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diff --git a/reports/bazar Emilie/simulatedData.R b/reports/bazar Emilie/simulatedData.R
new file mode 100644
index 0000000..7eaefb9
--- /dev/null
+++ b/reports/bazar Emilie/simulatedData.R	
@@ -0,0 +1,120 @@
+library("mclust")
+#library("R.matlab", lib.loc="~/R/x86_64-pc-linux-gnu-library/3.3")
+#redrawData = TRUE
+#if (redrawData==TRUE){
+  ###########
+  ## Model
+  ###########
+  K = 2
+  p = 48
+  T = seq(0,1.5,length.out = p)
+  T2 = seq(0,3, length.out = 2*p)
+  n = 100
+  x1 = cos(2*pi*T) + 0.2*cos(4*2*pi*T) +2*c(rep(0,round(length(T)/7)),rep(1,round(length(T)*(1-1/7))))
+  plot(T,x1)
+  lines(T,x1)
+
+  sigmaX = 0.085
+  sigmaY = 0.1
+  beta = list()
+  p1= 0.5
+  beta[[1]] =diag(c(rep(p1,5),rep(1,5), rep(p1,5), rep(1, p-15)))
+  p2 = 1
+  beta[[2]] = diag(c(rep(p2,5),rep(1,5), rep(p2,5), rep(1, p-15)))
+  ITE = 100
+  ARI1 = ARI2 = ARI3 = rep(0,ITE)
+  XY = array(0, dim = c(ITE, 2*p,n))
+  XYproj = array(0, dim=c(ITE, 96,n))
+
+  affec = list()
+  ###########
+  ## Iterations
+  ###########
+  for (ite in c(1:ITE)){
+    ###########
+    ##Sample
+    ###########
+    x = x1 + matrix(rnorm(n*p, 0, sigmaX), ncol = n)
+    affec[[ite]] = sample(c(1,2), n, replace = TRUE)
+    y  = x
+    xy = matrix(0,ncol=n, nrow= 2*p)
+     for (i in c(1:n)){
+       y[,i] = x[,i] %*% beta[[affec[[ite]][i]]] + rnorm(p, 0, sigmaY)
+       xy[,i] = c(x[,i],y[,i])
+       XY[ite,,i] = xy[,i] - mean(xy[,i])
+    #   Dx = dwt(x[,i], filter='haar')@W
+    #   Dx = rev(unlist(Dx))
+    #   Dx = Dx[2:(1+3+6+12+24)]
+    #   Ax = dwt(x[,i], filter='haar')@V
+    #   Ax = rev(unlist(Ax))
+    #   Ax = Ax[2:(1+3)]
+    #   Dy = dwt(y[,i], filter='haar')@W
+    #   Dy = rev(unlist(Dy))
+    #   Dy = Dy[2:(1+3+6+12+24)]
+    #   Ay = dwt(y[,i], filter='haar')@V
+    #   Ay = rev(unlist(Ay))
+    #   Ay = Ay[2:(1+3)]
+    #   XYproj[ite,,i] = c(Ax,Dx,Ay,Dy)
+     }
+    print(ite)
+    #
+    #
+  }
+  xy[c(7,55),] = NA
+ # write.table(XY,'data.csv', row.names=FALSE, col.names=FALSE)
+matplot(T2,xy[,affec[[ite]]==1],type='l', col='red', lty = 1)
+matplot(T2,xy[,affec[[ite]]==2],type='l', col='black', add=TRUE, lty= 1)
+abline(v = 1.5)
+text(0.75,0,'X', cex = 2 )
+text(0.75+1.5,0,'Y', cex = 2 )
+#proj =  read.table('dataProj.csv')
+#}
+
+
+#matplot(T,x,type='l', col='black', xlab = '', ylab='', lwd=1.5,lty=1)
+#matplot(T,y[,affec[[ite]]==1],type='l', col='red', xlab = '', ylab='', lwd=1.5,lty=1)
+#matplot(T,y[,affec[[ite]]==2],type='l', col='black', add=TRUE,lwd=2,lty=1)
+# proj2 = array(0,dim=c(ITE,2*p,n))
+# for (ite in c(1:ITE)){
+#   for (i in c(1:n)){
+#     A = proj[ite,(1+(i-1)*96):(i*96)]
+#     for (j in 1:96){
+#       proj2[ite,j,i] = A[1,j]
+#     }
+#   }
+#   print(ite)
+# }
+###########
+## Iterations
+###########
+Kmod2 = Kmod1 = rep(0,ITE)
+Kmod3 = rep(0,ITE)
+for (ite in c(1:ITE)){
+  print(ite)
+  ###########
+  ## k-means 1
+  ###########
+  mod1 = Mclust(t(XY[ite,,]),G = 2, mode='VII')
+  ARI1[ite] = adjustedRandIndex(mod1$classification, affec[[ite]])
+  Kmod1[ite] = mod1$G
+  # ###########
+  # ## k-means 2
+  # ###########
+  # #proj2 =
+  # mod2 = Mclust(t(XYproj[ite,,]),G = 1:8, mode='VII')
+  # ARI2[ite] = adjustedRandIndex(mod2$classification, affec[[ite]])
+  # Kmod2[ite] = mod2$G
+  # ###########
+  # ## k-means 1
+  # ###########
+  # #proj3 =
+  # mod3 = Mclust(t(XYproj[ite,c(4:12,52:60),]),G = 1:8, mode='VII')
+  # ARI3[ite] = adjustedRandIndex(mod3$classification, affec[[ite]])
+  # Kmod3[ite] = mod3$G
+}
+ARI0 = rep(1,ITE)
+par(cex.lab=1.5)
+par(cex.axis=1.5)
+boxplot(ARI0,ARI1, names = c('LassoMLE','K-means'), lwd=1.3)
+table(Kmod1)
+table(Kmod2)