% clear all close all tall = tic; % a1_init=2.4; % use for MoC order 3 % b1_init=2.58; % use for MoC order 3 a1_init=2.4; % use for MoC order 4 b1_init=2.58; % use for MoC order 4 ra1= (b1_init-a1_init).*rand(40,1) + a1_init; lam1=ra1; N=3; order=3; numBr = 2^order - 1; rimax = [ 0.296 0.318 0.337 0.358 0.384 0.414 0.445 0.484 0.539 0.608 ... 0.692 0.793 0.913 1.052 1.203 1.374]; rinitial=[]; for k=1:order rinitial=[rinitial;rimax(k)*ones(2.^(order-k),1)]; end % % % for jj=1:N pert(:,jj)=0.01*rand(1,length(rinitial))'; rinitial1(:,jj)=rinitial+pert(:,jj); end psi1=zeros(N,length(lam1)); for j=1:N parfor i=1:length(lam1) [~,~,~,~,~,~, summ(i)]=coup(order,lam1(i),rinitial1(:,j)); end psi1(j,:) = summ; % parsave(sprintf('output%d.mat', j),psi(j,:)); end lam_dm=repmat(lam1',N,1); histogram2(psi1,lam_dm,40,'XBinLimits',[0,1],'YBinLimits',[2.4 2.58],'FaceColor','g'); view(2) %% % A = [0]; % B=[0]; % A1=[0]; % B1=[0]; % % f=zeros(N,length(lam1)); % for j=1:N % for i=1:length(lam1) % if p_bot1(j,i)>25 % f(j,i)=1; % elseif p_bot1(j,i) >=10 && p_bot1(j,i) <=25 % f(j,i)=0.5; % else f(j,i)=0; % end % end % end %lam_moc=repmat(lam1,100,1); % % lam_dm=repmat(lam',N,1); % for ii = 1:N % idx= find(f(ii,:)==1); % idx1=find(f(ii,:)==0.5); % % b1=psi1(ii,idx)'; % % a1=lam_moc(ii,idx)'; % b=psi1(ii,idx)'; % b11=psi1(ii,idx1)'; % a=lam_moc(ii,idx)'; % a11=lam_moc(ii,idx1)'; % % b = ones(randi([1,10],1,1), 1); % here you put your random-sized vector % if (size(A(:,1)) == 1) % % A1=b11; % % B1=a11; % A = b; % B=a; % else % if (length(b) < length(A(:,1))) % % % A1 = [A1 [b1; zeros(length(A1(:,1)) - length(b1),1)]]; % % B1= [B1 [a1; zeros(length(B1(:,1)) - length(a1),1)]]; % A = [A [b; zeros(length(A(:,1)) - length(b),1)]]; % B= [B [a; zeros(length(B(:,1)) - length(a),1)]]; % end % if (length(b) == length(A(:,1))) % % A1 = [A1 b1]; % % B1= [B1 a1]; % A = [A b]; % B = [B a]; % end % if (length(b) > length(A(:,1))) % % % A1 = [[A1; zeros(length(b1) - length(A1(:,1)), length(A1(1,:)))] b1]; % % B1 = [[B1; zeros(length(a1) - length(B1(:,1)), length(B1(1,:)))] a1]; % A = [[A; zeros(length(b) - length(A(:,1)), length(A(1,:)))] b]; % B = [[B; zeros(length(a) - length(B(:,1)), length(B(1,:)))] a]; % end % end % end % if (size(A1(:,1)) == 1) % A1=b11; % B1=a11; % %A = b; % %B=a; % else % if (length(b11) < length(A1(:,1))) % % % A1 = [A1 [b1; zeros(length(A1(:,1)) - length(b1),1)]]; % % B1= [B1 [a1; zeros(length(B1(:,1)) - length(a1),1)]]; % A1 = [A1 [b11; zeros(length(A1(:,1)) - length(b11),1)]];% creates matrix of size (length(b11) 2) % B1= [B1 [a11; zeros(length(B1(:,1)) - length(a11),1)]]; %creates matrix of size (length(a11) N) % end % if (length(b11) == length(A1(:,1))) % % A1 = [A1 b1]; % % B1= [B1 a1]; % A1 = [A1 b11]; % B1 = [B1 a11]; % end % if (length(b11) > length(A1(:,1))) % % % A1 = [[A1; zeros(length(b1) - length(A1(:,1)), length(A1(1,:)))] b1]; % % B1 = [[B1; zeros(length(a1) - length(B1(:,1)), length(B1(1,:)))] a1]; % A1 = [[A1; zeros(length(b11) - length(A1(:,1)), length(A1(1,:)))] b11]; % B1 = [[B1; zeros(length(a11) - length(B1(:,1)), length(B1(1,:)))] a11]; % end % end % end % % % % % use [5 7.5] for DM order 6, use [8 15] for DM order 4 % h=histogram2(psi,lam_dm,40,'XBinLimits',[0,1],'YBinLimits',[5 7.5]);%,'Normalization','probability'); % h.FaceColor='Flat'; % % h.EdgeColor='black'; % view(2) % hold on % h1=histogram2(A',B',40,'XBinLimits',[0,1],'YBinLimits',[5 7.5],'FaceColor','r'); % % h1.FaceColor='Flat'; % view(2) % hold on % h2=histogram2(A1',B1',40,'XBinLimits',[0,1],'YBinLimits',[6 14],'FaceColor','g'); % % h2.FaceColor='Flat'; % view(2) %% toc(tall) % profile viewer % % for i=1:11 % hold on % % xlim([0 0.2]) % ylim([0 100]) % subplot(3,4,i) % histogram(psi(:,i),20) % title(['DM \lambda =', num2str(lam1(i))]) % end % for i=1:11 % hold on % ylim([0 100]) % subplot(3,4,i) % histogram(psi1(:,i),11) % title(['MoC \lambda =', num2str(lam1(i))]) % end % % numBr = 2^order - 1; % % % Define the edges of the graph first % node1 = zeros(1,numBr); % node2 = zeros(1,numBr); % % % e.g. for an order 4: node1 = [1 2 2 3 3 4 4 5 5 6 6 7 7 8 8]; % node1(1) = 1; % for i = 1:(numBr-1)/2 % node1(2*i:2*i+1) = [i+1 i+1]; % end % % % e.g. for an order 4: node2 = [2 3 4 5 6 7 8 9 10 11 12 13 14 15 16]; % for i = 1:numBr % node2(i) = i+1; % end % % % % %% % % % axis tight manual % ax = gca; % ax.NextPlot = 'replaceChildren'; % F(length(lam)) = struct('cdata',[],'colormap',[]); % v = VideoWriter('DM.avi','Motion JPEG AVI'); % v.Quality = 100; % v.FrameRate = 2; % open(v); % for j=1:length(lam) % % v = VideoWriter('DM.avi'); % % open(v); % % % lam(j) % labels=num2cell(air(:,j))'; % labels_flip=fliplr(labels); % A=fliplr(air(j,:)); % % Fl=fliplr(flow1_mean(:,j)'./(-50))'; % G = graph(node1,node2,A); % figure(3); % % u = uicontrol('Style','slider','Position',[10 50 20 340],... % % 'Min',1,'Max',loops,'Value',1); % h=plot(G,'LineWidth',5); % % labelnode(h,[node1 node2],'') % % nodes=[0 1 2 2 1 5 5]; % % treeplot(nodes); % % c = get(gca, 'Children'); % get handles to children % % grab X and Y coords from the second child (the first one is axes) % % h.EdgeCData=A; % % colormap jet % % ind = zeros(1,numBr); % for i = 1:numBr % ind(i) = i; % end % % labeledge(h,ind,G.Edges.Weight(ind)); % % u.Value = j; % F(j) = getframe(gcf); % % size(F(j).cdata); % % writeVideo(v,F(j)); % % x = get(h, 'XData'); % % y = get(h, 'YData'); % % c = colorbar; % % c.Label.String = 'r'; % % caxis([0,0.32]); % % text(x, y, labels_flip, 'VerticalAlignment','bottom', ... % % 'HorizontalAlignment','right') % % highlight(h,GF,'EdgeColor',[0.9 0.3 0.1],'NodeColor',[0.9 0.3 0.1]) % % % pause % % end