Skip to main content
  • Home
  • Development
  • Documentation
  • Donate
  • Operational login
  • Browse the archive

swh logo
SoftwareHeritage
Software
Heritage
Archive
Features
  • Search

  • Downloads

  • Save code now

  • Add forge now

  • Help

  • 31c47d3
  • /
  • 0_fns_v2.R
Raw File Download

To reference or cite the objects present in the Software Heritage archive, permalinks based on SoftWare Hash IDentifiers (SWHIDs) must be used.
Select below a type of object currently browsed in order to display its associated SWHID and permalink.

  • content
  • directory
content badge
swh:1:cnt:b388dd4ef49fcbe81de09abee978cb4fad51cf35
directory badge
swh:1:dir:31c47d3bca4920f4bdf7ceba2d4ce97d229dc7ec

This interface enables to generate software citations, provided that the root directory of browsed objects contains a citation.cff or codemeta.json file.
Select below a type of object currently browsed in order to generate citations for them.

  • content
  • directory
Generate software citation in BibTex format (requires biblatex-software package)
Generating citation ...
Generate software citation in BibTex format (requires biblatex-software package)
Generating citation ...
0_fns_v2.R
logplus = function(y){
  min1 = min(y[y>0 & !is.na(y)])/2
  y[y<=0 & !is.na(y)] = min1
  return(y)
}

verboseScatterplot = function(x,y,main="",
         xlim=range(x,na.rm = TRUE),ylim=range(y,na.rm = TRUE),
         ...){
  cor1 = cor.test(x,y, use = "pairwise.complete")
  
  p1 = cor1$p.value
  cor2 = round(cor1$estimate,2)
  
  plot(x,y, xlab=xlab,ylab=ylab,pch=19,
       xlim=xlim,ylim=ylim,
       main=paste0(main,"Cor=",cor2,
                        "\nP=",signif(p1,3)))
}

invfn <- function(x){
  m = mean(x, na.rm=TRUE)
  mae = mean(abs(x-m), na.rm=TRUE)
  medae = median(abs(x-m), na.rm=TRUE)
  sdx = sd(x, na.rm=TRUE)
  return(c(mae,medae,sdx))
}

caloldslope2 <- function(cg1,age1, UseMaturity = TRUE,
                         maxage=100,maturity, props = c(1, 1.5),
                        cut1=5,intercept = TRUE, calslope=TRUE){
  if(ncol(cg1) != length(age1)) return(print("Input lengths differ."))
  n = ncol(cg1)
  # y = cg1
  
  slopes = cors = SD = SDcg = rep(NA, length(props))
  rageRange = matrix(nrow = length(props), ncol = 2) 
  for(j in 1:length(props)){
    prop = props[j]
    if (UseMaturity) id1 = which(age1>= prop*maturity) else
      id1 = which(age1>= prop*0.1*maxage)
    n1 = length(id1)
    
    if (n1>= cut1) {
      sdcg = sd(colMeans(cg1[,id1]))
      y = scale(colMeans(cg1[,id1]))
      slope1 = ifelse(intercept, 
                      coef(lm(y~age1[id1]))[2], 
                      coef(lm(y~age1[id1]-1)) ) 
      slopes[j] = slope1
      SD[j] = sd1 = sd(age1[id1]/maxage)
      SDcg[j] = sdcg
      cor1 = cor(y, age1[id1])
      cors[j] = cor1
      
      rageRange[j,] = range(age1[id1])/maxage
    }
  }
  return(list(slopes = slopes, cors = cors,
              ragesds = SD,
              SDMeth = SDcg,
              rageRange = rageRange))
}

calslope2 <- function(cg1,age1, UseMaturity = FALSE,
                      maxage=100,maturity, props = props,
                      cut1=5, intercept = TRUE){
  if(ncol(cg1) != length(age1)) return(print("Input lengths differ."))
  n = ncol(cg1)
  # y = cg1
  
  slopes = cors = SD = SDcg = rep(NA, length(props))
  rageRange = matrix(nrow = length(props), ncol = 2) 
  for(j in 1:length(props)){
    prop = props[j]
    if(UseMaturity& j<= 3){
      id1 = which(age1<= 10*prop*maturity)
      n1 = length(id1)
      
    }else {
      id1 = which(age1<= prop*maxage)
      n1 = length(id1)
      
    }
    
    if (n1>= cut1) {
      sdcg = sd(colMeans(cg1[,id1]))
      y = scale(colMeans(cg1[,id1]))
      
      slope1 = ifelse(intercept, 
                      coef(lm(y~age1[id1]))[2], 
                      coef(lm(y~age1[id1]-1)) ) 
      slopes[j] = slope1
      SD[j] = sd1 = sd(age1[id1]/maxage)
      SDcg[j] = sdcg
      cor1 = cor(y, age1[id1])
      cors[j] = cor1
      
      rageRange[j,] = range(age1[id1])/maxage
    }
  }
  return(list(slopes = slopes, cors = cors,
              ragesds = SD,
              SDMeth = SDcg,
              rageRange = rageRange))
}


AROCM = function(cgmean, age1, intercept = TRUE){
  {
    sdcg = sd(cgmean)
    y = scale(cgmean)
    
    if(intercept) lm1 = lm(y~age1) else
      lm1 = lm(y~age1-1)
    slope1 = ifelse(intercept, 
                    coef(lm1)[2], 
                    coef(lm1) )
    r2 = summary(lm1)$r.squared
    
    cor1 = cor(y, age1)
    
    out = c(slope1, cor1, sd(age1), sdcg, r2)
    names(out) = c("AROCM", "Cor", "SD_Age", "SD_Methyl", "R2")
  }
  return(out)

}
fitAROCM = function(dat1, SpeciesMat, ageRange = c(0,1), 
                    relativeAge = TRUE, plotout = FALSE,
                    cut1 = 3){
  
  # outmat = SpeciesMat[,c(1:3, 9:12)]
  outmat = matrix(NA, nrow = nrow(SpeciesMat), ncol = 5)
  k = 1
  while (k <= nrow(SpeciesMat) ) {
    
    spec = SpeciesMat$SpeciesLatinName[k]
    tissue = SpeciesMat$Tissue[k]
    #print(spec)
    if(tissue == "Blood&Skin") idx1 = which(dat1$SpeciesLatinName == spec)
    else if (substr(spec,1,2)=="1.") idx1 = which(dat1$SubOrder == spec & dat1$Tissue == tissue)
    else idx1 = which(dat1$SpeciesLatinName == spec & dat1$Tissue == tissue)
    age1 = dat1$Age[idx1]
    maxage = unique(dat1$maxAgeCaesar[idx1])[1]
    maturity = unique(dat1$AvgMaturity[idx1])[1]
    
    
    {
      p1 = pmatch(dat1$Basename[idx1], colnames(dat0sesame))
      
      cgidx = pmatch(cgid, rownames(dat0sesame))
      cg1 = dat0sesame[cgidx,p1]
      
    }
    cgmean = colMeans(cg1)
    
    if(relativeAge) 
      idx2 = which(age1>= ageRange[1]*maturity & age1<= ageRange[2]*maxage) else 
        idx2 = which(age1>= ageRange[1] & age1<= ageRange[2])
    
    if(length(unique(age1[idx2]))>= cut1){
      out1 = AROCM(cgmean[idx2], age1[idx2])
      out1[5] = out1[3]/maxage
      names(out1)[5] = "SD_RAge"
      outmat[k,] = out1
    }
    
    k = k+1
  }
  colnames(outmat) = names(out1)
  
}

plotspecs = function(mat1, nc, prop = 1,letter=4,title1=NA,tit1 = NA,
                     zoom = NA, a=NA, b=NA){
  mat1 = mat1[!is.na(mat1[,nc]),]
  x = mat1$maxAgeCaesar
  y = mat1[,nc]
  xvar = "a/Lifespan^b"
  if(prop<1) x = prop*x
  # if(prop>1) x = as.numeric(mat1$AvgMaturity)
  xvar1 = "Max Lifespan"
  # xlab1 = ifelse(prop<1, paste0(prop,xvar1), ifelse(prop==1, paste0(xvar1), 'AvgMaturity' ))
  xlab1 = ifelse(prop<1, paste0(prop,xvar1), paste0(xvar1))
  if(is.na(tit1)){
    tit1 = ifelse(prop<=1, paste0("(L,U)=(0,",prop,")"), 
                  paste0("(L,U)=(1.5*Maturity,Lifespan)"))
  }
  
  tmp1 = strsplit(colnames(mat1)[nc],".",fixed = T)[[1]]
  ylab1 = ifelse(tmp1[2]=="Slope", paste0(tmp1[1], tmp1[2]), paste0(tmp1[2], tmp1[3]) )
  
  
  offset = ifelse(min(y)<0, -min(y)*1.5, 0)
  y = y + offset 
  
  if(is.na(b)){
    lm1 = lm(log(y)~log(x))   #### log(x) = a*log(y) + b
    coef1 = as.numeric(coef(lm1))
    x1 = exp(coef1[1])*(x)^coef1[2]
    a = round(exp(coef1[1]),2)
    b = round(-coef1[2],2)
  }else if (is.na(a)){
    tmpx =  (x)^(-b)
    lm1 = lm(y~ tmpx-1, weights = tmpx)    
    coef1 = as.numeric(coef(lm1))
    x1 = coef1[1]*(x)^(-b)
    a = round(coef1[1],2)
  }else {
    x1 = a*(x)^(-b)
    
  }
  
  # name1 = paste(unlist(strsplit(colnames(mat1)[nc],".", fixed = TRUE))[c(1,3)],collapse = "")
  
  if(is.na(zoom)){
    cor1 = cor(x1,y,use = "pairwise.complete", method = "p")
    cor2 = cor(x1,y,use = "pairwise.complete", method = "s")
    plot(x1,y, type="n",xlab = paste0("a/(",xlab1,")^b"),ylab = paste0('Slope_',title1),
         main = paste0('N=',length(y),", ",tit1,'\na=',a, ', b=',b, 
                       '\n',"sCor=",round(cor2,3),", pCor=",round(cor1,3)) )
    text(x1,y, labels = mat1$MammalNumberHorvath)
    abline(0,1,lty=2)
    abline(coef(lm(y~x1)))
  } else {
    idx1 = which(x1 <= zoom)
    x1 = x1[idx1]
    y = y[idx1]
    cor1 = cor(x1,y,use = "pairwise.complete", method = "p")
    cor2 = cor(x1,y,use = "pairwise.complete", method = "s")
    xr = range(c(x1,y), na.rm = T)
    plot(x1,y, type="n",xlab = xlab1,ylab = 'Slope',xlim=xr,ylim=xr,
         main = paste0(letters[letter],'. ',xvar,"<",zoom,"\nsCor=",round(cor2,3),", pCor=",round(cor1,3)) )
    text(x1,y, labels = mat1$MammalNumberHorvath[idx1])
    abline(0,1,lty=2)
    abline(coef(lm(y~x1)))
  }
  
  return(coef1[1])
}


combineTissues <- function(slopes_mat, idx1, nc){
  speciesSlopes = ddply(slopes_mat[idx1,], c("SpeciesLatinName"), 
                        function(mat1){
                          tmpd = apply(mat1[,nc],2,median, na.rm=T)
                          # Freq = sum(mat1$Freq)
                          # c(Freq, tmpd)
                          tmpd
                        })
  
  tmp1 = match(speciesSlopes$SpeciesLatinName, SpeciesMat$SpeciesLatinName)
  speciesSlopes$MammalNumberHorvath = SpeciesMat$MammalNumberHorvath[tmp1]
  speciesSlopes
}

caloldslope <- function(cg1,age1, maxage=100,maturity, props = c(1, 1.5),
                     intercept = TRUE, calslope=TRUE){
  if(length(cg1) != length(age1)) return(print("Input lengths differ."))
  
  n = length(cg1)
  y = cg1
  
  slopes = cors = SD = rep(NA, length(props))
  rageRange = matrix(nrow = length(props), ncol = 2) 
  for(j in 1:length(props)){
    prop = props[j]
    id1 = which(age1>= prop*maturity)
    n1 = length(id1)
    
    if (n1>= 5) {
      slope1 = ifelse(intercept, 
                      coef(lm(y[id1]~age1[id1]))[2], 
                      coef(lm(y[id1]~age1[id1]-1)) ) 
      slopes[j] = slope1
      SD[j] = sd1 = sd(age1[id1]/maxage)
      cor1 = cor(y[id1], age1[id1])
      cors[j] = cor1
      
      rageRange[j,] = range(age1[id1])/maxage
    }
  }
  return(list(slopes = slopes, cors = cors,
              ragesds = SD,
              rageRange = rageRange))
}

calslope <- function(cg1,age1, maxage=100,maturity, props = props,
                     intercept = TRUE){
  if(length(cg1) != length(age1)) return(print("Input lengths differ."))
  
  n = length(cg1)
  y = cg1
  
  slopes = cors = SD = rep(NA, length(props))
  rageRange = matrix(nrow = length(props), ncol = 2) 
  for(j in 1:length(props)){
    prop = props[j]
    if(prop>1){
      id1 = which(age1>= prop*maturity)
      n1 = length(id1)
      
    }else {
      id1 = which(age1<= prop*maxage)
      n1 = length(id1)
      
    }
    if (n1>= 5) {
      slope1 = ifelse(intercept, 
                      coef(lm(y[id1]~age1[id1]))[2], 
                      coef(lm(y[id1]~age1[id1]-1)) ) 
      slopes[j] = slope1
      SD[j] = sd1 = sd(age1[id1]/maxage)
      cor1 = cor(y[id1], age1[id1])
      cors[j] = cor1
      
      rageRange[j,] = range(age1[id1])/maxage
    }
  }
  return(list(slopes = slopes, cors = cors,
              ragesds = SD,
              rageRange = rageRange))
}
  
slopefn <- function(cg1,age1, FUN = revGrowth,intercept = TRUE, takeLog = FALSE, Hampel=TRUE,
                    c0=0,c1=1, c2 = 1.001,s=4,plus=FALSE, plot = FALSE,plotname="Identity",
                    ylab=len1,
                    cex.main = 1, returnCor = FALSE){
  if(length(unique(age1))==1) return(NA)
  m0 = min(cg1)*c1
  M = ifelse(plus, min(max(cg1)+c2-1,1), min(max(cg1)*c2,1)) 
  if(takeLog) {
    if(min(age1)>0) c0=0
    else if(min(age1)==0) c0=min(0.01, min(age1[age1>0]))
    else c0 = -1.1*min(age1)
    age1 = log(age1 + c0)
    if(c0>0) print(c0)
  }
  
  y = FUN(cg1, m0, M)
  if(Hampel) y = hampel(y,s=s)
  slope1 = ifelse(intercept, coef(lm(y~age1))[2], coef(lm(y~age1-1)) ) 
  coef1 = coef(lm(y~age1))
  cor1 = cor(y,age1)
  
  if(plot){
    xlab = ifelse(takeLog, "LogAge", "Age")
    verboseScatterplot(age1, y,cex.main=cex.main,
                       main=paste0(k,". ",spec,"_", tissue,"\n",plotname,", slope=",signif(slope1,2),"\n"),
                       xlab=xlab, ylab= ylab, type="n")
    text(age1, y, labels = dat1$MammalNumberHorvath[idx1], col = dat1$col.tissue[idx1])
    abline(coef1,lty=2,lwd=2)
  }
  return(ifelse(returnCor,cor1,slope1) )
}

  

back to top

Software Heritage — Copyright (C) 2015–2026, The Software Heritage developers. License: GNU AGPLv3+.
The source code of Software Heritage itself is available on our development forge.
The source code files archived by Software Heritage are available under their own copyright and licenses.
Terms of use: Archive access, API— Content policy— Contact— JavaScript license information— Web API