R/plotKinBreakDown.R

In TIMP: Fitting Separable Nonlinear Models in Spectroscopy and Microscopy

"plotKinBreakDown" <-
  function(multimodel, multitheta, plotoptions) {
    oldpar <- par(no.readonly = TRUE)
    on.exit(par(oldpar))
    if (dev.cur() != 1) {
      dev.new()
    }
    plotrow <- length(plotoptions@breakdown$plot)
    plotcol <- 1
    par(plotoptions@paropt)
    par(oma = c(0, 0, 4, 0))
    par(mfrow = c(plotrow, plotcol))
    m <- multimodel@modellist
    t <- multitheta

    superimpose <- plotoptions@breakdown$superimpose
    if (length(superimpose) == 0 || any(superimpose > length(m))) {
      superimpose <- 1:length(m)
    }
    indList <- list()
    divdrel <- plotoptions@divdrel
    m <- multimodel@modellist
    t <- multitheta
    res <- multimodel@fit@resultlist
    allx2 <- allx <- vector()
    pl <- plotoptions@breakdown$plot
    if (length(plotoptions@breakdown$tol) == 0) {
      tol <- abs(m[[1]]@x2[1] - m[[1]]@x2[2]) / 100
    } else {
      tol <- plotoptions@breakdown$tol
    }
    groups <- multimodel@groups
    grtoplot <- vector("list", length(m))
    cnt <- 1
    ds <- vector()
    while (length(ds) < length(m)) {
      for (i in 1:length(groups[[cnt]])) {
        gds <- groups[[cnt]][[i]][2]
        if (!gds %in% ds) {
          ds <- append(ds, gds)
          grtoplot[[gds]] <- list(groups[[cnt]], i)
        }
        ds <- append(ds, gds)
      }
    }
    for (j in 1:length(pl)) {
      indList[[j]] <- vector()
      for (i in superimpose) {
        if (length(which(m[[i]]@x2 >= pl[j])) > 0) {
          x1 <- min(which(m[[i]]@x2 >= pl[j]))
        } else {
          x1 <- NA
        }
        if (length(which(m[[i]]@x2 <= pl[j])) > 0) {
          x2 <- max(which(m[[i]]@x2 <= pl[j]))
        } else {
          x2 <- NA
        }
        if (is.na(x1)) {
          x3 <- x2
        }
        if (is.na(x2)) {
          x3 <- x1
        }
        if (length(na.omit(c(m[[i]]@x2[x1], m[[i]]@x2[x2]))) == 2) {
          if (abs(m[[i]]@x2[x1] - pl[j]) <= abs(m[[i]]@x2[x2] -
            pl[j])) {
            x3 <- x1
          } else {
            x3 <- x2
          }
        }
        if ((pl[j] <= m[[i]]@x2[x3] + tol) && (pl[j] >= m[[i]]@x2[x3] - tol)) {
          indList[[j]] <- append(indList[[j]], x3)
        } else {
          indList[[j]] <- append(indList[[j]], NA)
        }
      }
    }
    for (i in superimpose) {
      allx2 <- append(allx2, m[[i]]@x2)
      allx <- append(allx, m[[i]]@x)
    }

    allx2 <- sort(unique(allx2))
    allx <- sort(unique(allx))
    xmax <- max(allx)
    xmin <- min(allx)
    k <- t[[1]]@kinpar
    conmax <- list()
    spectraList <- getSpecList(multimodel, t)
    for (b in 1:length(pl)) {
      minr <- maxr <- 0
      resPList <- dataList <- fittedList <- list()
      newplot <- TRUE
      for (i in superimpose) {
        if (!is.na(indList[[b]][i])) {
          breakl <- indList[[b]][i]
          group <- grtoplot[[i]][[1]]
          place <- grtoplot[[i]][[2]]
          dset <- group[[place]][2]
          contoplot <- getKinConcen(group,
            multimodel, t,
            oneDS = place, weight = FALSE
          )
          spec <- spectraList[[i]]
          resP <- matrix(0, nrow(contoplot), ncol(contoplot))
          for (xx in 1:ncol(contoplot)) {
            resP[, xx] <- contoplot[
              ,
              xx
            ] * spec[breakl, xx]
          }
          cohspec <- m[[i]]@cohspec
          cohcol <- m[[i]]@cohcol
          if (length(cohcol) >= 1) {
            resP[, cohcol[1]] <- rowSums(as.matrix(resP[
              ,
              cohcol
            ]))
          }
          if (length(cohcol) >= 2) {
            resP <- resP[, -cohcol[2:length(cohcol)]]
          }
          if (plotoptions@divdrel && length(t[[i]]@drel) != 0) {
            if (length(m[[i]]@dscalspec$perclp) != 0) {
              if (m[[i]]@dscalspec$perclp) {
                resP <- resP / t[[i]]@drel[breakl]
              } else {
                resP <- resP / t[[i]]@drel
              }
            }
          }
          data <- m[[i]]@psi.df[, breakl]
          fitted <- res[[i]]@fitted[[breakl]]
          if (divdrel && length(t[[i]]@drel) != 0) {
            if (length(m[[i]]@dscalspec$perclp) != 0) {
              if (m[[i]]@dscalspec$perclp) {
                data <- data / t[[i]]@drel[breakl]
                fitted <- fitted / t[[i]]@drel[breakl]
              } else {
                data <- data / t[[i]]@drel
                fitted <- fitted / t[[i]]@drel
              }
            }
          }
          if (m[[i]]@weight) {
            fitted <- fitted / m[[i]]@weightM[, breakl]
          }
          resPList[[length(resPList) + 1]] <- resP
          fittedList[[length(fittedList) + 1]] <- fitted
          dataList[[length(dataList) + 1]] <- data
          for (j in 1:ncol(resPList[[i]])) {
            maxr <- max(na.omit(resP), maxr, fitted, data)
            minr <- min(na.omit(resP), minr, fitted, data)
          }
        } else {
          resPList[[length(resPList) + 1]] <- list()
          fittedList[[length(fittedList) + 1]] <- list()
          dataList[[length(dataList) + 1]] <- list()
        }
      }
      if (length(plotoptions@breakdown$ylim) == 0) {
        ylim <- c(minr, maxr)
      } else {
        ylim <- plotoptions@breakdown$ylim
      }
      for (i in superimpose) {
        if (!is.na(indList[[b]][i])) {
          breakl <- indList[[b]][i]
          mu <- res[[i]]@irfvec[[breakl]][1]
          data <- resPList[[i]][, j] * spectraList[[i]][
            breakl,
            j
          ]
          matlinlogplot(m[[i]]@x, resPList[[i]],
            mu = mu,
            alpha = plotoptions@linrange, add = !newplot,
            type = "l", lty = i, ylab = plotoptions@ylab,
            xlab = plotoptions@xlab, ylim = ylim, xlim = c(
              xmin,
              xmax
            ),
            main = m[[i]]@x2[breakl]
          )
          newplot <- FALSE
          matlinlogplot(m[[i]]@x, dataList[[i]],
            mu = mu,
            alpha = plotoptions@linrange, add = !newplot,
            type = "l", lty = 1, col = i, lwd = 2
          )
          matlinlogplot(m[[i]]@x, fittedList[[i]],
            mu = mu,
            alpha = plotoptions@linrange, add = !newplot,
            type = "l", lty = 2, col = i, lwd = 2
          )
        }
      }
    }
    if (length(plotoptions@title) != 0) {
      tit <- plotoptions@title
      if (plotoptions@addfilename) {
        tit <- paste(tit, m[[i]]@datafile)
      }
    } else {
      tit <- ""
      if (plotoptions@addfilename) {
        tit <- paste(tit, m[[i]]@datafile)
      }
    }
    mtext(tit, side = 3, outer = TRUE, line = 1)
    par(las = 2)
    if (dev.interactive() && length(plotoptions@makeps) != 0) {
      if (plotoptions@output == "pdf") {
        pdev <- pdf
      } else {
        pdev <- postscript
      }
      dev.print(device = pdev, file = paste(plotoptions@makeps,
        "_breakdown.", plotoptions@output,
        sep = ""
      ))
    }
  }