1 主要内容
《基于主从博弈的主动配电网阻塞管理》文献介绍：主要采用一种配电网节点边际电价统一出清的主从博弈双层调度框架。上层框架解决用户在负荷聚合商引导下的用电成本最小化问题，负荷聚合商为主从博弈的领导者；下层框架解决配电网系统运 营商在考虑网络潮流安全和电压越限前提下的社会福利最大化问题，配电网系统运营商为主从博弈的追随者。利用 Karush-Kuhn-Tucker 最优性条件和对偶定理，将非线性双层问题转化为单层混合整数线性规划问题求解。仿真算例验证分析了所提出的模型对缓解网络阻塞的有效性，以及灵活性资源在配电网阻塞管理当中的作用。
考虑四种场景场景1考虑可中断负荷和可调节负荷以及电压约束场景2考虑电动汽车和储能以及电压约束场景3综合场景12并增加线路传输容量约束场景4也就是无阻塞管理模式，在场景3基础上不考虑电压和传输容量约束。在IEEE 33节点算例下进行仿真验证。
2 部分代码
clc clear tic [a,V_bus1,Ploss1,S1]=UB1();%%%场景1 [b,V_bus2,Ploss2,S2]=UB2();%%%场景2 [c,V_bus3,Ploss3,S3]=UB3();%%%场景3 [d,V_bus4,Ploss4,S4]=UB4();%%%场景4 %% p_MT1=zeros(2,24); p_ess1=zeros(2,24); p_wt1=zeros(3,24); q_svc1=zeros(2,24); p_ev1=zeros(1,24); C_G1=zeros(1,24); s_IL1=zeros(1,24); s_TL1=zeros(1,24); V1=zeros(33,24); loss1=zeros(1,24); p_MT1(1,:)=a(1:24); p_MT1(2,:)=a(25:48); p_ess1(1,:)=a(49:72); p_ess1(2,:)=a(73:96); p_wt1(1,:)=a(97:120); p_wt1(2,:)=a(121:144); p_wt1(3,:)=a(145:168); q_svc1(1,:)=a(169:192); q_svc1(2,:)=a(193:216); p_ev1(1,:)=a(217:240); C_G1(1,:)=a(241:264); s_IL1=a(265:288); s_TL1=a(289:312); loss1=Ploss1; V1=V_bus1; %%%%%%%%%%%%%%%%%%%%%%%%%%%%% p_MT2=zeros(2,24); p_ess2=zeros(2,24); p_wt2=zeros(3,24); q_svc2=zeros(2,24); p_ev2=zeros(1,24); C_G2=zeros(1,24); V2=zeros(33,24); loss2=zeros(1,24); p_MT2(1,:)=b(1:24); p_MT2(2,:)=b(25:48); p_ess2(1,:)=b(49:72); p_ess2(2,:)=b(73:96); p_wt2(1,:)=b(97:120); p_wt2(2,:)=b(121:144); p_wt2(3,:)=b(145:168); q_svc2(1,:)=b(169:192); q_svc2(2,:)=b(193:216); p_ev2(1,:)=b(217:240); C_G2(1,:)=b(241:264); loss2=Ploss2; V2=V_bus2; %%%%%%%%%%%%%%%%%%%%%%%%% p_MT3=zeros(2,24); p_wt3=zeros(3,24); q_svc3=zeros(2,24); C_G3=zeros(1,24); s_IL3=zeros(1,24); s_TL3=zeros(1,24); V3=zeros(33,24); loss3=zeros(1,24); p_MT3(1,:)=c(1:24); p_MT3(2,:)=c(25:48); p_wt3(1,:)=c(97:120); p_wt3(2,:)=c(121:144); p_wt3(3,:)=c(145:168); q_svc3(1,:)=c(169:192); q_svc3(2,:)=c(193:216); C_G3(1,:)=c(241:264); s_IL3=c(265:288); s_TL3=c(289:312); loss3=Ploss3; V3=V_bus3; %%%%%%%%%%%%%%%%%%%%%%%%% p_MT4=zeros(2,24); p_ess4=zeros(2,24); p_wt4=zeros(3,24); q_svc4=zeros(2,24); p_ev4=zeros(1,24); C_G4=zeros(1,24); s_IL4=zeros(1,24); s_TL4=zeros(1,24); V4=zeros(33,24); loss4=zeros(1,24); p_MT4(1,:)=d(1:24); p_MT4(2,:)=d(25:48); p_ess4(1,:)=d(49:72); p_ess4(2,:)=d(73:96); p_wt4(1,:)=d(97:120); p_wt4(2,:)=d(121:144); p_wt4(3,:)=d(145:168); q_svc4(1,:)=d(169:192); q_svc4(2,:)=d(193:216); p_ev4(1,:)=d(217:240); C_G4(1,:)=d(241:264); s_IL4=d(265:288); s_TL4=d(289:312); loss4=Ploss4; V4=V_bus4; toc % V1=V1*1.05; % V2=V2*1.05; % V3=V3*1.05; %% 画图 figure(1) mesh(V1); xlabel('时刻/h'); ylabel('节点'); zlabel('电压标幺值'); title('场景3节点电压');
3 程序结果
