional energy supply station 110;

a controller 160 for controlling the switching state of the dynamic switching valve 150 to control the energy paths of the respective regional energy supply stations 110 and the corresponding energy supplied points 120, thereby dividing the energy supply range of the regional energy supply stations 110;

it will be appreciated that the relevant contents of the regional energy supply system have been described above, and will not be repeated.

Fig. 5 is an alternative flowchart of a multi-zone energy station provisioning method provided in an embodiment of the present application, where the method of fig. 5 may include, but is not limited to, steps S101 through S104.

Step S101, detecting the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time;

step S102, inputting the time-by-time energy consumption into an energy calculation model for calculation to obtain energy division parameters;

Step S103, dividing the energy supply range of the regional energy supply station according to the energy division parameters and the supply scene to obtain a target division strategy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve;

step S104, according to the target division strategy, the dynamic switch valve of each energy supply point is adjusted to divide the energy supply range of the regional energy supply station.

It can be understood that the energy involved in the multi-area energy station supply method provided by the embodiment of the application may refer to cold energy, heat energy or other energy that can be intensively supplied through an area.

In some embodiments, the energy consumption of each energy supply point on the same day can be calculated in advance, so that each division strategy can be formulated in time according to the energy consumption of the energy supply point, the division strategy with the lowest electricity price is selected as the target division strategy, and the controller controls the opening and closing of each dynamic switch valve according to the target division strategy. In some embodiments, the energy supply range can be specifically divided according to the energy consumption of each energy supplied point and the energy supply capacity of the regional energy supply station, so as to avoid energy waste. For example, the on-off valve may be switched at a specified time of day, such as at night time zero or at other times.

In some embodiments, the energy calculation model is a model that calculates each energy division parameter according to a calculation formula. In some embodiments, the energy consumption of the time-by-time period, the total energy consumption of the day, the first total energy supply of the day, the second total energy supply of the day, the peak energy consumption of the day, the peak energy supply of the first regional energy supply station, the peak energy supply of the second regional energy supply station, and the peak energy supply of the day may be calculated by the energy division model.

It is to be understood that the first full-day energy supply amount, the second full-day energy supply amount, the first regional energy supply station peak period energy supply amount, the second regional energy supply station peak period energy supply amount, and the like related to the first and second parameters are all for distinguishing different regions, and are not limited to specific numbers. It will be appreciated that the technical solution in this application may be applied to a plurality of areas and a plurality of energy supply stations.

In some embodiments, the supply scenario refers to a scenario of whether the total energy consumption is less than the stored energy, or a scenario of whether the peak period total energy consumption is less than the stored energy, or the like. It is understood that the target division policy is a policy indicating a supply range of each regional energy supply station and how much energy is supplied, and the target division policy may be used to indicate a switching state of each dynamic switching valve, and may also indicate the number of supply devices and an operation frequency of the regional energy supply station.

It will be appreciated that the target partitioning strategy may be generated by a model or may be obtained by manual calculation. In some embodiments, the energy supply range of the regional energy supply station can be divided according to the energy division parameters and the supply scene to obtain a target division strategy, the switching state of each dynamic switching valve is determined according to the target division strategy, and the dynamic switching valve of each energy supply point is adjusted in a fixed period (such as at night) to divide the energy supply range of the regional energy supply station.

According to the multi-area energy station supply method, system, device, electronic equipment and medium, time-by-time energy consumption of each energy supplied point in a plurality of areas can be detected at regular time, the time-by-time energy consumption is input into an energy calculation model to be calculated, energy division parameters are obtained, the energy supply range of an area energy supply station is divided through the energy division parameters and a supply scene, a target division strategy is obtained, the target division strategy is at least used for indicating the switching state of each dynamic switching valve, and the dynamic switching valves of each energy supplied point are adjusted according to the target division strategy so as to reasonably divide the energy supply range of the area energy supply station. According to the method and the device, the consumption of the energy before a certain period can be counted, the energy transportation between the energy supply stations of the subsequent areas is dynamically regulated and controlled, the utilization rate of the energy between the areas is improved, and the economic benefit of the energy supply stations of the areas is guaranteed.

In some embodiments, the main conduit includes an energy supply main conduit and an energy return main conduit, and the branch conduit includes an energy supply branch conduit and an energy return branch conduit; the energy supply main pipeline is connected with the energy supply point through an energy supply branch pipeline, and the energy return main pipeline is connected with the energy supply point through an energy return branch pipeline; referring to fig. 6, the method further includes, but is not limited to, steps S201 to S202:

step S201, dynamic switch valves are arranged on two sides of the intersection point of the energy supply main pipeline and each energy supply branch pipeline on the energy supply main pipeline;

step S202, on the energy return main pipeline, dynamic switch valves with the same quantity as the energy supply main pipelines are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline, so that each regional energy supply station can provide energy for any energy supply point in the system through the adjustment of the dynamic switch valves;

if the system pipe network is a dendritic pipe network, the total number of dynamic switch valves on the energy supply pipe of each system is m+1, and the total number of dynamic switch valves on the energy return pipe of the system is m+1; if the system pipe network is an annular pipe network, the total number of dynamic switch valves on energy supply pipes of each system is m+3, and the total number of dynamic switch valves on energy return pipes in each system is m+3; m is the number of energy supplied points, and m is a positive integer greater than or equal to 1.

It will be appreciated that in order to ensure the supply and recovery of energy, the main conduit and each branch conduit need to have a corresponding number of supply and return conduits in order to effect the supply and recovery of energy. The energy supply dry pipeline is used for conveying energy to all energy supply points, the energy return dry pipeline is used for recovering waste energy generated by all energy supply points, and the waste energy is conveyed back to the energy supply station for recycling after being treated, so that the energy supply dry pipeline and the energy return dry pipeline are required to be matched with each other so as to ensure effective utilization of the energy and normal operation of equipment.

In some embodiments, the number of dynamic switching valves on the power supply dry line and the power return dry line is determined based on the number of points at which the power source is supplied. It is to be understood that, in order to ensure that each regional energy supply station can provide energy for any user in the system, that is, any energy supply point can be connected to any regional energy supply station through the design of the energy supply main pipeline and the energy return main pipeline, therefore, on the energy supply main pipeline, dynamic switch valves are arranged on two sides of the intersection point of the energy supply main pipeline and each energy supply branch pipeline, and on the energy return main pipeline, dynamic switch valves with the same number as the energy supply main pipeline are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline.

It is understood that the network of the system design may be a dendritic network or a ring network. For the dendritic pipe network, the number of dynamic switch valves on the energy supply dry pipeline and the energy return dry pipeline is not more than m+1, and for the annular pipe network, the number of dynamic switch valves on the energy supply dry pipeline and the energy return dry pipeline is not more than m+3. It is understood that m is the number of energy supplied points, i.e. the number of users. It can be understood that if a plurality of energy supply points form a unit, the regional energy supply stations set dynamic switch valves in units of units, that is, when the system pipe network is a dendritic pipe network, the number of the dynamic switch valves should be less than m+1; when the system pipe network is an annular pipe network, the number of the dynamic switch valves is less than m+3. For example, if the number of users is 8, for the dendritic pipe network, the number of dynamic switch valves on the energy supply dry pipeline and the energy return dry pipeline is not more than 9; for the annular pipe network, the number of dynamic switch valves on the energy supply dry pipeline and the energy return dry pipeline is not more than 11.

Referring to fig. 3-a, 3-b, 4-a and 4-b, fig. 3-a, 3-b, 4-a and 4-b are schematic diagrams of the energy supply dry pipeline, the connection mode of the energy supply dry pipeline is not limited thereto, and only the pipe network area setting mode of adjusting and controlling the energy supply range through the dynamic switch valve is within the protection scope of the application. In some embodiments, V1-V13 in the figures represent dynamic switching valves, S1-S10 represent energy supply points, namely, the users S1-S10, and the cold station a and the cold station B represent two regional energy supply stations, it being understood that the regional energy supply stations are not limited to cold stations, but may be stations for supplying other energy sources, such as thermal energy stations.

Referring to fig. 7, in some embodiments, the energy partitioning parameters include: total hourly energy consumption, total daily energy consumption, total energy consumption, first total daily energy supply, second total daily energy supply, total energy supply, peak time energy consumption, peak time total energy consumption, first regional energy supply station peak time energy supply, second regional energy supply station peak time energy supply, and peak time total energy supply; the regional energy supply station comprises a first regional energy supply station and a second regional energy supply station; the zone comprises a first zone and a second zone, the first zone energy supply station provides energy to the first zone, and the second zone energy supply station provides energy to the second zone;

the energy division parameters are calculated by the energy calculation model through the following steps S301 to S310:

step S301, adding the time-by-time energy consumption of the energy supplied points in the first area and the second area according to the corresponding time-by-time energy consumption of each energy supplied point to obtain total time-by-time energy consumption;

step S302, adding the time-by-time energy consumption of each energy supplied point according to the time-by-time energy consumption to obtain the energy consumption of each energy supplied point in the whole day;

Step S303, adding the total daily energy consumption of the energy supplied points in the first area and the second area to obtain the total energy consumption;

step S304, adding the total daily energy consumption of each energy supplied point corresponding to the first area to obtain the first total daily energy supply of the first area energy supply station;

step S305, adding the total daily energy consumption of each energy supplied point corresponding to the second area to obtain the second total daily energy supply of the second area energy supply station;

step S306, calculating the total energy supply according to the sum of the first full-day energy supply and the second full-day energy supply; wherein the total energy consumption is equal to the total energy supply;

step S307, acquiring electricity price peak time, and calculating the energy consumption of the peak time of each energy supplied point according to the total time-by-time energy consumption;

step S308, adding the energy consumption in the peak time period of the energy supplied points in the first area and the second area, and calculating the total energy consumption in the peak time period;

step S309, adding up the peak period energy consumption of each energy supplied point corresponding to the first area to obtain the peak period energy supply of the first area energy supply station; adding the energy consumption of the peak time period of each energy supplied point corresponding to the second area to obtain the energy supply of the peak time period of the second area energy supply station;

Step S310, obtaining total energy supply quantity in peak time according to the sum of the energy supply quantity in peak time of the first regional energy supply station and the energy supply quantity in peak time of the second regional energy supply station; wherein the peak total energy consumption amount and the peak total energy supply amount are equal.

It can be understood that the above calculation order is not sequential, as long as the correct result can be calculated according to the relevant parameters. In some embodiments, the first regional energy supply station is cold station a and the second regional energy supply station is cold station B.

In some embodiments, the total time-by-time energy consumption is the time-by-time energy consumption of all the energy supplied points in each hour system, i.e., the time-by-time energy consumption of all the energy supplied points in cold station a and cold station B. For example, the total time-by-time energy consumption may represent the sum of the energy consumption amounts of all the energy supplied points of the system within the one hour from 9 hours to 10 hours. Specifically, the total time-by-time energy consumption is calculated by the following formula:

（1）

it will be appreciated that, in equation (1),（/>) The time-by-time energy consumption of each energy supply point is represented, i represents the i-th energy supply point (user), m represents m energy supply points in total in the system, and j represents the j-th hour.

In some embodiments, the total daily energy consumption is the total daily energy consumption of a single energy supply point, such as the total daily energy consumption of S1, or the total daily energy consumption of S2. Specifically, the energy consumption amount in the whole day is calculated by the following formula

（2）

Wherein, the liquid crystal display device comprises a liquid crystal display device,represents the energy consumption of the whole day, +.>（/>) Represents the time-by-time energy consumption of each energy supplied point.

In some embodiments, the total energy consumption represents the energy consumption of all the energy supplied points in the system all the days, e.g. 20 energy supplied points in the system, and then the total energy consumption represents the energy consumption of the 20 energy supplied points all the days. Source consumption. Specifically, the total energy consumption is calculated from the following formula:

（3）

wherein, the liquid crystal display device comprises a liquid crystal display device,representing total energy consumption, +.>Represents the energy consumption amount in the whole day, and m represents the number of points supplied by energy.

In some embodiments, the total daily energy consumption of the energy supply points corresponding to the first area is added to obtain a first total daily energy supply amount of the energy supply station of the first area, and if, for example, there are 8 energy supply points in the first area, the first total daily energy supply amount represents the energy supplied by the energy supply station of the area to the 8 users for one day. Specifically, the first full day energy supply amount is calculated by the following formula:

（4）

Wherein, the liquid crystal display device comprises a liquid crystal display device,indicating the first full day energy supply, < >>Representing the number of energy supply points (users) of the first area,indicating the energy consumption throughout the day.

In some embodiments, the total daily energy consumption of the respective energy supply points corresponding to the second region is added to obtain a second total daily energy supply of the energy supply station of the second region, and if there are 10 energy supply points in the second region, for example, the second total daily energy supply represents the energy supplied by the energy supply station of the region to the 10 users for one day. Specifically, the energy supply amount for the next full day is calculated by the following formula:

（5）

wherein, the liquid crystal display device comprises a liquid crystal display device,indicating the energy supply amount of the second whole day, < > and the like>Representing the number of energy supply points (users) of the second domain +.>Indicating the energy consumption throughout the day.

In some embodiments, the total energy supply is the sum of the energy supplies of all areas of the system. Illustratively, if there are a region a and a region B in the system, the total energy supply amount is the sum of the energy supply amounts of the region a and the region B. Specifically, the total energy supply amount is calculated by the following formula:

（6）

wherein, the liquid crystal display device comprises a liquid crystal display device,representing total energy supply, +.>Indicating the first full day energy supply, < > >Representing the energy supply amount the next full day.

In some embodiments, m represents the number of all energy points supplied within the system, i.e., the number of all users within the system. Illustratively, if there are a region a and a region B in the system, then m is the sum of the number of energy supplied points in the a region and the B region.

（7）

Wherein m is the total number of energy supplied points,representing the number of energy supply points (users) of the first area, +.>Representing the number of energy supply points (users) of the second domain.

In some embodiments, the peak period is the period with highest electricity price in one day, such as in one day, the electricity price may be 0.2 yuan, 0.6 yuan, 0.9 yuan, then the electricity price peak period is the period corresponding to 0.9 yuan, the flat period is the period with electricity price in one day at middle price, such as 0.6 yuan, and the low peak period is the period with electricity price in one day at lowest price, such as 0.2 yuan. It will be appreciated that there may be a plurality of peak, flat, and low peak periods in a day, for example, if 0.2, 0.5, 0.7, 0.9, are present in the price of electricity in a day. Then 0.7 element, 0.9 element may be set as the peak period, or 0.5 element, 0.7 element may be set as the flat period, which is not particularly limited by the embodiments of the present application. In some embodiments, the peak energy consumption may refer not only to the electricity price peak energy consumption, but also to the electricity consumption peak energy consumption, which is not particularly limited in the embodiments of the present application. In some embodiments, the peak energy consumption is the energy consumption of one day at each energy supplied point during peak electricity price hours, such as the energy consumption of one day at peak electricity price hours of user S1, the energy consumption of one day at peak electricity price hours of user S2, etc.. Illustratively, if the peak electricity price hours of one day is 9-10.5, 14-16.5, 19-21, then the peak energy consumption of each energy supplied point is:

（8）

Wherein, the liquid crystal display device comprises a liquid crystal display device,represents the energy consumption in the peak period, +.>（/>) Represents the time-by-time energy consumption of each energy supplied point.

In some embodiments, the peak total energy consumption amount represents the energy consumption amount of all the energy supplied points in the system during the peak period of the day, that is, the peak total energy consumption amount represents the energy consumption amount of all the energy supplied points in all the areas where the system supplies energy during the peak period of the day. Illustratively, if the number of energy supply points (users) within the system is 20, the peak period total energy consumption amount represents the energy consumption amounts of 20 users in the peak period of electricity prices of one day. Specifically, the peak period total energy consumption is calculated by the following formula:

（9）

wherein, the liquid crystal display device comprises a liquid crystal display device,represents the total energy consumption during peak hours, +.>The peak period energy consumption is represented, and m represents the number of users at the energy supply point in the system.

In some embodiments, the first regional energy supply station peak time energy supply amount represents the energy supply amount of all energy supplied points of the regional energy supply station in the first region of the peak time of day, in some embodiments, the first region is region a. Specifically, if there are 12 energy supplied points in the a region, the energy supply amount in the peak period of the first regional energy supply station represents the total energy supply amount of the regional energy supply station to the 12 energy supplied points in the peak period of the day. Specifically, the calculation formula of the energy supply amount in the peak period of the first regional energy supply station is as follows:

（10）

Wherein, the liquid crystal display device comprises a liquid crystal display device,represents the peak energy supply amount of the first regional energy supply station, +.>Represents the energy consumption in the peak period, +.>Representing the number of energy supply points (users) for zone a.

In some embodiments, the second regional energy supply station peak time period energy supply amount represents the energy supply amount of all energy supplied points of the regional energy supply station in the second region of the peak time period of the day, and in some embodiments, the second region is region B. Specifically, if there are 18 energy supply points in the a region, the energy supply amount in the peak period of the second regional energy supply station represents the total energy supply amount of the regional energy supply station to the 18 energy supply points in the peak period of the day. Specifically, the calculation formula of the energy supply amount in the peak period of the second regional energy supply station is as follows:

（11）

wherein, the liquid crystal display device comprises a liquid crystal display device,represents the peak energy supply amount of the first regional energy supply station, +.>Represents the energy consumption in the peak period, +.>Representing the number of energy supply points (users) of the second domain.

In some embodiments, the peak total energy supply is the sum of the energy flows supplied by the regional energy supply stations in the system to all energy supplied points during peak hours of the day, that is, the sum of the energy flows supplied by the regional energy supply stations to all supply regions during peak hours of the day. Illustratively, if there are two regional energy supply stations, station a and station B, within the system, then the peak period total energy supply is the sum of the energy supply of station a and the energy supply of station B. In some embodiments, the calculation formula of the peak period total energy supply amount is:

（12）

Wherein, the liquid crystal display device comprises a liquid crystal display device,for peak time periodSource supply quantity,/->Represents the peak energy supply amount of the first regional energy supply station, +.>Representing the energy supply amount at the peak time of the first regional energy supply station.

Referring to fig. 8, in some embodiments, step S103 includes, but is not limited to, steps S401 to S402:

step S401, obtaining total energy consumption and energy storage sum, and comparing the total energy consumption with the energy storage sum; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum;

step S402, if the total energy consumption is less than or equal to the energy storage sum, dividing energy supply ranges corresponding to the plurality of regional energy supply stations to obtain a first region corresponding to the first regional energy supply station and a second region corresponding to the second regional energy supply station; the first total-day energy supply quantity corresponding to the first area is smaller than or equal to the first area energy storage sum, and the second total-day energy supply quantity corresponding to the second area is smaller than or equal to the second area energy storage sum;

or if the total energy consumption is less than or equal to the sum of the first regional energy storages, providing energy to the system by the first regional energy supply station;

or if the total energy consumption is less than or equal to the sum of the energy storage of the second area, providing energy to the system by the second area energy supply station.

In some embodiments, the first regional energy supply station may be a cold station a and the second regional energy supply station may be a cold station B, the cold station a configuring the chiller capacityTen thousands kW cold accumulation capacity of cold station A>Ten thousand kWh; cold station B is provided with the installed capacity of the refrigerator>Ten thousands kW cold accumulation capacity of cold station B +.>Ten thousand kWh. In some embodiments, the sum of the stored energy is the sum of the cold storage capacities of cold station a and cold station B.

It is understood that the cold storage is used to provide ice melting refrigeration to the system and the installed capacity is the refrigerator refrigeration. It can be understood that the refrigerating machine is used for refrigerating by mechanically compressing and expanding working medium to absorb and release heat so as to reduce the temperature, and the ice-melting refrigerating is used for absorbing heat by utilizing the phase change (melting) of substances so as to achieve the effect of reducing the temperature. Because ice-melting refrigeration only needs to provide enough heat to melt ice, and does not need to consume a large amount of electricity to drive the mechanical compression and expansion working medium like refrigerating by a refrigerator, the energy consumed by ice-melting refrigeration is less than that consumed by refrigerating by the refrigerator, and a large amount of electricity is saved compared with that consumed by refrigerating by the refrigerator. In addition, ice melting and refrigeration can also utilize heat in the environment to accelerate ice melting, so that less energy is consumed. It will be appreciated that energy storage (ice storage) is typically performed at night, as the system is not only less energy consuming at night, but also has a lower electricity price than at daytime.

In some embodiments, the total energy consumption and the stored energy sum may be compared to determine a supply scenario. Specifically, if the total energy consumption is smaller than the energy storage sum, the energy storage sum is enough to provide energy for the whole system, a refrigerator is not needed to be used for refrigeration, and the system meets the whole-day ice melting and cooling conditions. It can be understood that since cold accumulation is performed when the electricity price is lowest at night and ice melting and cooling are adopted in the daytime, the most economical cooling operation in the whole day can be ensured by adopting full ice melting and cooling. In some embodiments, cold storage may be performed at low electricity rates, such as 1-7 hours, and 24-0 hours.

Referring to FIGS. 9-a and 9-b, in some embodiments, whenWhen the total energy consumption is less than or equal to the energy storage sum, the energy is supplied according to each energyThe points are arranged at the positions of pipe networks to divide cold supply areas of the cold stations A and B, so that the first total energy supply amount after the cold supply is smaller than or equal to the cold storage capacity of the cold station A, and the second total energy supply amount is smaller than or equal to the cold storage capacity of the cold station B, namely->，/>So as to ensure that all the areas of the system can adopt full ice melting and cooling so as to realize the most economical energy supply mode.

10-a and 10-b, in some embodiments, if the total energy consumption is less than or equal to the first zone energy storage sum, i.eThe entire system can be supplied with energy by the cold station a alone. It will be appreciated that the entire system may also be powered by a combination of cold stations a and B, as embodiments of the present application are not particularly limited.

Referring to FIGS. 11-a and 11-b, in some embodiments, if the total energy consumption is less than or equal to the second zone energy storage sum, i.eThe entire system can be supplied with energy by the cold station B alone. It will be appreciated that the entire system may also be powered by a combination of cold stations a and B, as embodiments of the present application are not particularly limited.

Referring to fig. 12, in some embodiments, step S103 further includes, but is not limited to, steps S501 to S503:

step S501, obtaining the total energy supply quantity and the total energy supply quantity in the peak period, and comparing the total energy supply quantity and the total energy supply quantity in the peak period;

step S502, obtaining total time-by-time energy consumption and the sum of the residual energy storage capacity and the energy production capacity in the peak time period, and comparing the total time-by-time energy consumption with the sum of the residual energy storage capacity and the energy production capacity in the peak time period;

Step S503, if the energy storage sum is greater than or equal to the total energy supply amount and less than the total energy supply amount in the peak period, and the sum of the remaining energy storage amount and the energy production amount in the peak period is greater than the total time-by-time energy consumption amount, setting the energy storage sum in the first area to be greater than or equal to the energy supply amount in the peak period of the first area energy supply station, and setting the energy storage sum in the second area to be greater than or equal to the energy supply amount in the peak period of the second area energy supply station; energy is provided by adopting energy storage in peak time, and energy is provided by adopting residual energy storage and energy production in ordinary time; wherein the energy is generated by an energy generator; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum, the residual energy storage amount is obtained by subtracting the total energy supply amount of the peak period from the energy storage sum, and it is understood that when the total energy supply amount of the peak period is exactly equal to the total energy storage sum, the residual energy storage amount in the normal period is 0, that is, the residual energy storage amount is 0, and at the moment, the energy production mechanism energy is adopted in the normal period.

In some embodiments, the energy dividing parameters may be obtained through an energy calculation model, and the sum of the total energy supply amount, the total time-by-time energy consumption amount, and the remaining energy storage amount and the energy production amount in the peak period may be known. In some embodiments, the peak total energy supply may be [ ] ) Sum of energy storage ()>) And total energy supply quantity (+)>) Comparing the total time-by-time energy consumption (++>) The sum of the residual energy storage and the energy production in peak time) A comparison is made to determine the specific supply scenario.

In some embodiments, if the sum of the stored energy is greater than or equal to the total energy supply during peak hours and less than the total energy supply, and the sum of the remaining stored energy and the produced energy during peak hours is greater than the total on-time energy consumption, i.e.And->. It can be understood that, because the electricity price is high in the peak period, and the ice melting refrigeration is more energy-saving than the refrigeration, the formulated target division strategy should preferably satisfy the ice melting refrigeration in the peak period of the electricity price, and then preferably satisfy the ice melting refrigeration in the flat period, and the part with insufficient ice melting and refrigeration in the ordinary period adopts ice melting and refrigerant combined refrigeration. It can be understood that the normal period ice melting refrigerating capacity is the residual ice melting capacity used in the electricity consumption peak period.

It can be understood that the ice melting refrigeration is adopted in the peak period of electricity price, the ice melting refrigeration is adopted in the ordinary period, and the refrigerator is adopted for the part with insufficient ice melting, so that the electricity fee can be saved to the greatest extent. It can be understood that, according to the position of the energy supply point in the pipe network, in the target division strategy, the energy storage sum of the first area corresponding to the divided first area should be larger than the energy supply amount of the peak period of the first area energy supply station, and the energy storage sum of the second area corresponding to the divided second area should be larger than the energy supply amount of the peak period of the second area energy supply station, namely ，/>Thereby ensuring that the peak time of the first area and the second area can adopt full ice melting for cooling.

Referring to fig. 13-a and 13-B, fig. 13-a and 13-B are schematic diagrams of cooling station a and cooling station B in the system using ice-melting refrigeration during peak hours and using ice-melting and ice-making machine during normal times.

Referring to fig. 14-a and 14-B, fig. 14-a and 14-B are schematic diagrams of the system in which the cold stations a and B use ice-melting refrigeration during peak periods and use ice-making machines for refrigeration during normal periods, and the peak periods just consume the ice-storage amount, so that the ice-making machines are used for refrigeration during normal periods. It is understood that when dividing each energy supply area, the amount of melted ice should be ensured to be consumed, so that a cost calculation model may be used to calculate the operation cost of the multiple division schemes, and a target division strategy corresponding to the operation cost with the lowest price may be used.

Referring to fig. 15, in some embodiments, step S103 further includes, but is not limited to, steps S601 to S603:

step S601, obtaining the total energy supply quantity and the total energy supply quantity in the peak period, and comparing the total energy supply quantity and the total energy supply quantity in the peak period;

Step S602, obtaining total time-by-time energy consumption and the sum of the residual energy storage capacity and the energy production capacity in the peak time, and comparing the total time-by-time energy consumption with the sum of the residual energy storage capacity and the energy production capacity in the peak time;

step S603, if the energy storage sum is greater than or equal to the total energy supply amount and less than the total energy supply amount in the peak period, and the sum of the remaining energy storage amount and the energy production amount in the peak period is less than the total time-by-time energy consumption amount, energy storage and energy production are adopted to provide energy in the peak period and the average period;

the following constraint conditions are satisfied when energy storage and energy preparation are adopted to provide energy in peak time and average time:

the total energy supply amount in the peak period is larger than or equal to the energy consumption amount in the peak period;

the total energy supply amount is greater than or equal to the total energy consumption amount;

the overall price is minimal; the total price refers to the sum of peak time electricity prices and ordinary time electricity prices.

In some embodiments, the energy division parameters are calculated by an energy calculation model, thereby obtaining a total energy supply amount, a total time-by-time energy consumption amount, and a sum of remaining energy storage amount and energy production amount in the peak period. In some embodiments, if the sum of the energy stores is ) Is greater than or equal to the total energy supply amount in the peak period (+)>) And is smaller than the total energy supply (+)>) And the sum of the remaining energy and the energy production in the peak period (+)>) Less than total time-by-time energy consumption (+)>) I.e. +.>，/>The method is characterized in that the total cooling requirement of each hour of the flat period cannot be met due to the fact that the residual ice melting amount in the ordinary period and the refrigerating capacity of the refrigerating machine cannot meet the total cooling requirement of each hour of the flat period, the cooling quality of a user is reduced due to the fact that the total cooling requirement of each hour of the flat period cannot be met, the ice melting amount in the peak period needs to be reduced, the ice melting amount in part of the peak period is transferred to the ordinary period for cooling, and meanwhile, in order to ensure the cooling quality in the peak period, the refrigerating machine needs to be started in the peak period, and the refrigerating machine and the ice melting combined cooling is adopted. It can be understood that under the condition of meeting the cooling requirements of other periods, ice melting and cooling are adopted as much as possible in the peak period, and at this time, the cost calculation model can be used for calculating the division plan cost of each functional range. It can be understood that the cost calculation model can calculate the total cost of the system operation by using the cooling capacity according to the electric charge of each period, the dividing range of the energy supply points. In some embodiments, the minimum operating cost of cold station A is +. >Minimum operation of cold station BThe cost is->The total running cost of the system is +.>，Indicating the choice of minimum total operating costs, i.e. +.>，/>. In some embodiments, the policies of the cold stations a and B may be optimized continuously to obtain the lowest running cost of each cold station, selecting the dividing range with the smallest overall price to divide the optimal cooling range, and adjusting the on-off state of each dynamic switch valve according to the optimal cooling range.

Referring to fig. 16-a and 16-b, an operation scenario diagram after the optimal range division is performed. In fig. 16-a and 16-b, since the flat period uses only the refrigerator for cooling and cannot meet the cooling requirement of the energy supply point (user), the ice melting and refrigerating machine is used for cooling in the flat period, and since part of the ice storage amount in the peak period is transferred to the flat period for cooling, the ice melting and refrigerating machine is also used for cooling in the peak period for combined cooling.

17-a and 17-b, on the basis of the above-mentioned peak period and average period adopting the ice melting and refrigerating machine refrigeration scenario, as the cooling demand of the flat period increases, the ice melting amount of the flat period also increases, so that the ice melting amount of the peak period gradually decreases, the number of the refrigerating machines which are started and the load rate of the refrigerating machines gradually increase until all the refrigerating machines in the system reach full-load operation, and the maximum cooling capacity of the cold station, namely the designed cooling capacity of the cold station, is achieved. At this time, the calculation is still carried out according to the maximum cost of the cost calculation model, the range corresponding to the minimum operation cost is obtained, and the opening or closing of the dynamic switch valve is controlled according to the range.

Referring to fig. 18, in some embodiments, after the dynamic switching valve of each energy supply point is adjusted, steps S701 to S704 are further included, but not limited to:

step S701, acquiring a working lift range of an area energy supply station;

step S702, obtaining a supply type selection parameter according to a preset characteristic curve set of a supply device and a working lift range;

step S703, predicting the working parameters of the regional energy supply station according to the time-by-time energy consumption and the supply type selection parameters of each energy supply point;

step S704, calibrating the number of supply devices and the operation frequency of the regional energy supply station according to the predicted operation parameters.

In some embodiments, a pipe network calculation model corresponding to the regional energy supply station can be obtained by measuring the energy flow of each energy supplied point in the energy supply range of each regional energy supply station, then the working lift range of the supply device in the regional energy supply station is obtained by the pipe network calculation model corresponding to the regional energy supply station, and further the supply type selection parameters are obtained according to a preset characteristic curve set and the working lift range of the supply device.

In some embodiments, a plurality of pipe network operation conditions under each regional energy supply station may be obtained, where each pipe network operation condition is used to represent a load factor combination relationship of a plurality of users, and the operation conditions of any two pipe networks are different. In some embodiments, the lift of the supply device corresponding to each pipe network operation condition may be calculated according to a pipe network calculation model, and the multiple pipe network operation conditions and the lifts of the supply devices corresponding to the pipe network operation conditions are fitted to obtain a regional total load rate model, and the working lift range is determined according to the regional total load rate model.

It will be appreciated that the zone total load rate model is determined by the time-by-time energy consumption of each energy supplied point within the zone.

In some embodiments, the predetermined set of feeder characteristics is determined by feeder factory parameters, each model of feeder having a respective characteristic. That is, each energy supply device controlled by the regional energy supply station has a respective characteristic curve.

In some embodiments, the operating parameters include the number of supplies and the operating frequency. The method can predict the working parameters of the regional energy supply station according to the time-by-time energy consumption and the supply type selection parameters of each energy supply point, and calibrate the number and the operating frequency of the supply devices of the regional energy supply station according to the predicted working parameters, so that the control of regional energy can be effectively simplified.

Referring to fig. 19, an embodiment of the present application further provides a multi-area energy station supply apparatus, which may implement the multi-area energy station supply method, where the multi-area energy station supply apparatus includes:

a time-by-time energy consumption detection module 1901 for detecting time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time;

The energy division parameter calculation module 1902 is configured to input the time-by-time energy consumption into the energy calculation model for calculation, so as to obtain energy division parameters;

the target division policy obtaining module 1903 is configured to divide an energy supply range of the regional energy supply station according to the energy division parameter and the supply scene to obtain a target division policy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve;

the energy supply range dividing module 1904 is configured to adjust the dynamic switch valve of each energy supply point according to the target division policy, so as to divide the energy supply range of the regional energy supply station.

The specific implementation of the multi-zone power station supply device is basically the same as the specific embodiment of the multi-zone power station supply method described above, and will not be described herein. On the premise of meeting the requirements of the embodiment of the application, the multi-zone energy station supply device can be further provided with other functional modules so as to realize the multi-zone energy station supply method in the embodiment.

The embodiment of the application also provides electronic equipment, which comprises a memory and a processor, wherein the memory stores a computer program, and the processor realizes the multi-region energy station supply method when executing the computer program. The electronic equipment can be any intelligent terminal including a tablet personal computer, a vehicle-mounted computer and the like.

Referring to fig. 20, fig. 20 illustrates a hardware structure of an electronic device according to another embodiment, the electronic device includes:

the processor 2001 may be implemented by a general-purpose CPU (central processing unit), a microprocessor, an application-specific integrated circuit (ApplicationSpecificIntegratedCircuit, ASIC), or one or more integrated circuits, etc. for executing related programs to implement the technical solutions provided in the embodiments of the present application;

memory 2002 may be implemented in the form of read-only memory (ReadOnlyMemory, ROM), static storage, dynamic storage, or random access memory (RandomAccessMemory, RAM), among others. Memory 2002 may store an operating system and other application programs, and when the technical solutions provided by the embodiments of the present application are implemented in software or firmware, relevant program codes are stored in memory 2002 and the processor 2001 invokes the multi-regional power station provisioning method for performing the embodiments of the present application;

An input/output interface 2003 for implementing information input and output;

the communication interface 2004 is configured to implement communication interaction between the present device and other devices, and may implement communication in a wired manner (e.g., USB, network cable, etc.), or may implement communication in a wireless manner (e.g., mobile network, WIFI, bluetooth, etc.);

a bus 2005 for transferring information between various components of the device (e.g., the processor 2001, memory 2002, input/output interface 2003, and communication interface 2004);

wherein the processor 2001, the memory 2002, the input/output interface 2003 and the communication interface 2004 realize a communication connection between each other inside the device through the bus 2005.

Embodiments of the present application also provide a computer readable medium storing a computer program which, when executed by a processor, implements the above-described multi-zone energy station provisioning method.

The memory, as a non-transitory computer readable medium, may be used to store non-transitory software programs as well as non-transitory computer executable programs. In addition, the memory may include high-speed random access memory, and may also include non-transitory memory, such as at least one magnetic disk storage device, flash memory device, or other non-transitory solid state storage device. In some embodiments, the memory optionally includes memory remotely located relative to the processor, the remote memory being connectable to the processor through a network. Examples of such networks include, but are not limited to, the internet, intranets, local area networks, mobile communication networks, and combinations thereof.

The embodiments described in the embodiments of the present application are for more clearly describing the technical solutions of the embodiments of the present application, and do not constitute a limitation on the technical solutions provided by the embodiments of the present application, and as those skilled in the art can know that, with the evolution of technology and the appearance of new application scenarios, the technical solutions provided by the embodiments of the present application are equally applicable to similar technical problems.

It will be appreciated by those skilled in the art that the technical solutions shown in the figures do not constitute limitations of the embodiments of the present application, and may include more or fewer steps than shown, or may combine certain steps, or different steps.

The above described apparatus embodiments are merely illustrative, wherein the units illustrated as separate components may or may not be physically separate, i.e. may be located in one place, or may be distributed over a plurality of network elements. Some or all of the modules may be selected according to actual needs to achieve the purpose of the solution of this embodiment.

Those of ordinary skill in the art will appreciate that all or some of the steps of the methods, systems, functional modules/units in the devices disclosed above may be implemented as software, firmware, hardware, and suitable combinations thereof.

The terms "first," "second," "third," "fourth," and the like in the description of the present application and in the above-described figures, if any, are used for distinguishing between similar objects and not necessarily for describing a particular sequential or chronological order. It is to be understood that the data so used may be interchanged where appropriate such that embodiments of the present application described herein may be implemented in sequences other than those illustrated or otherwise described herein. Furthermore, the terms "comprises," "comprising," and "having," and any variations thereof, are intended to cover a non-exclusive inclusion, such that a process, method, system, article, or apparatus that comprises a list of steps or elements is not necessarily limited to those steps or elements expressly listed but may include other steps or elements not expressly listed or inherent to such process, method, article, or apparatus.

It should be understood that in this application, "at least one (item)" and "a number" mean one or more, and "a plurality" means two or more. "and/or" for describing the association relationship of the association object, the representation may have three relationships, for example, "a and/or B" may represent: only a, only B and both a and B are present, wherein a, B may be singular or plural. The character "/" generally indicates that the context-dependent object is an "or" relationship. "at least one of" or the like means any combination of these items, including any combination of single item(s) or plural items(s). For example, at least one (one) of a, b or c may represent: a, b, c, "a and b", "a and c", "b and c", or "a and b and c", wherein a, b, c may be single or plural.

In the several embodiments provided in this application, it should be understood that the disclosed systems and methods may be implemented in other ways. For example, the system embodiments described above are merely illustrative, e.g., the division of the above elements is merely a logical functional division, and there may be additional divisions in actual implementation, e.g., multiple elements or components may be combined or integrated into another system, or some features may be omitted, or not performed. Alternatively, the coupling or direct coupling or communication connection shown or discussed with each other may be an indirect coupling or communication connection via some interfaces, devices or units, which may be in electrical, mechanical or other form.

The units described above as separate components may or may not be physically separate, and components shown as units may or may not be physical units, may be located in one place, or may be distributed over a plurality of network units. Some or all of the units may be selected according to actual needs to achieve the purpose of the solution of this embodiment.

In addition, each functional unit in each embodiment of the present application may be integrated in one processing unit, or each unit may exist alone physically, or two or more units may be integrated in one unit. The integrated units may be implemented in hardware or in software functional units.

The integrated units, if implemented in the form of software functional units and sold or used as stand-alone products, may be stored in a computer readable medium. Based on such understanding, the technical solution of the present application may be embodied in essence or a part contributing to the prior art or all or part of the technical solution in the form of a software product stored in a medium, including multiple instructions to cause a computer device (which may be a personal computer, a server, or a network device, etc.) to perform all or part of the steps of the methods of the various embodiments of the present application. And the aforementioned medium includes: a U-disk, a removable hard disk, a Read-Only Memory (ROM), a random access Memory (Random Access Memory, RAM), a magnetic disk, or an optical disk, or other various media capable of storing a program.

Preferred embodiments of the present application are described above with reference to the accompanying drawings, and thus do not limit the scope of the claims of the embodiments of the present application. Any modifications, equivalent substitutions and improvements made by those skilled in the art without departing from the scope and spirit of the embodiments of the present application shall fall within the scope of the claims of the embodiments of the present application.

Claims

1. A multi-zone energy station supply method, characterized by being applied to a multi-zone energy station supply system, the system comprising:

at least two regional energy supply stations;

a plurality of energy supply points; wherein, the energy supply stations supply energy to the energy supply points;

the main pipeline is connected with the regional energy supply station;

the branch pipelines are used for connecting the main pipeline and the corresponding energy supply points;

the dynamic switch valve is positioned on the main pipeline and arranged on two sides of the intersection point of each branch pipeline and the main pipeline;

the controller is used for controlling the switching state of the dynamic switching valve so as to control the energy paths of the energy supply stations of each area and the corresponding energy supplied points, thereby dividing the energy supply range of the energy supply stations of each area;

the method comprises the following steps:

detecting the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time;

inputting the time-by-time energy consumption into an energy calculation model for calculation to obtain energy dividing parameters;

dividing the energy supply range of the regional energy supply station according to the energy division parameters and the supply scene to obtain a target division strategy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve;

And adjusting the dynamic switch valve of each energy supply point according to the target division strategy so as to divide the energy supply range of the regional energy supply station.

2. The multi-zone energy station supply method of claim 1, wherein the main pipeline comprises an energy supply main pipeline and an energy return main pipeline, and the branch pipeline comprises an energy supply branch pipeline and an energy return branch pipeline; the energy supply dry pipeline is connected with the energy supply point through the energy supply branch pipeline, and the energy return dry pipeline is connected with the energy supply point through the energy return branch pipeline; the method further comprises the steps of:

dynamic switch valves, the quantity of which is equal to that of the energy supply main pipelines, are arranged on two sides of the intersection point of the energy return main pipeline and each energy return branch pipeline on the energy return main pipeline, so that each regional energy supply station can provide energy for any energy supply point in the system through the adjustment of the dynamic switch valves;

if the system pipe network is a dendritic pipe network, the total number of dynamic switch valves on the energy supply pipe of each system is m+1, and the total number of dynamic switch valves on the energy return pipe of the system is m+1; if the system pipe network is an annular pipe network, the total number of dynamic switch valves on the energy supply pipes of each system is m+3, and the total number of dynamic switch valves on the energy return pipes in each system is m+3; and m is the number of the energy supplied points, and m is a positive integer greater than or equal to 1.

3. The multi-zone energy station delivery method of claim 1, wherein the energy partitioning parameters include: total hourly energy consumption, total daily energy consumption, total energy consumption, first total daily energy supply, second total daily energy supply, total energy supply, peak time energy consumption, peak time total energy consumption, first regional energy supply station peak time energy supply, second regional energy supply station peak time energy supply, and peak time total energy supply; the regional energy supply station comprises a first regional energy supply station and a second regional energy supply station; the zone comprises a first zone and a second zone, the first zone energy supply station providing energy to the first zone and the second zone energy supply station providing energy to the second zone;

the energy division parameters are calculated by the energy calculation model through the following modes:

according to the time-by-time energy consumption corresponding to each energy supplied point, adding the time-by-time energy consumption of the energy supplied points in the first area and the second area to obtain total time-by-time energy consumption;

Adding the time-by-time energy consumption of each energy supplied point according to the time-by-time energy consumption to obtain the total daily energy consumption of each energy supplied point;

adding the total daily energy consumption of the energy supplied points in the first area and the second area to obtain total energy consumption;

adding the total daily energy consumption of each energy supplied point corresponding to the first area to obtain a first total daily energy supply of the first area energy supply station;

adding the total daily energy consumption of each energy supplied point corresponding to the second area to obtain a second total daily energy supply of the second area energy supply station;

calculating a total energy supply amount according to the sum of the first full-day energy supply amount and the second full-day energy supply amount; wherein the total energy consumption is equal to the total energy supply;

acquiring electricity price peak time, and calculating energy consumption of each energy supplied point in the peak time according to the total time-by-time energy consumption;

adding the peak energy consumption of the energy supplied points in the first area and the second area, and calculating the total energy consumption in the peak time;

Adding the peak energy consumption of each energy supplied point corresponding to the first area to obtain the peak energy supply of the first area energy supply station; adding the peak energy consumption of each energy supplied point corresponding to the second area to obtain the peak energy supply of the second area energy supply station;

obtaining total energy supply quantity in peak time according to the sum of the energy supply quantity in peak time of the first regional energy supply station and the energy supply quantity in peak time of the second regional energy supply station; wherein the peak total energy consumption amount and the peak total energy supply amount are equal.

4. The multi-regional energy supply method of claim 3, wherein the dividing the energy supply range of the regional energy supply station according to the energy division parameter and the supply scene to obtain a target division policy includes:

acquiring total energy consumption and energy storage sum, and comparing the total energy consumption with the energy storage sum; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum;

If the total energy consumption is smaller than or equal to the energy storage sum, dividing energy supply ranges corresponding to the regional energy supply stations to obtain a first region corresponding to the first regional energy supply station and a second region corresponding to the second regional energy supply station; the first total-day energy supply quantity corresponding to the first area is smaller than or equal to the first area energy storage sum, and the second total-day energy supply quantity corresponding to the second area is smaller than or equal to the second area energy storage sum;

5. The multi-zone energy supply method according to claim 3, wherein the dividing the energy supply range of the zone energy supply station according to the energy division parameter and the supply scene to obtain a target division policy, further comprises:

acquiring a peak period total energy supply amount and a total energy supply amount, and comparing the peak period total energy supply amount with the total energy supply amount;

Acquiring total time-by-time energy consumption and the sum of the residual energy storage capacity and the energy production capacity of a peak period, and comparing the total time-by-time energy consumption with the sum of the residual energy storage capacity and the energy production capacity of the peak period;

if the energy storage sum is greater than or equal to the total energy supply amount in the peak period and less than the total energy supply amount, and the sum of the residual energy storage amount and the energy production amount in the peak period is greater than the total time-by-time energy consumption amount, setting the energy storage sum in the first area to be greater than or equal to the energy supply amount in the peak period of the first area energy supply station, and setting the energy storage sum in the second area to be greater than or equal to the energy supply amount in the peak period of the second area energy supply station; energy is provided by adopting energy storage in peak time, and energy is provided by adopting residual energy storage and energy production in ordinary time; wherein the energy production is generated by an energy production machine; the energy storage sum comprises a first area energy storage sum and a second area energy storage sum, and the residual energy storage quantity is obtained by subtracting the total energy supply quantity in the peak time from the energy storage sum.

6. The multi-zone energy supply method according to claim 3, wherein the dividing the energy supply range of the zone energy supply station according to the energy division parameter and the supply scene to obtain a target division policy, further comprises:

if the energy storage sum is greater than or equal to the total energy supply amount and less than the total energy supply amount in the peak period, and the sum of the residual energy storage amount and the energy production amount in the peak period is less than the total time-by-time energy consumption amount, energy storage and energy production are adopted to provide energy in the peak period and the average period;

the energy storage and energy production are adopted to provide energy in the peak time and the normal time, and the following constraint conditions are met:

the overall price is minimal; the total price refers to the sum of peak time electricity prices and normal time electricity prices.

7. The multi-zone energy station supply method of claim 1, further comprising, after said adjusting said dynamic switching valve of each of said energy supply points:

Acquiring the working lift range of the regional energy supply station;

obtaining a supply type selection parameter according to a preset characteristic curve set of the supply device and the working lift range;

predicting working parameters of the regional energy supply station according to the time-by-time energy consumption of each energy supply point and the supply type selection parameters;

and calibrating the number and the operating frequency of the supply devices of the regional energy supply station according to the predicted operating parameters.

8. A multi-zone energy station supply system, the system comprising:

at least two regional energy supply stations;

the main pipeline is connected with the regional energy supply station;

and the controller is used for controlling the switching state of the dynamic switching valve so as to control the energy paths of the energy supply stations of each area and the corresponding energy supplied points, thereby dividing the energy supply range of the energy supply stations of each area.

9. The multi-zone energy station supply system of claim 8, wherein the main conduit comprises a power supply main conduit and a power return main conduit; the energy supply dry pipeline is connected with the energy supply point through an energy supply branch pipeline, and the energy return dry pipeline is connected with the energy supply point through an energy return branch pipeline;

the controller is specifically used for:

10. A multi-zone energy station supply apparatus, the apparatus comprising:

the time-by-time energy consumption detection module is used for detecting the time-by-time energy consumption of each energy supplied point in a plurality of areas at fixed time;

the energy division parameter calculation module is used for inputting the time-by-time energy consumption into an energy calculation model for calculation to obtain energy division parameters;

the target division strategy acquisition module is used for dividing the energy supply range of the regional energy supply station according to the energy division parameters and the supply scene to obtain a target division strategy; the target division strategy is at least used for indicating the switching state of each dynamic switching valve;

and the energy supply range dividing module is used for adjusting the dynamic switch valves of the energy supply points according to the target dividing strategy so as to divide the energy supply range of the regional energy supply station.

11. An electronic device comprising a memory storing a computer program and a processor implementing the multi-zone energy station supply method of any one of claims 1 to 7 when the computer program is executed by the processor.

12. A computer readable medium storing a computer program, characterized in that the computer program, when executed by a processor, implements the multi-zone energy station supply method of any one of claims 1 to 7.