Large airport high-efficiency direct supply type cold and heat source energy supply system

Abstract

The application discloses a large airport efficient direct supply type cold and heat source energy supply system and belongs to the technical field of energy supply supervision. The application is used for solving the poor pertinence and reliability of the autonomous supervision analysis and dynamic implementation of the energy supply regulation of different position regions in an airport in different time periods in the prior art. The energy supply regulation of different position regions in different supervision time periods is supervised and counted, the energy supply regulation states corresponding to different position regions are analyzed, different position regions and different supervision time periods are dynamically marked according to the analysis results, the energy supply regulation scheme is dynamically implemented for different position regions in different supervision time periods, the implementation effect of the dynamically implemented energy supply regulation scheme is supervised and evaluated, and different optimization schemes of the dynamically implemented energy supply regulation scheme of all position regions in the airport are dynamically prompted according to the supervision evaluation results.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of energy supply regulation, in particular to a large airport efficient direct supply type cold and heat source energy supply system. BACKGROUND

[0002] Airport direct supply type cold and heat source energy supply is a high-efficiency energy solution specially designed for large public buildings, especially places with extremely high environmental control requirements such as airports. This energy supply mode mainly refers to providing the required refrigeration and heating services for the airport directly through a centralized cold and heat source station to ensure that the terminal building, the waiting area and other areas maintain a comfortable temperature and good air quality.

[0003] The existing technical solution cannot periodically actively monitor and analyze the different energy supply regulation states of different position areas, determine the different energy supply regulation stable states of different position areas and dynamically mark them, and adaptively implement targeted regional energy supply regulation optimization processing for different position areas according to the dynamic marking results, resulting in poor self-monitoring analysis, dynamic implementation, targeting and reliability of energy supply regulation in different time periods in different position areas of the airport. SUMMARY

[0004] The purpose of the present application is to provide a large airport efficient direct supply type cold and heat source energy supply system to solve the problem of poor self-monitoring analysis, dynamic implementation, targeting and reliability of energy supply regulation in different time periods in different position areas of the airport in the existing solution.

[0005] The purpose of the present application can be achieved by the following technical solution:

[0006] A large airport efficient direct supply type cold and heat source energy supply system comprises a local area energy supply regulation monitoring module for monitoring and counting the energy supply regulation of different position areas of the airport in different monitoring periods, and analyzing the energy supply regulation state corresponding to different position areas, and dynamically marking different position areas and different monitoring periods according to the analysis results;

[0007] A local area energy supply regulation processing module is used to dynamically implement the energy supply regulation scheme for different position areas in different monitoring periods according to the marking of different position areas and different monitoring periods of the airport, monitor and evaluate the implementation effect of the dynamically implemented energy supply regulation scheme, and adaptively dynamically prompt different optimization schemes for the energy supply regulation scheme dynamically implemented in all position areas of the airport according to the monitoring and evaluation results.

[0008] Preferably, the energy supply regulation data in all historical monitoring periods of different position areas of the airport are sequentially acquired and analyzed;

[0009] If the energy supply regulation data in all historical regulatory periods are empty, it is determined that the energy supply of the location area is stable, and the location area is marked as a first region;

[0010] If the energy supply regulation data in all historical regulatory periods are not empty, it is determined that the energy supply of the location area fluctuates, and the location area is marked as a second region;

[0011] In addition, the regulation stability of the energy supply fluctuation of the marked different second regions is analyzed, and the marks of the different second regions are dynamically updated according to the analysis results.

[0012] Preferably, all period energy supply regulation data corresponding to the historical same regulatory period of the second region are obtained, and all period energy supply regulation data are analyzed by iteration;

[0013] If all period energy supply regulation data in the historical same regulatory period are empty, the regulatory period is marked as a first stable target period;

[0014] If all period energy supply regulation data in the historical same regulatory period are the same regulation behavior, the regulatory period is marked as a second target period;

[0015] If all period energy supply regulation data in the historical same regulatory period have different regulation behaviors, the regulatory period is marked as a third target period.

[0016] Preferably, when the different second target periods appearing in the second region are analyzed for the energy supply regulation stability, the total number of regulation behaviors of the marked different second target periods is obtained by calculation to obtain the corresponding regulation implementation ratio;

[0017] If the regulation implementation ratio is greater than a regulation implementation threshold, the energy supply regulation stability label associated with the second target period is obtained, and the mark is updated to a second stable target period;

[0018] Otherwise, the mark of the second target period is maintained.

[0019] Preferably, the calculation formula of the regulation implementation ratio is ; In the formula, TSk is the regulation implementation ratio, k is the number of the marked different second target periods in the second region, k=1, 2, 3, …, n; n is a positive integer; NXk is the total number of different second target period corresponding regulation behaviors; TC is the total number of historical same regulatory periods.

[0020] Preferably, a regular energy supply scheme is implemented for all first regions marked.

[0021] When the dynamic energy supply regulation is performed on all the second regions, the marks corresponding to all the supervision periods of the second regions are obtained, and the conventional energy supply scheme is performed on all the first stable target periods of the second regions.

[0022] The energy supply scheme with the same historical regulation behavior is performed on all the second stable target periods of the second regions.

[0023] In addition, the flexible energy supply regulation scheme is performed on all the second target periods and the third target periods of the second regions.

[0024] Preferably, when the implementation effects of the dynamic energy supply regulation scheme performed on the regions at different positions of the airport in different supervision periods are analyzed, the total amount of energy supply resources consumed and the total amount of data resources consumed in the statistical evaluation period are calculated, and the regulation efficiency XTi is calculated by the formula , wherein i is 1 and 2, respectively, indicating the energy supply resource consumption and the data resource consumption; XTi is XT1 and XT2; XLi is XL1 and XL2, respectively, being the total amount of energy supply resource consumption and the total amount of data resource consumption; , , respectively, being the total amount of standard energy supply resource consumption and the total amount of standard data resource consumption; Bi is the standard value of energy supply resource consumption and the standard value of data resource consumption.

[0025] Preferably, if XT1≤1 or XT2≤1, it is prompted that the dynamic energy supply regulation scheme performed on the regions at different positions of the airport marked in different supervision periods is partially effective, and a first optimization scheme for energy supply regulation is prompted.

[0026] If XT1>1 and XT2>1, it is prompted that the dynamic energy supply regulation scheme performed on the regions at different positions of the airport marked in different supervision periods is totally ineffective, and a second optimization scheme for energy supply regulation is prompted.

[0027] Compared with the prior art, the present application has the following beneficial effects:

[0028] The present application realizes the active supervision and classification marking of the regions at different positions of the airport and the supervision periods by supervising and counting the energy supply regulation of the regions at different positions of the airport in different supervision periods, analyzing the energy supply regulation state of the regions at different positions, and dynamically marking the regions at different positions and the supervision periods according to the analysis results. The present application can provide reliable data support for the dynamic implementation of the energy supply regulation scheme of the regions at different positions in different supervision periods, and can effectively improve the pertinence and expansibility of the dynamic energy supply regulation supervision analysis of the regions at different positions, compared with the prior art in which the energy supply regulation scheme is implemented on all the regions at different positions. ​

[0029] The present application realizes active expansion optimization of the existing energy supply regulation scheme from the aspects of energy supply resource consumption and data resource consumption, and supervises and evaluates the implementation effect of the dynamic energy supply regulation scheme, dynamically prompts different optimization schemes for the dynamic energy supply regulation scheme implemented in all position areas of the airport according to the supervision and evaluation results, realizes active supervision and targeted optimization prompt of the dynamic energy supply regulation scheme, and improves the self-supervision analysis, pertinence and reliability of the dynamic implementation of the energy supply regulation scheme in different position areas of the airport in different time periods. BRIEF DESCRIPTION OF DRAWINGS

[0030] The present application will be further described below with reference to the drawings.

[0031] Figure 1 A flowchart of the operation of the large airport efficient direct supply type cold and heat source energy supply system of the present application.

[0032] Figure 2 A flowchart of the traversal analysis of the energy supply regulation data of all time periods in the present application.

[0033] Figure 3 A flowchart of the data analysis of the regulation effectiveness in the present application. DETAILED DESCRIPTION

[0034] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0035] As shown in Figure 1 The present application is a large airport efficient direct supply type cold and heat source energy supply system, which comprises a local area energy supply regulation supervision module and a local area energy supply regulation processing module.

[0036] The local area energy supply regulation supervision module is used for supervising and counting the energy supply regulation of different position areas of the airport in different supervision time periods, and performing data analysis on the energy supply regulation states corresponding to different position areas, and dynamically marking different position areas and different supervision time periods according to the analysis results.

[0037] The energy supply regulation data in all historical supervision time periods of different position areas of the airport are sequentially acquired and analyzed.

[0038] It should be noted that the division of different location areas of the airport can be based on the existing efficient direct supply type cold and heat source energy supply scheme associated area division rules to implement, or can be customized according to the application requirements of the actual application scene, and the specific division content is not limited, which realizes the modularization processing from the location aspect, and plays a role for the modularized supervision and analysis of the energy supply regulation and control corresponding to different location areas of the airport, which can effectively improve the local supervision and analysis effect of the energy supply regulation and control corresponding to different location areas.

[0039] In addition, the division of the supervision period can be divided according to the existing whole point period, or can be customized according to the application requirements of the actual application scene, to modularize the time from the daily time, which can provide a reliable basis for the subsequent supervision and analysis of the energy supply regulation and control state of different location areas in different supervision periods.

[0040] At the same time, the implementation of energy supply regulation and control is the existing technology in the field, for example:

[0041] Regional centralized cold and heat supply energy station: large centralized cold and heat source station house (energy center) is built in the airport range (usually in the core area or near the load center), and high-efficiency large cold water unit (centrifugal, magnetic suspension), boiler (gas, electricity), heat pump unit and other equipment are centrally configured; Beijing Daxing International Airport (large-scale regional energy station), Shenzhen Baoan International Airport T3 (energy center), Guangzhou Baiyun International Airport T2 (centralized cooling station) and other airports widely adopt.

[0042] ‌Efficient water ring heat pump system: a closed circulating water loop is set up inside or near the terminal building. Independent water source heat pump units (mostly small cold water units) are installed in each terminal area (such as check-in area, waiting area, office area). Shanghai Hongqiao International Airport T2 terminal building is one of the typical cases of WLHP application in large public buildings, which fully utilizes the difference of airport load in different areas.

[0043] In addition, the division of the supervision period can be divided according to the application requirements of the actual application scene, to modularize the time from the daily time, which can provide a reliable basis for the subsequent supervision and analysis of the energy supply regulation and control state of different location areas in different supervision periods.

[0044] It should be noted that in the implementation of the existing energy supply scheme, most of them still stay in the cold and hot load prediction of different position areas of the airport based on the monitored data and dynamic energy supply, but there is no active monitoring analysis on the energy supply regulation state of different position areas in different periods, the corresponding energy supply regulation stable state of different position areas is determined and dynamically marked, and then the targeted energy supply regulation of different position areas in different periods is implemented, which leads to poor flexibility and reliability of energy supply of different position areas in different periods. The technical scheme disclosed in the embodiment of the present application can solve the defects existing in the implementation process of the prior art.

[0045] If the energy supply regulation data in all historical monitoring periods are empty, it is determined that the energy supply of the position area is stable, and it is marked as a first area;

[0046] If the energy supply regulation data in all historical monitoring periods are not empty, it is determined that the energy supply of the position area fluctuates, and it is marked as a second area;

[0047] It should be noted that in the embodiment of the present application, the energy supply regulation data of all historical monitoring periods are actively analyzed, and different position areas are dynamically marked according to the analysis results, which can provide reliable target support for subsequent targeted energy supply regulation state analysis and management of the marked position areas, and can effectively improve the pertinence and initiative of the monitoring analysis of different position areas.

[0048] And, the regulation stability analysis of the energy supply fluctuation of the marked different second areas is carried out, and the mark of different second areas is dynamically updated according to the analysis results; the specific steps include:

[0049] Get all period energy supply regulation data corresponding to the historical same monitoring period of the second area, and perform traversal analysis on all period energy supply regulation data;

[0050] As shown in Figure 2 If all period energy supply regulation data in the historical same monitoring period are empty, the corresponding monitoring period is marked as a first stable target period; the period energy supply regulation data is empty, which means that there is no adjustment of energy supply resources in the monitoring period;

[0051] If all period energy supply regulation data in the historical same monitoring period are the same regulation behavior, the corresponding monitoring period is marked as a second target period;

[0052] The regulation behavior includes energy supply up-regulation behavior and energy supply down-regulation behavior;

[0053] The energy supply up-regulation behavior refers to that the energy supply resource of the location area is increased in the supervision period, and then the increased energy supply resource is kept or restored to the initial state. It can be understood that the human flow of the location area surges, and the energy supply resource of the region is increased for regulation and control.

[0054] Similarly, the energy supply down-regulation behavior refers to that the energy supply resource of the location area is reduced in the supervision period, and then the reduced energy supply resource is kept or restored to the initial state. It can be understood that the location area is long time without people, and the energy supply resource of the region is reduced for regulation and control.

[0055] In addition, the increase and decrease of the energy supply resource are not limited in specific values, which can be determined according to the existing implementation technical solution design.

[0056] If there is a different regulation behavior in the energy supply regulation and control data of all periods in the same historical supervision period, the supervision period is marked as a third target period.

[0057] It should be noted that based on the marking of different location areas in the early stage, the marked all second areas are further actively supervised and analyzed in different supervision periods, and the different supervision periods of the second areas are dynamically marked according to the analysis results, which can provide reliable data support for the dynamic implementation of the energy supply regulation and control of the second areas in different supervision periods.

[0058] In addition, when the different second target periods appearing in the second area are processed and analyzed for the stable state of the energy supply regulation and control, the total number of regulation behaviors of the marked different second target periods is calculated by the formula to obtain the corresponding regulation and control implementation ratio TSk; in the formula, k is the number of the marked different second target periods in the second area, k = 1, 2, 3, …, n; n is a positive integer, representing the total number of the second target periods; NXk is the total number of regulation behaviors corresponding to the different second target periods; TC is the total number corresponding to the same historical supervision period;

[0059] It should be noted that the regulation and control implementation ratio is used to integrate and calculate the total number of regulation behaviors of the second area in the second target period and the total number corresponding to the same historical supervision period, to digitally represent the corresponding regulation and control implementation state.

[0060] If the regulation and control implementation ratio is greater than the regulation and control implementation threshold, the second target period is associated with the energy supply regulation and control stable label, and the mark is updated to the second stable target period. The regulation and control implementation threshold can be determined according to the median of the regulation and control implementation ratio of all target periods of the second area, or can be determined according to the energy supply regulation and control design data of the second area in the actual application scene, and the specific value is not limited.

[0061] Otherwise, the label of the second target period is maintained.

[0062] In the embodiment of the present application, the energy supply regulation and control of different position areas in different supervision periods is supervised and counted, the energy supply regulation and control state corresponding to different position areas is analyzed, and different position areas and different supervision periods are dynamically labeled according to the analysis result, so that the active supervision and classification labeling of different position areas and different supervision periods are realized, reliable data support for dynamically implementing the energy supply regulation and control scheme of different position areas in different supervision periods is provided, and the pertinence and expansibility of the dynamic energy supply regulation and control supervision analysis of different position areas are effectively improved compared with the prior art of implementing the energy supply regulation and control scheme for different position areas.

[0063] The local area energy supply regulation and control processing module is used for dynamically implementing the energy supply regulation and control scheme of different position areas in different supervision periods according to the labels of different position areas and different supervision periods, supervising and evaluating the implementation effect of the dynamically implemented energy supply regulation and control scheme, and dynamically prompting different optimization schemes for the energy supply regulation and control scheme dynamically implemented by all position areas of the airport according to the supervision evaluation result; comprising:

[0064] The regular energy supply scheme is implemented for all first areas with labels in all supervision periods; the regular energy supply scheme is a fixed energy supply scheme of the existing initial design;

[0065] When the dynamic energy supply regulation and control is implemented for all second areas with labels, the labels corresponding to all supervision periods of the second areas are obtained, and the regular energy supply scheme is implemented for all first stable target periods of the second areas, which does not involve the data resource consumption in the implementation process of the existing energy supply regulation and control scheme, and the data resource consumption includes but is not limited to the data processing required by the operation of Internet of Things devices, communication devices, servers and other devices;

[0066] The energy supply scheme of the same historical regulation and control behavior is implemented for all second stable target periods of the second areas; the same historical regulation and control behavior, for example, the energy supply regulation and control scheme of the energy supply up-regulation behavior, or the energy supply regulation and control scheme of the energy supply down-regulation behavior;

[0067] In addition, the flexible energy supply regulation and control scheme is implemented for all second target periods and third target periods of the second areas on the same day; the flexible energy supply regulation and control scheme is the existing energy supply regulation and control scheme;

[0068] When the implementation effect of the energy supply regulation and control scheme of different position areas in different supervision periods is supervised and analyzed, the total amount of energy supply resources and the total amount of data resources consumed by the energy supply regulation and control scheme of different position areas in different supervision periods in the evaluation period are counted and evaluated, the unit of the evaluation period is day, and the specific value can be 30 days, and the formula Calculate the corresponding regulation effectiveness XTi;In the formula, i is 1, 2, which represents the energy supply resource consumption and data resource consumption respectively;XLi is XL1, XL2, which is the total amount of energy supply resource consumption and data resource consumption respectively; For 、 , respectively, the total amount of standard energy supply resource consumption and the total amount of standard data resource consumption, which can be determined according to the total amount of energy supply resource consumption and the total amount of data resource consumption corresponding to the historical same regulatory period before the second region implements the technical solution;Bi is B1, B2, which is the standard value of energy supply resource consumption and the standard value of data resource consumption, which can be determined according to the existing industry energy supply regulation design requirement data, or can be determined according to the application requirements of the actual application scene combined with the working experience of the professionals in the field, and the specific numerical value is not limited;

[0069] It should be noted that the regulation effectiveness is used to process and calculate the corresponding resource consumption data from the aspects of energy supply resource consumption and data resource consumption, to digitally represent the dynamic implementation of the energy supply regulation scheme state of the different position regions marked by the airport in different regulatory periods;

[0070] In the embodiment of the application, by actively monitoring and analyzing the implementation effect of the dynamic implementation of the energy supply regulation scheme of the different position regions of the airport in different regulatory periods from the aspects of energy supply resource consumption and data resource consumption, the diversity and reliability of the active monitoring and analysis of the dynamic implementation of the energy supply regulation scheme can be effectively improved.

[0071] As Figure 3 shown, if XT1≤1 and XT2≤1, it is prompted that the dynamic implementation of the energy supply regulation scheme of the different position regions marked by the airport in different regulatory periods is overall effective;

[0072] If XT1≤1 or XT2≤1, it is prompted that the dynamic implementation of the energy supply regulation scheme of the different position regions marked by the airport in different regulatory periods is partially effective, and a first optimization scheme prompt for energy supply regulation is given;

[0073] If XT1>1 and XT2>1, it is prompted that the dynamic implementation of the energy supply regulation scheme of the different position regions marked by the airport in different regulatory periods is overall ineffective, and a second optimization scheme prompt for energy supply regulation is given;

[0074] Among them, the first optimization scheme prompt, specifically, the historical same regulation behavior energy supply scheme of all second stable target periods of the second region can be optimized and prompted, or all the first regions marked can be optimized and prompted for the full period of conventional energy supply scheme;

[0075] The second optimization scheme can prompt that, specifically, the energy supply scheme of the historical same adjustment behavior of all the second stable target periods in the second area can be optimized and prompted, and the conventional energy supply scheme of all the first areas in the full period can be optimized and prompted.

[0076] In the embodiment of the present application, by dynamically implementing the energy supply regulation scheme in different supervision periods in different position areas, the existing energy supply regulation scheme is actively expanded and optimized from the aspects of energy supply resource consumption and data resource consumption, the implementation effect of the dynamically implemented energy supply regulation scheme is supervised and evaluated, and the dynamically implemented energy supply regulation scheme of all the position areas of the airport is dynamically prompted according to the supervision and evaluation results, so that active supervision and targeted optimization prompt of the dynamically implemented energy supply regulation scheme are realized, and the self-supervision analysis of the energy supply regulation of the airport in different position areas in different periods and the pertinence and reliability of the dynamic implementation are improved.

[0077] In several embodiments provided by the present application, it should be understood that the disclosed system can be implemented in other manners. For example, the embodiments of the application described above are merely schematic; for example, the division of the modules is only a logical function division; and there can be another division manner in actual implementation.

[0078] The modules illustrated as separated components can or can not be physically separated, and the components illustrated as modules can or can not be physical modules, and can be located in one place or distributed on a plurality of network modules. Some or all of the modules can be selected according to actual needs to achieve the purpose of the embodiments of the present application.

[0079] In addition, each functional module in each embodiment of the present application can be integrated in one processing module, or each module can exist physically, or two or more modules can be integrated in one module. The integrated module can be realized in the form of hardware or in the form of hardware plus software functional module.

[0080] It is obvious for those skilled in the art that the present application is not limited to the details of the above exemplary embodiments, and the present application can be implemented in other specific forms without departing from the essential characteristics of the present application.

[0081] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present application but not limit the present application, and although the present application has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present application can be modified or replaced equivalently without departing from the spirit and scope of the technical solutions of the present application.

Claims

1. A large airport high-efficiency direct supply cold and heat source energy supply system, characterized in that, The local area energy supply regulation and control monitoring module is configured to monitor and count the energy supply regulation and control of different location areas of the airport in different monitoring periods, and perform data analysis on the energy supply regulation and control states corresponding to the different location areas, and dynamically mark the different location areas and different monitoring periods according to the analysis results. The local area energy supply regulation and control processing module is configured to dynamically implement the energy supply regulation and control scheme for different location areas in different monitoring periods according to the marks of the different location areas and different monitoring periods, and perform monitoring evaluation on the implementation effect of the dynamically implemented energy supply regulation and control scheme, and dynamically prompt different optimization schemes for the dynamically implemented energy supply regulation and control scheme of all location areas of the airport according to the monitoring evaluation results. Wherein, when the implementation effect of the power supply regulation scheme dynamically implemented in different supervision periods in different position areas of the airport is analyzed, the total amount of power supply resources and the total amount of data resources consumed by all position areas of the airport in different supervision periods during the statistical evaluation period are dynamically implemented, and the corresponding regulation efficiency XTi is calculated by the formula ; in the formula, i is 1 and 2, respectively representing power supply resource consumption and data resource consumption; XTi is XT1 and XT2; XLi is XL1 and XL2, respectively being the total amount of power supply resource consumption and the total amount of data resource consumption; ; , respectively being the standard total amount of power supply resources and the standard total amount of data resources; Bi is the standard value of power supply resource consumption and the standard value of data resource consumption.

2. A large airport high-efficiency direct supply cold and heat source energy supply system according to claim 1, characterized in that, The energy supply regulation and control data in all historical monitoring periods of different location areas of the airport are sequentially acquired and analyzed. If the energy supply regulation and control data in all historical monitoring periods are empty, it is determined that the energy supply of the location area is stable, and the location area is marked as a first area. If the energy supply regulation and control data in all historical monitoring periods exist, it is determined that the energy supply of the location area fluctuates, and the location area is marked as a second area. The control stability of the energy supply fluctuation of the marked different second areas is analyzed, and the marks of the different second areas are dynamically updated according to the analysis results.

3. A large airport high-efficiency direct supply cold and heat source energy supply system according to claim 2, characterized in that, All period energy supply regulation and control data corresponding to the historical same monitoring period of the second area are acquired, and all period energy supply regulation and control data are analyzed. If all period energy supply regulation and control data in the historical same monitoring period are empty, the monitoring period is marked as a first stable target period. If all period energy supply regulation and control data in the historical same monitoring period are the same regulation behavior, the monitoring period is marked as a second target period. If all period energy supply regulation and control data in the historical same monitoring period exist, the monitoring period is marked as a third target period.

4. A large airport high efficiency direct supply cold and heat source energy supply system according to claim 3, characterized in that, When the different second target periods appearing in the second area are processed and analyzed for the energy supply regulation and control stable state, the total number of regulation behaviors of the marked different second target periods is sequentially acquired by calculation to obtain the corresponding regulation implementation ratio. If the regulation implementation ratio is greater than the regulation implementation threshold, the second target period is associated with an energy supply regulation and control stable label, and the mark is updated to a second stable target period. Otherwise, the mark of the second target period is maintained.

5. A large airport high efficiency direct supply cold and heat source energy supply system according to claim 4, characterized in that, The calculation formula of the regulation implementation ratio is ; wherein, TSk is the regulation implementation ratio, k is the number of different second target periods in which the mark appears in the second region, k = 1, 2, 3, …, n; n is a positive integer; NXk is the total number of regulation behaviors corresponding to different second target periods; and TC is the total number of historical same supervision periods corresponding to the appearance.

6. A large airport high efficiency direct supply cold and heat source energy supply system according to claim 4, characterized in that, All first areas marked are subjected to a regular energy supply scheme in all periods. When the second areas marked are subjected to dynamic energy supply regulation and control, the marks corresponding to all monitoring periods of the second areas are acquired, and the first stable target periods of the second areas are subjected to a regular energy supply scheme. The second stable target periods of the second areas are subjected to an energy supply scheme of the same historical regulation behavior. The second target periods and the third target periods of the second areas on the same day are subjected to a flexible energy supply regulation and control scheme.

7. A large airport high efficiency direct supply cold and heat source energy supply system according to claim 1, characterized in that, If XT1≤1 or XT2≤1, it is prompted that the dynamic implementation of the energy supply regulation and control scheme for the marked different location areas of the airport in different monitoring periods is partially effective, and a first optimization scheme for energy supply regulation and control is prompted. If XT1>1 and XT2>1, it is prompted that the overall invalidity of the energy supply regulation scheme dynamically implemented in different supervision periods in different position areas marked by the airport, and the second optimization scheme for energy supply regulation is prompted.

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