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logL_SCTL.m
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256 lines (230 loc) · 7.73 KB
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function [P,logL_sc,dlogL_scdxi] = logL_SCTL(xi, model, data, s, options, P)
persistent fp
persistent fl
%% Construct fixed effects and covariance matrix
beta = model.beta(xi);
delta = model.delta(xi);
[D,~,~,~,~,~] = xi2D(delta,options.type_D);
% Initialization measurements
Sim_SCTL.Y = NaN(size(data.SCTL.Y));
% events
if(~isfield(data.SCTL,'T'))
data.SCTL.T = zeros(0,1,size(data.SCTL.Y,3));
end
Sim_SCTL.T = NaN(size(data.SCTL.T));
Sim_SCTL.R = NaN(size(data.SCTL.T));
% set default scaling
if(~isfield(model,'SCTLscale'))
model.SCTLscale = 1;
end
% Loop: Indiviudal cells
logLi_D = zeros(size(data.SCTL.Y,3),1);
logLi_T = zeros(size(data.SCTL.Y,3),1);
logLi_b = zeros(size(data.SCTL.Y,3),1);
logLi_I = zeros(size(data.SCTL.Y,3),1);
logL_sc = zeros(size(data.SCTL.Y,3),1);
if options.nderiv >= 1
dlogL_scdxi = zeros(size(data.SCTL.Y,3),length(xi));
end
tmp = arrayfun(@(x) any(~isnan(data.SCTL.Y(:,:,x)),2),1:size(data.SCTL.Y,3),'UniformOutput',false);
data.SCTL.ind_y = false(size(data.SCTL.Y,1),size(data.SCTL.Y,3));
data.SCTL.ind_y(:,:) = [tmp{:}];
tmp = arrayfun(@(x) any(~isnan(data.SCTL.T(:,:,x)),2),1:size(data.SCTL.T,3),'UniformOutput',false);
data.SCTL.ind_t = false(size(data.SCTL.T,1),size(data.SCTL.T,3));
data.SCTL.ind_t(:,:) = [tmp{:}];
Sim_SCTL_Y = zeros(size(data.SCTL.Y));
Sim_SCTL_SIGMAY = zeros(size(data.SCTL.Y));
Sim_SCTL_T = zeros(size(data.SCTL.T));
Sim_SCTL_SIGMAT = zeros(size(data.SCTL.T));
Sim_SCTL_R = zeros(size(data.SCTL.T));
% check wether there is a parallel pool available
try
p = gcp('nocreate');
catch
p = [];
end
if isempty(p)
for i = 1:size(data.SCTL.Y,3)
YY = zeros(size(data.SCTL.Y(:,:,i)));
SY = zeros(size(data.SCTL.Y(:,:,i)));
TT = zeros(size(data.SCTL.T(:,:,i)));
ST = zeros(size(data.SCTL.T(:,:,i)));
RR = zeros(size(data.SCTL.T(:,:,i)));
[ logL, bhat, Sim ] = logL_SCTL_si(xi, model, data, s, options, P, i);
logLi_D(i,1) = logL.D;
logLi_T(i,1) = logL.T;
logLi_b(i,1) = logL.b;
logL_sc(i,1) = logL.val;
if(options.integration)
logLi_I(i,1) = logL.I;
end
b(:,i) = bhat.val;
if(options.nderiv>0)
dbdxi(i,:,:) = bhat.dxi;
dlogL_scdxi(i,:) = logL.dxi;
end
YY(data.SCTL.ind_y(:,i),:) = reshape(Sim.SCTL_Y,size(YY(data.SCTL.ind_y(:,i),:)));
SY(data.SCTL.ind_y(:,i),:) = reshape(Sim.SCTL_Sigma_Y,size(SY(data.SCTL.ind_y(:,i),:)));
TT(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_T,size(TT(data.SCTL.ind_t(:,i),:)));
ST(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_Sigma_T,size(ST(data.SCTL.ind_t(:,i),:)));
RR(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_R,size(RR(data.SCTL.ind_t(:,i),:)));
Sim_SCTL_Y(:,:,i) = YY;
Sim_SCTL_SIGMAY(:,:,i) = SY;
Sim_SCTL_T(:,:,i) = TT;
Sim_SCTL_SIGMAT(:,:,i) = ST;
Sim_SCTL_R(:,:,i) = RR;
end
else
parfor i = 1:size(data.SCTL.Y,3)
YY = zeros(size(data.SCTL.Y(:,:,i)));
SY = zeros(size(data.SCTL.Y(:,:,i)));
TT = zeros(size(data.SCTL.T(:,:,i)));
ST = zeros(size(data.SCTL.T(:,:,i)));
RR = zeros(size(data.SCTL.T(:,:,i)));
[ logL, bhat, Sim ] = logL_SCTL_si(xi, model, data, s, options, P, i);
logLi_D(i,1) = logL.D;
logLi_T(i,1) = logL.T;
logLi_b(i,1) = logL.b;
logL_sc(i,1) = logL.val;
if(options.integration)
logLi_I(i,1) = logL.I;
end
b(:,i) = bhat.val;
if(options.nderiv>0)
dbdxi(i,:,:) = bhat.dxi;
dlogL_scdxi(i,:) = logL.dxi;
end
YY(data.SCTL.ind_y(:,i),:) = reshape(Sim.SCTL_Y,size(YY(data.SCTL.ind_y(:,i),:)));
SY(data.SCTL.ind_y(:,i),:) = reshape(Sim.SCTL_Sigma_Y,size(SY(data.SCTL.ind_y(:,i),:)));
TT(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_T,size(TT(data.SCTL.ind_t(:,i),:)));
ST(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_Sigma_T,size(ST(data.SCTL.ind_t(:,i),:)));
RR(data.SCTL.ind_t(:,i),:) = reshape(Sim.SCTL_R,size(RR(data.SCTL.ind_t(:,i),:)));
Sim_SCTL_Y(:,:,i) = YY;
Sim_SCTL_SIGMAY(:,:,i) = SY;
Sim_SCTL_T(:,:,i) = TT;
Sim_SCTL_SIGMAT(:,:,i) = ST;
Sim_SCTL_R(:,:,i) = RR;
end
end
P{s}.SCTL.bhat = b;
if(options.nderiv>0)
P{s}.SCTL.dbhatdxi = dbdxi;
end
Sim_SCTL.Y = Sim_SCTL_Y;
Sim_SCTL.Sigma_Y = Sim_SCTL_SIGMAY;
Sim_SCTL.T = Sim_SCTL_T;
Sim_SCTL.Sigma_T = Sim_SCTL_SIGMAT;
Sim_SCTL.R = Sim_SCTL_R;
%% Visulization
if options.plot
% Visualisation of single cell parameters
if(isempty(fp))
if(isfield(model,'title'))
if(ischar(model.title))
fp(s) = figure('Name',model.title);
else
fp(s) = figure;
end
else
fp(s) = figure;
end
else
if(length(fp)<s)
if(isfield(model,'title'))
if(ischar(model.title))
fp(s) = figure('Name',model.title);
else
fp(s) = figure;
end
else
fp(s) = figure;
end
elseif(isempty(fp(s)))
if(isfield(model,'title'))
if(ischar(model.title))
fp(s) = figure('Name',model.title);
else
fp(s) = figure;
end
else
fp(s) = figure;
end
end
end
figure(fp(s))
clf
b_s = P{s}.SCTL.bhat;
n_b = size(b_s,1);
for j = 1:n_b
subplot(ceil((n_b+1)/4),4,j+1)
xx = linspace(-5*sqrt(D(j,j)),5*sqrt(D(j,j)),100);
%nhist(P{s}.SCTL.bhat(j,:),'pdf','noerror');
hold on
plot(xx,normcdf(xx,0,sqrt(D(j,j))),'.-b','LineWidth',2)
ecdf = zeros(length(xx),1);
for k = 1:length(xx)
ecdf(k) = sum(b_s(j,:)<xx(k))/length(b_s(j,:));
end
plot(xx,ecdf,'--r','LineWidth',2)
if(j==1)
end
xlim([-5*sqrt(D(j,j)),5*sqrt(D(j,j))])
ylim([0,1.1])
%xlabel(char(model.sym.b(model.ind_b(j))));
ylabel('cdf')
box on
end
subplot(ceil(n_b+1/4),4,1,'Visible','off')
hold on
plot(xx,normcdf(xx,0,sqrt(D(j,j))),'.-b','Visible','off')
plot(xx,ecdf,'--r','LineWidth',2,'Visible','off')
legend('cdf of single cell Parameters','cdf of populaton Parameters')
% Visualisation of likelihood contribution
if(isempty(fl))
if(isfield(model,'title'))
if(ischar(model.title))
fl(s) = figure('Name',model.title);
else
fl(s) = figure;
end
else
fl(s) = figure;
end
else
if(length(fl)<s)
if(isfield(model,'title'))
if(ischar(model.title))
fl(s) = figure('Name',model.title);
else
fl(s) = figure;
end
else
fl(s) = figure;
end
elseif(isempty(fl(s)))
if(isfield(model,'title'))
if(ischar(model.title))
fl(s) = figure('Name',model.title);
else
fl(s) = figure;
end
else
fl(s) = figure;
end
end
end
figure(fl(s))
clf
if(options.integration)
bar(transpose([logLi_D,logLi_T,logLi_b,logLi_I]),'stacked')
set(gca,'XTickLabel',{'data','event','par','int'})
else
bar(transpose([logLi_D,logLi_T,logLi_b]),'stacked')
set(gca,'XTickLabel',{'data','event','par'})
end
ylabel('log-likelihood')
title('likelihood contribution')
% Visualisation of data and fit
model.plot(data,Sim_SCTL,s);
end
end