CN105913177A - Scheduling power failure plan information processing method based on cloud - Google Patents
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Abstract
本发明涉及一种基于云的调度停电计划信息处理方法,包括以下步骤:(1):停电意愿评价:根据调度停电计划信息计算停电必要性指数和检修单位意愿指数;步骤(2):薄弱方式校核:判断调度停电计划信息中涉及的系统在停电前后的负载功率变化情况,再对其它与调度停电计划信息有关的风险因素进行检测;步骤(3):停电计划信息等级评价:对调度停电计划信息及其对应的风险因素信息进行推理判断和决策,从而将各个调度停电计划信息进行分级和排序;步骤(4):停电计划信息的智能安排:采用算法生成满足风险与安全约束的停电计划运方安排。本发明能够解决目前人员工作量大的问题,进一步提高人员的工作效率与电网的安全性。
The present invention relates to a cloud-based dispatching power outage plan information processing method, including the following steps: (1): evaluation of power outage willingness: calculating power outage necessity index and maintenance unit willingness index according to dispatching power outage plan information; step (2): weak mode Checking: Judging the load power changes of the systems involved in the dispatching power outage plan information before and after the power outage, and then detecting other risk factors related to the dispatching power outage plan information; Step (3): Evaluation of the power outage plan information level: the dispatching power outage Plan information and its corresponding risk factor information are used for reasoning, judgment and decision-making, so as to classify and sort the dispatched outage plan information; Step (4): Intelligent arrangement of outage plan information: use algorithms to generate outage plans that meet risk and safety constraints Arranged by the shipping party. The invention can solve the current problem of large personnel workload, and further improve the working efficiency of personnel and the safety of the power grid.
Description
技术领域technical field
本发明属于电力系统技术领域,具体涉及一种基于云的调度停电计划信息处理方法。The invention belongs to the technical field of electric power systems, and in particular relates to a method for processing information of a dispatching power outage plan based on a cloud.
背景技术Background technique
近年来,调度停电计划工作面日益变宽。停电工作日益增多,且随着专业机构的细分化,需要协调的工作面变宽。调度月均平衡600余项停电计划,涉及范围广,停电单位件缺乏横向联系。同时停电计划工作量日益增多,运方人员却没有增加,需要提出一种减轻运方人员工作量的方法。停电工作效率的提升迫在眉睫,安全性也需要得到提高。而目前国内地级市停电计划管理多采用下级调度与检修单位上报停电计划的方式,由本级调度进行人工分析、平衡,并召开停电会确定。综合来看,目前国内尚缺乏一套对检修单位停电意愿进行评级的系统,且各检修单位之间缺乏横向联系。同时,国内尚缺乏一套对停电计划进行自动识别,风险等级评价的系统,并与检修单位检修意愿等级相结合后进行综合评价后的调度停电计划管理系统。因此,研究基于云的调度停电计划信息处理方法非常有意义。In recent years, the scope of dispatching power outage planning has become wider and wider. Power outage work is increasing day by day, and with the subdivision of professional institutions, the work surface that needs to be coordinated becomes wider. Dispatching balances more than 600 power outage plans on average every month, covering a wide range of areas, and there is no horizontal connection between power outage units. At the same time, the workload of power outage planning is increasing day by day, but the number of transport personnel has not increased. It is necessary to propose a method to reduce the workload of transport personnel. The improvement of power outage work efficiency is imminent, and the safety also needs to be improved. At present, the management of power outage plans in prefecture-level cities in China mostly adopts the method of reporting power outage plans by lower-level dispatching and maintenance units, and the dispatchers at the same level conduct manual analysis and balance, and hold power outage meetings to determine. On the whole, at present, there is still a lack of a system for rating the power outage willingness of maintenance units in China, and there is a lack of horizontal connections between maintenance units. At the same time, there is still a lack of a system for automatic identification of power outage plans, risk level evaluation system, and a comprehensive evaluation system for dispatching power outage plan management systems based on the level of maintenance willingness of the maintenance unit. Therefore, it is very meaningful to study the information processing method of dispatching outage plan based on cloud.
发明内容Contents of the invention
本发明的目的是提供一种。The purpose of the present invention is to provide a kind of.
为达到上述目的,本发明采用的技术方案是:In order to achieve the above object, the technical scheme adopted in the present invention is:
一种基于云的调度停电计划信息处理方法,用于实现调度停电计划信息的协调处理,所述基于云的调度停电计划信息处理方法包括以下步骤:A cloud-based dispatching power outage plan information processing method is used to realize the coordinated processing of dispatching power outage plan information, and the cloud-based dispatching power outage plan information processing method includes the following steps:
步骤(1):停电意愿评价:Step (1): Evaluation of power outage willingness:
根据所述调度停电计划信息计算停电必要性指数和检修单位意愿指数,并据此判断是否需要进行所述调度停电计划信息中涉及的停电检修项目;Calculating a power outage necessity index and a maintenance unit willingness index according to the dispatching power outage plan information, and judging accordingly whether it is necessary to carry out the power outage maintenance items involved in the dispatching power outage plan information;
步骤(2):薄弱方式校核:Step (2): Weak way check:
判断所述调度停电计划信息中涉及的系统在停电前后的负载功率变化情况,再对其它与所述调度停电计划信息有关的风险因素进行检测,并保存所所述负载功率变化情况和风险因素信息;Judging the load power changes of the system involved in the dispatched power outage plan information before and after the power outage, and then detecting other risk factors related to the dispatched power outage plan information, and saving the load power change and risk factor information ;
步骤(3):停电计划信息等级评价:Step (3): Evaluation of blackout plan information level:
对所述调度停电计划信息及其对应的风险因素信息进行推理判断和决策,从而将各个所述调度停电计划信息进行分级和排序;Perform reasoning, judgment and decision-making on the dispatched power outage plan information and its corresponding risk factor information, thereby classifying and sorting each of the dispatched power outage plan information;
步骤(4):停电计划信息的智能安排:Step (4): Intelligent arrangement of outage plan information:
基于各个所述调度停电计划信息的分级和排序,采用算法生成满足风险与安全约束的停电计划运方安排。Based on the grading and sorting of each dispatched outage plan information, an algorithm is used to generate a power outage plan that satisfies risk and safety constraints.
所述步骤(1)中,所述停电必要性指数N1=-log(t1-t2)-L,其中,t1为所述调度停电计划信息中涉及系统的检修时间最长允许间隔,t2为所述调度停电计划信息中涉及系统距离上次检修的时间间隔,L为所述调度停电计划信息中涉及系统的当前负荷程度。In the step (1), the power outage necessity index N 1 =-log(t 1 -t 2 )-L, wherein, t 1 is the longest allowable interval of the maintenance time of the system involved in the dispatched power outage plan information , t 2 is the time interval from the last maintenance of the system involved in the scheduled power outage plan information, and L is the current load level of the system involved in the dispatched power outage plan information.
所述步骤(1)中,所述检修单位意愿指数N2=-M+W,其中,M为检修单位本月已完成的检修数目,W为检修单位的主观意愿程度。In the step (1), the willingness index of the maintenance unit N 2 =-M+W, where M is the number of maintenance completed by the maintenance unit this month, and W is the subjective willingness of the maintenance unit.
所述步骤(2)中,基于以设备作为节点、以设备之间的功率流动关系为边构成的有向图分析所述负载功率变化情况。In the step (2), the change of the load power is analyzed based on a directed graph composed of devices as nodes and power flow relationships between devices as edges.
所述步骤(2)中,基于停电前后的所述有向图并通过算法生成停电前后系统中设备之间的功率流动关系,从停电后的所述有向图中每棵树的根节点开始做深度优先遍历,并在每个节点将停电后的所述有向图与停电前的所述有向图进行比较,从而得出系统中各设备在停电前后的负载功率变化情况。In the step (2), the power flow relationship between devices in the system before and after the power outage is generated by an algorithm based on the directed graph before and after the power outage, starting from the root node of each tree in the directed graph after the power outage Do depth-first traversal, and compare the directed graph after the power failure with the directed graph before the power failure at each node, so as to obtain the load power changes of each device in the system before and after the power failure.
所述步骤(3)中,建立能够模拟人类专家决策过程的专家知识库而自动进行所述推理判断和决策。In the step (3), an expert knowledge base capable of simulating the decision-making process of human experts is established to automatically perform the reasoning, judgment and decision-making.
所述步骤(4)中,通过N-1扫描和拓扑比较,采用贪心算法和动态规划算法生成所述停电计划运方安排。In the step (4), through N-1 scanning and topology comparison, a greedy algorithm and a dynamic programming algorithm are used to generate the operator arrangement of the power outage plan.
由于上述技术方案运用,本发明与现有技术相比具有下列优点:本发明能够在保证电网信息安全的前提下,实现停电计划的上报横向协调处理、安全性校核以及停电检修智能运方安排,能够解决目前各级调度、检修部门专职人员制定调度月度停电计划工作量大的问题,进一步提高人员的工作效率与电网的安全性。Due to the application of the above-mentioned technical solutions, the present invention has the following advantages compared with the prior art: the present invention can realize the reporting of the power outage plan, horizontal coordination processing, safety check, and intelligent operator arrangement for power outage maintenance under the premise of ensuring the information security of the power grid , It can solve the problem that the full-time personnel of the dispatching and maintenance departments at all levels currently have a large workload in formulating dispatching monthly power outage plans, and further improve the work efficiency of personnel and the security of the power grid.
附图说明Description of drawings
附图1为实施本发明的系统总体架构。Accompanying drawing 1 is the overall framework of the system implementing the present invention.
具体实施方式detailed description
下面结合实施例对本发明作进一步描述。The present invention will be further described below in conjunction with embodiment.
实施例一:一种用于实现调度停电计划信息的协调处理的基于云的调度停电计划信息处理方法,包括以下步骤:Embodiment 1: A cloud-based dispatching power outage plan information processing method for realizing coordinated processing of dispatching power outage plan information, comprising the following steps:
步骤(1):停电意愿评价Step (1): Evaluation of Power Outage Willingness
根据调度停电计划信息计算停电必要性指数和检修单位意愿指数,并据此判断是否需要进行调度停电计划信息中涉及的停电检修项目。Calculate outage necessity index and maintenance unit willingness index according to dispatching outage plan information, and judge whether to carry out outage maintenance items involved in dispatching outage plan information.
停电必要性指数N1=-log(t1-t2)-L,其中,t1为调度停电计划信息中涉及系统的检修时间最长允许间隔,t2为调度停电计划信息中涉及系统距离上次检修的时间间隔,L为调度停电计划信息中涉及系统的当前负荷程度。停电必要性与距离上次检修的时间间隔正相关,与检修时间最长允许间隔、系统负荷水平负相关。当距上次检修的时间间隔达到最长允许间隔时,必须进行停电检修。检修单位意愿指数N2=-M+W,其中,M为检修单位本月已完成的检修数目,W为检修单位的主观意愿程度。Power outage necessity index N 1 =-log(t 1 -t 2 )-L, where t 1 is the longest allowable interval of maintenance time of the systems involved in the dispatched power outage plan information, and t 2 is the distance of the systems involved in the dispatched power outage plan information The time interval of the last overhaul, L is the current load level of the system involved in the scheduling power outage plan information. The necessity of power outage is positively correlated with the time interval from the last maintenance, and negatively correlated with the longest allowable interval of maintenance time and system load level. When the time interval from the last inspection reaches the maximum allowable interval, a power outage inspection must be carried out. Maintenance unit willingness index N 2 =-M+W, where M is the number of maintenance completed by the maintenance unit this month, and W is the subjective willingness of the maintenance unit.
步骤(2):薄弱方式校核Step (2): Weak way check
判断调度停电计划信息中涉及的系统在停电前后的负载功率变化情况,再对其它与调度停电计划信息有关的风险因素进行检测,并保存所负载功率变化情况和风险因素信息。Judging the load power change of the system involved in the dispatching blackout plan information before and after the power outage, and then detecting other risk factors related to the dispatching blackout plan information, and saving the load power change and risk factor information.
具体的,基于以两(多)端设备作为节点、以设备之间的功率流动关系为边构成的有向图分析负载功率变化情况。首先,对设备过载进行分析,基于停电前后的有向图并通过算法(例如采用申请号为201510049843.5的发明专利《基于设备功率流拓扑的配电网薄弱环节辨识方法》中公开的算法)生成停电前后系统中设备之间的功率流动关系,继而从停电后的有向图中每棵树的根节点开始做深度优先遍历(DFS),并在每个节点将停电后的有向图与停电前的有向图进行比较,通过比较每个设备的功率流动关系,可以得出系统中各设备在停电前后的负载功率变化情况。之后再对其它风险因素进行检测,从而用于分析网络中的薄弱运行方式(包括单主变运行方式、串供方式等)。分析产生的风险因素信息将保存在系统数据库中,供系统中的后续流程使用。Specifically, the load power variation is analyzed based on a directed graph composed of two (multiple) terminal devices as nodes and power flow relationships between devices as edges. First, analyze the equipment overload, and generate a power outage based on the directed graph before and after the power outage and through an algorithm (for example, using the algorithm disclosed in the invention patent "Identification Method for Weak Links of Distribution Network Based on Equipment Power Flow Topology" with application number 201510049843.5) The power flow relationship between the devices in the front and rear systems, and then do a depth-first traversal (DFS) from the root node of each tree in the directed graph after the power outage, and compare the directed graph after the power outage with the before power outage at each node By comparing the directed graph of each device, the load power change of each device in the system before and after the power failure can be obtained by comparing the power flow relationship of each device. After that, other risk factors are detected, so as to analyze the weak operation mode in the network (including single main transformer operation mode, series supply mode, etc.). Risk factor information resulting from the analysis will be stored in the system database for subsequent processes in the system.
步骤(3):停电计划信息等级评价Step (3): Evaluation of blackout plan information level
对每个调度停电计划信息执行前述负载率与薄弱方式校核分析算法,并记录每个调度停电计划所对应的风险信息,保存在数据库中。在系统中建立一套能够模拟人类专家决策过程的专家知识库,从而通过系统对调度停电计划信息及其对应的风险因素信息进行推理判断和决策,从而通过定量手段将各个调度停电计划信息进行分级并加以排序。Execute the aforementioned load rate and weak mode check and analysis algorithm for each scheduled power outage plan information, and record the risk information corresponding to each dispatched power outage plan, and save it in the database. Establish a set of expert knowledge base in the system that can simulate the decision-making process of human experts, so that the system can reason, judge and make decisions on dispatching power outage plan information and its corresponding risk factor information, and classify each dispatching power outage plan information by quantitative means and sort them.
步骤(4):停电计划信息的智能安排Step (4): Intelligent Arrangement of Outage Plan Information
基于各个调度停电计划信息的分级和排序,通过N-1扫描和拓扑比较,采用贪心算法和动态规划算法生成满足风险与安全约束的最优和次优的停电计划运方安排。Based on the grading and sorting of each dispatching outage plan information, through N-1 scanning and topology comparison, the greedy algorithm and dynamic programming algorithm are used to generate the optimal and suboptimal outage plan arrangements that meet the risk and safety constraints.
上述基于云的调度停电计划信息处理方法通过如附图1所示的系统软件实施。The above-mentioned cloud-based scheduling power outage plan information processing method is implemented by the system software as shown in FIG. 1 .
以某地区电网某110kV站的线路和变压器为例进行分析。在未经基于云处理的调度停电计划处理方法优化前,与该站110kV母线相联的线路计划停电时间为6月5日至6月13日,而与此线路相联的变压器计划停电时间为6月1日至6月3日。因此在不考虑其它设备停电的情况下,此条线路上的负荷将会停电12天。Take the lines and transformers of a 110kV station in a power grid in a certain area as an example for analysis. Before the optimization of the cloud-based scheduling outage planning processing method, the planned outage time of the line connected to the 110kV bus of the station is from June 5th to June 13th, and the planned outage time of the transformer connected with this line is From June 1st to June 3rd. Therefore, without considering the power outage of other equipment, the load on this line will be out of power for 12 days.
采用基于云处理的调度停电计划处理系统进行分析,线路检修时间最长允许间隔为30天,距上次检修的时间间隔为20天,负荷程度为1,所以停电必要性:N1=-log(t1-t2)-L=-2。检修单位本月已完成的检修数目为15,检修单位的主观意愿程度为30,检修单位意愿表示为:N2=-M+W=15。变压器检修时间最长间隔为1年,距上次检修时间间隔为半年,负荷程度为1,所以停电必要性:N1=-log(t1-t2)-L=-3.26。检修单位的主观意愿程度为30,检修单位意愿表示为:N2=-M+W=15。当停电必要性指标N1>Th1,或者检修单位意愿指标N2>Th2时,需要进行检修,阈值Th1和Th2由用户根据专家经验人为设定。本例中取Th1=-5、Th2=10,因此线路和变压器都需要进行停电检修。The analysis is carried out using the cloud-based dispatching power outage plan processing system. The longest allowable interval for line maintenance is 30 days, the time interval from the last maintenance is 20 days, and the load level is 1, so the necessity of power outage: N 1 =-log (t 1 -t 2 )-L=-2. The number of overhauls completed by the maintenance unit this month is 15, the degree of subjective willingness of the maintenance unit is 30, and the willingness of the maintenance unit is expressed as: N 2 =-M+W=15. The longest interval between transformer inspections is 1 year, the interval from the last inspection is half a year, and the load level is 1, so the necessity of power failure: N 1 =-log(t 1 -t 2 )-L=-3.26. The degree of subjective willingness of the maintenance unit is 30, and the willingness of the maintenance unit is expressed as: N 2 =-M+W=15. When the power outage necessity index N 1 >Th 1 , or the maintenance unit willingness index N 2 >Th 2 , maintenance is required, and the thresholds Th 1 and Th 2 are artificially set by the user based on expert experience. In this example, Th 1 =-5 and Th 2 =10 are taken, so both the line and the transformer need to be powered off for maintenance.
通过薄弱方式校核和调度停电计划的智能运方安排技术分析,可以将线路和变压器打包同时进行停电,且满足系统安全运行要求。通过N-1扫描和拓扑比较,系统采用贪心算法和动态规划算法,生成满足风险与安全约束的最优停电计划运方安排为在6月5日至6月13日进行线路停电,在6月5日至6月8日进行变压器的停电。Through the technical analysis of the intelligent operator arrangement technology for checking and dispatching the power outage plan in a weak way, the lines and transformers can be packaged for power outage at the same time, and the safe operation requirements of the system can be met. Through N-1 scanning and topology comparison, the system adopts greedy algorithm and dynamic programming algorithm to generate an optimal power outage plan that satisfies risk and safety constraints. The power outage of the transformer will be carried out from the 5th to the 8th of June.
比较优化前后的系统,优化前此线路的负荷会因线路和变压器造成12天的停电;而优化后此线路的负荷因线路和变压器造成的停电天数缩短到了9天。提高了供电的可靠性。Comparing the system before and after optimization, before optimization, the load of this line would cause 12 days of power outage due to lines and transformers; after optimization, the number of days of power outages caused by lines and transformers was shortened to 9 days. The reliability of power supply is improved.
本发明通过停电意愿评价系统、负载率与薄弱方式校核技术、调度停电计划风险分析与等级评价系统的运行,将各个待考察的停电调度方案排序。通过N-1扫描和拓扑比较,系统采用贪心算法和动态规划算法,依次生成满足风险与安全约束的最优和次优的停电计划运方安排。使用人员可以通过调整上述各个评价指标的权重来满足特定需求的优先级别。能够解决目前各级调度、检修部门专职人员制定调度月度停电计划工作量大的问题,进一步提高人员的工作效率与电网的安全性。The present invention sorts each power outage scheduling plan to be investigated through the operation of the power outage willing evaluation system, load rate and weak mode checking technology, and dispatching power outage plan risk analysis and grade evaluation system. Through N-1 scanning and topology comparison, the system adopts greedy algorithm and dynamic programming algorithm to sequentially generate the optimal and suboptimal power outage plan arrangements that meet the risk and safety constraints. Users can adjust the weight of each of the above evaluation indicators to meet the priority level of specific needs. It can solve the problem of large workload of full-time personnel in dispatching and maintenance departments at all levels to formulate dispatching monthly power outage plans, and further improve the work efficiency of personnel and the safety of the power grid.
上述实施例只为说明本发明的技术构思及特点,其目的在于让熟悉此项技术的人士能够了解本发明的内容并据以实施,并不能以此限制本发明的保护范围。凡根据本发明精神实质所作的等效变化或修饰,都应涵盖在本发明的保护范围之内。The above-mentioned embodiments are only to illustrate the technical concept and characteristics of the present invention, and the purpose is to enable those skilled in the art to understand the content of the present invention and implement it accordingly, and not to limit the protection scope of the present invention. All equivalent changes or modifications made according to the spirit of the present invention shall fall within the protection scope of the present invention.
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CN108875974A (en) * | 2018-06-27 | 2018-11-23 | 深圳供电局有限公司 | System and method for generating production plan on large scale based on strategy by power station equipment |
CN108898307A (en) * | 2018-06-27 | 2018-11-27 | 深圳供电局有限公司 | System and method for generating production plan on large scale based on strategy by power station equipment |
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CN108875974A (en) * | 2018-06-27 | 2018-11-23 | 深圳供电局有限公司 | System and method for generating production plan on large scale based on strategy by power station equipment |
CN108898307A (en) * | 2018-06-27 | 2018-11-27 | 深圳供电局有限公司 | System and method for generating production plan on large scale based on strategy by power station equipment |
CN108921420A (en) * | 2018-06-27 | 2018-11-30 | 深圳供电局有限公司 | Method and system for generating production plan by power plant station equipment |
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