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scratchwork.R
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##### Print Function #####
# quick.table=function(my.table,
# type,
# test.stat="Pillai",
# print.type="full",
# the.caption=NULL,
# the.footer=NULL,
# abbrev.length=ab.len,
# SS.type=2,
# new.rownames.int=NULL,
# new.rownames.treat=NULL,
# swap.na=NULL,
# round.num=2,
# col.names=my.colnames,
# print.now=T){
#
# #### Inits ####
#
# if(type=="ord"){
# ab.len=30
# library(ordinal)
# }else{
# ab.len=15
# }
#
# attr(my.table,"quick.print.type")=print.type
# attr(my.table,"quick.abbrev.length")=abbrev.length
# attr(my.table,"class")=c(attr(my.table,"class"),"quick.table")
#
#
# if(type=="manova" | type=="stats::manova"){
# round.rows=c(2,3,4)
# p.val.row=8
# my.colnames=c("Variable",paste(test.stat,"<br />Statistic"),"F-Value",
# paste("Type ",ifelse(SS.type==2,"II","III"),"<br />Sums of<br />Squares"),
# "dF","Mult<br />dF","Resid<br />dF","Pr(>F)")
# }
#
# #### Find Intercept, Treatment, Total Change Locations ####
# int.loc=grep("Intercept",my.table[[1]])
# treat.loc=grep("Treatment Change",my.table[[1]])
# total.loc=grep("Total Change",my.table[[1]])
# end.loc=grep("^Total$",my.table[[1]])
#
# #### Swap value for NA (i.e. remove it) ####
# if(!is.null(swap.na)){
# na.vals=strsplit(swap.na)[[1]]
# }
#
# #### Replace rownames ####
# if(!is.null(new.rownames.int)){
# #### Do later
# }
#
# #### Round ####
# for(i in 1:length(round.rows)){
# my.table[[round.rows[i]]]=round(as.numeric(my.table[[round.rows[i]]]),digits =round.num)
# }
#
# #### P-val ####
# for(i in 1:end.loc){
# if(!is.na(my.table[i,p.val.row])){
# my.table[i,p.val.row]=round(as.numeric(my.table[i,p.val.row]),digits=3)
# if(my.table[i,p.val.row]==0){my.table[i,p.val.row]="<.001"}
# if(my.table[i,p.val.row]==1){my.table[i,p.val.row]=">.999"}
# }
# }
#
# #### Change NA to ####
# my.table=replace(my.table,is.na(my.table)," ")
#
# #### Add style and basic tag structure####
# attr(my.table,"quick.doctype")=paste("<!DOCTYPE html --- Created with quick.tasks by Christopher Kraner>")
# attr(my.table,"quick.full.start")=paste("<html><head><style>table{border: 1px solid black;border-collapse: collapse;}",
# "th{padding: 15px;}td {padding: 5px;}#red {border: 2px solid red;}",
# "#black {border: 2px solid black;}#change {border-top: 1px solid black;text-align: left;}",
# "tr:hover {background-color: #f5f5f5;}#int {border-top: 1px solid black;}#col {border-bottom: 1px solid black;}</style></head>",sep="")
# attr(my.table,"quick.part.start")=paste("<div style=\"overflow-x:auto;\"><table style=\"width:100%\">")
# attr(my.table,"quick.caption")=ifelse(is.null(the.caption),NA,paste("<caption>",the.caption,"</caption>"))
# attr(my.table,"quick.part.end")=paste("</table></div>")
# attr(my.table,"quick.full.end")=paste("</body></html>")
#
# ##### Start table ####
# if(print.type=="full"){
# my.html.table=paste(attr(my.table,"quick.doctype"),attr(my.table,"quick.full.start"),attr(my.table,"quick.part.start"))
# }else{
# my.html.table=paste(attr(my.table,"quick.doctype"),attr(my.table,"quick.part.start"))
# }
#
# #### Put in caption
# if(!is.null(the.caption)){
# my.html.table=paste(my.html.table,attr(my.table,"quick.caption"))
# }
#
# #### Put in Column Headings
# if(type!="glm"){
# col.headings="<tr id=\"col\", align=\"center\">"
# for(i in 1:length(my.colnames)){
# col.headings=paste(col.headings,"<th>",my.colnames[i],"</th>")
# }
# col.headings=paste(col.headings,"</tr>")
# }else{
# stop("Sorry, not to GLM yet.")
# }
# my.html.table=paste(my.html.table,col.headings)
#
# #### Put in Rows
# for(i in 1:end.loc){
#
# #### Variable name
# if(i==1 & my.table[1,1]=="Intercept Change"){
# #### GLM stuff
# #### Make th, add id="change"
# my.line=paste("<tr id=\"int\"><th>",my.table[i,1],"</th>")
# }else if(i==treat.loc | i==total.loc){
# my.line=paste("<tr id=\"change\"><th align=\"left\">",my.table[i,1],"</th>")
# }else if(i==1 & i==int.loc){
# my.line=paste("<tr id=\"int\"><td>",my.table[i,1],"</td>")
# }else if(i>total.loc){
# my.line=paste("<tr><th align=\"left\">",my.table[i,1],"</th>")
# }else{
# my.line=paste("<tr><td>",my.table[i,1],"</td>")
# }
#
# #### Rest of row
# for(j in 2:p.val.row){
# my.line=paste(my.line,"<td>",my.table[i,j],"</td>")
# }
#
# my.line=paste(my.line,"</tr>")
#
# my.html.table=paste(my.html.table,my.line)
# if(i==1){
# attr(my.table,"quick.rows")=my.line
# }else{
# attr(my.table,"quick.rows")=paste(attr(my.table,"quick.rows"),my.line)
# }
# }
#
# #### Put in custom bottom
#
#
# #### Put in end
# my.html.table=paste(my.html.table,"</table></div>")
# if(print.type=="full"){
# my.html.table=paste(my.html.table,"</body></html>")
# }
#
# if(print.now){
# tempDir <- tempfile()
# dir.create(tempDir)
# htmlFile <- file.path(tempDir, "index.html")
# writeLines(my.html.table,htmlFile)
# viewer <- getOption("viewer")
# viewer(htmlFile)
# }
#
# return(my.table)
# }
#### Contrasts function ####
##### Things needed #####
#my.y.levels - can get
#my.new.model - NEED - FROM THE TABLE
#my.SSP.treat.df - NEED - FROM THE LINE
#SS.type - NEED
#the.resid.SS
#the.resid.df
#my.latent.SSP.err - NEED - FROM THE LINE
#my.new.df
# quick.part.cont=function(my.nested.table,SS.type,latent.cont=F){
# #### Get y levels
# my.y.levels=dim(my.nested.table[1,4][[1]][[1]])[1]
#
# #### Put in NA rows
# temp.colnames=colnames(my.nested.table)
# my.nested.table2=cbind(my.nested.table,as.matrix(c(rep(NA,dim(my.nested.table)[1]))))
# if(latent.cont){
# my.nested.table2=cbind(my.nested.table2,as.matrix(c(rep(NA,dim(my.nested.table)[1]))))
# colnames(my.nested.table2)=c(temp.colnames,"Contrasts","Latent Contrasts")
# }else{
# colnames(my.nested.table2)=c(temp.colnames,"Contrasts")
# }
# #### For each row besides the null model
# for(p in 2:dim(my.nested.table)[1]){
# #### Check if should have contrast
# if(!is.na(my.nested.table[p,7][[1]]) & my.nested.table[p,7][[1]]>1){
# #### If should, make contrast
# my.new.df=my.nested.table[p,3][[1]]$model
# my.MSE=mean(my.nested.table[p,3][[1]]$residuals^2)
# the.resid.SS=sum(diag(my.nested.table[p,4][[1]][[2]]))
# the.resid.df=my.nested.table[p,3][[1]]$df.residual
#
# if(latent.cont){
# #### Latent Mean Square Error
# my.latent.MSE=NULL
# for(j in 1:my.y.levels){
# if(i==1){
# my.latent.MSE=as.numeric(mean(my.contrast.model$residuals[i]^2))
# }else{
# my.latent.MSE=c(my.latent.MSE,as.numeric(mean(my.contrast.model$residuals[i]^2)))
# }
# }
# }
#
# #### Get mean responses for variables longer than 2
# #### WARN! LEVEL NAMES IS GOING TO BREAK IT!!!! ####
# level.name.grep=grep(my.nested.table[p,1],names(my.nested.table[p,3][[1]]$xlevels))
# level.names=as.vector(my.nested.table[p,3][[1]]$xlevels[[level.name.grep]])
# num.of.contrasts=my.nested.table[p,7][[1]]
#
# count.grep=grep(my.nested.table[p,1],names(my.new.df))
# my.count.means=NULL
# my.latent.count.means=NULL
# my.count.n=NULL
# for(j in 1:{num.of.contrasts+1}){
# if(j==1){
# my.count.means=as.vector(mean(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1]))
# my.count.n=as.vector(dim(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1])[1])
# if(latent.cont){
# for(E in 1:{my.y.levels}){
# my.latent.count.means[[E]]=as.list(mean(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1][,E]))
# }
# }
# }else{
# my.count.means=c(my.count.means,mean(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1]))
# my.count.n=c(my.count.n,dim(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1])[1])
# if(latent.cont){
# for(E in 1:{my.y.levels}){
# my.latent.count.means[[E]]=c(my.latent.count.means[[E]],mean(my.new.df[which(my.new.df[[count.grep]]==level.names[j]),1][,E]))
# }
# }
# }
# }
#
#
# #### Make contrasts
# my.contrasts=NULL
# for(j in 1:{num.of.contrasts}){
# if(j==1){
# my.contrasts=c(1,-1,rep(0,num.of.contrasts-1))
# }else{
# my.contrasts=rbind(my.contrasts,c(1,rep(0,j-1),-1,rep(0,num.of.contrasts-j)))
# }
# }
#
#
# #### Compute F values & SS
# my.contrasts.F=NULL
# my.contrasts.SSC=NULL
# if(latent.cont){
# my.latent.contrasts.F=NULL
# my.latent.contrasts.SSC=NULL
# }
# for(j in 1:{num.of.contrasts}){
# if(j==1){
# my.contrasts.I=as.integer(t(as.matrix(my.count.means)))%*%as.integer(as.matrix(my.contrasts[j,]))
# my.contrasts.denom=sum(my.contrasts[j,]^2/as.integer(my.count.n))
# my.contrasts.SSC=as.list({my.contrasts.I^2}/{my.contrasts.denom})
# my.contrasts.F=as.list({my.contrasts.I^2}/{my.MSE*my.contrasts.denom})
# if(latent.cont){
# for(l in 1:{my.y.levels}){
# my.latent.contrasts.I=as.integer(t(as.matrix(my.latent.count.means[[l]])))%*%as.integer(as.matrix(my.contrasts[j,]))
# my.latent.contrasts.SSC[[l]]=as.list({my.latent.contrasts.I^2}/{my.contrasts.denom})
# my.latent.contrasts.F[[l]]=as.list({my.latent.contrasts.I^2}/{my.latent.MSE[l]*my.contrasts.denom})
# }
# }
# }else{
# my.contrasts.I=as.integer(t(as.matrix(my.count.means)))%*%as.integer(as.matrix(my.contrasts[j,]))
# my.contrasts.denom=sum(my.contrasts[j,]^2/as.integer(my.count.n))
# my.contrasts.SSC=c(my.contrasts.SSC,{my.contrasts.I^2}/{my.contrasts.denom})
# my.contrasts.F=c(my.contrasts.F,{my.contrasts.I^2}/{my.MSE*my.contrasts.denom})
# if(latent.cont){
# for(l in 1:{my.y.levels}){
# my.latent.contrasts.I=as.integer(t(as.matrix(my.latent.count.means[[l]])))%*%as.integer(as.matrix(my.contrasts[j,]))
# my.latent.contrasts.SSC[[l]]=c(my.latent.contrasts.SSC[[l]],{my.latent.contrasts.I^2}/{my.contrasts.denom})
# my.latent.contrasts.F[[l]]=c(my.latent.contrasts.F[[l]],{my.latent.contrasts.I^2}/{my.latent.MSE[l]*my.contrasts.denom})
# }
# }
# }
# }
#
#
# #### Make rownames
# my.contrasts.names=NULL
# for(j in 1:{num.of.contrasts}){
# if(j==1){
# my.contrasts.names=as.list(paste(trimws(level.names[[1]]),"-",trimws(level.names[[j+1]])))
# }else{
# my.contrasts.names=c(my.contrasts.names,paste(trimws(level.names[[1]]),"-",trimws(level.names[[j+1]])))
# }
# }
#
#
# #### Add to table
# my.contrasts.4.table=cbind(as.matrix(unlist(my.contrasts.names)),as.numeric(as.matrix(unlist(my.contrasts.F))),as.matrix(as.numeric(unlist(my.contrasts.SSC))))
# contr.grep=grep("^Contrasts$",colnames(my.nested.table2))
# my.nested.table2[p,contr.grep]=list(my.contrasts.4.table)
#
# if(latent.cont){
# my.latent.contrasts.4.table=NULL
# for(V in 1:my.y.levels){
# if(V==1){
# my.latent.contrasts.4.table=cbind(as.matrix(unlist(my.contrasts.names)),as.numeric(as.matrix(unlist(my.latent.contrasts.F[[V]]))),as.matrix(as.numeric(unlist(my.latent.contrasts.SSC[[V]]))))
# }else{
# my.latent.contrasts.4.table=cbind(my.latent.contrasts.4.table,as.matrix(unlist(my.contrasts.names)),as.numeric(as.matrix(unlist(my.latent.contrasts.F[[V]]))),as.matrix(as.numeric(unlist(my.latent.contrasts.SSC[[V]]))))
# }
# }
# latent.contr.grep=grep("^Latent Contrasts$",colnames(my.nested.table2))
# my.nested.table2[p,latent.contr.grep]=list(my.latent.contrasts.4.table)
#
# }
# }
# }
# return(my.nested.table2)
# }
#
#
#
#
#
# #### MAKE REGULAR AND LATENT CONTRASTS ####
# for(i in 1:{my.y.levels}){
# #### Pick right model
# if(i==1){
# my.contrast.model=my.new.model[[my.y.levels^2+1]]
# }else{
# my.contrast.model=my.new.model[[{i-1}*my.y.levels+1]]
# }
#
# #### my.model
# my.model=my.new.model[[{i-1}*my.y.levels+1]]
#
# my.SSP.treat=car::Anova(my.new.model[[my.y.levels+1]],type=SS.type,test=test.stat)$SSP
#
# my.SSP.err=car::Anova(my.model[[my.y.levels+1]],type=SS.type)$SSPE
# the.resid.SS=sum(diag(my.SSP.err))
# the.resid.df=my.model$df.residual
#
# #### Mean Square Error
# my.MSE=mean(my.contrast.model$residuals^2)
#
#
# #### Latent Mean Square Error
# my.latent.MSE=NULL
# for(j in 1:my.y.levels){
# if(i==1){
# my.latent.MSE=as.numeric(mean(my.contrast.model$residuals[i]^2))
# }else{
# my.latent.MSE=c(my.latent.MSE,as.numeric(mean(my.contrast.model$residuals[i]^2)))
# }
# }
#
#
#
# #### Get mean responses for variables longer than 2
# #### WARN! LEVEL NAMES IS GOING TO BREAK IT!!!! ####
# my.count.means=NULL
# my.count.n=NULL
# level.names=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# if(q==2){
# level.names=as.vector(levels(my.contrast.model[[q]]))
# }else{
# level.names=rbind(level.names,as.vector(levels(my.contrast.model[[q]])))
# }
# for(j in 1:{my.SSP.treat.df[q]+1})
# if(j==1){
# my.count.means[[q-1]]=as.list(mean(my.new.df[as.character(my.contrast.model[[q]])==level.names[j],1]))
# my.count.n[[q-1]]=as.list(dim(my.new.df[as.character(my.contrast.model[[q]])==level.names[j],1])[1])
# }else{
# my.count.means[[q-1]]=c(my.count.means[[q-1]],mean(my.new.df[as.character(my.contrast.model[[q]])==level.names[j],1]))
# my.count.n[[q-1]]=c(my.count.n[[q-1]],dim(my.new.df[as.character(my.contrast.model[[q]])==level.names[j],1])[1])
# }
# }
# }
#
# #### Make contrasts
# my.contrasts=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# level.names=levels(my.contrast.model[[q]])
# for(j in 1:{my.SSP.treat.df[q]})
# if(j==1){
# my.contrasts[[q-1]]=c(1,-1,rep(0,my.SSP.treat.df[q]-1))
# }else{
# my.contrasts[[q-1]]=rbind(my.contrasts[[q-1]],c(1,rep(0,j-1),-1,rep(0,my.SSP.treat.df[q]-j)))
# }
# }
# }
#
# #### Compute F values
# my.contrasts.F=NULL
# my.latent.contrasts.F=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# for(j in 1:{my.SSP.treat.df[q]})
# if(j==1){
# my.contrasts.I=as.integer(t(as.matrix(my.count.means[[q-1]])))%*%as.integer(as.matrix(my.contrasts[[q-1]][j,]))
# my.contrasts.denom=sum(my.contrasts[[q-1]][j,]^2/as.integer(my.count.n[[q-1]]))
# my.contrasts.F[[q-1]]=as.list({my.contrasts.I^2}/{my.MSE*my.contrasts.denom})
# for(l in 1:{my.y.levels}){
# if(l==1){
# my.latent.contrasts.F[[q-1]]=as.list({my.contrasts.I^2}/{my.latent.MSE[l]*my.contrasts.denom})
# }else{
# my.latent.contrasts.F[[q-1]]=c(my.latent.contrasts.F[[q-1]],{my.contrasts.I^2}/{my.latent.MSE[l]*my.contrasts.denom})
# }
# }
# }else{
# my.contrasts.I=as.integer(t(as.matrix(my.count.means[[q-1]])))%*%as.integer(as.matrix(my.contrasts[[q-1]][j,]))
# my.contrasts.denom=sum(my.contrasts[[q-1]][j,]^2/as.integer(my.count.n[[q-1]]))
# my.contrasts.F[[q-1]]=c(my.contrasts.F[[q-1]],{my.contrasts.I^2}/{my.MSE*my.contrasts.denom})
# for(l in 1:{my.y.levels}){
# my.latent.contrasts.F[[q-1]]=c(my.latent.contrasts.F[[q-1]],{my.contrasts.I^2}/{my.latent.MSE[l]*my.contrasts.denom})
# }
# }
# }
# }
#
# #### Compute SS from F values
# #### NEED TO FIX
# #### Fixed
# #### change to partial resid.SS
#
# my.contrasts.SS=NULL
# my.latent.contrasts.SS=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# for(j in 1:{my.SSP.treat.df[q]}){
# if(j==1){
# my.contrasts.SS[[q-1]]=as.list({as.numeric(my.contrasts.F[[q-1]][j])*{the.resid.SS}*my.y.levels}/{the.resid.df})
# for(l in 1:{my.y.levels}){
# if(l==1){
# my.latent.contrasts.SS[[q-1]]=as.list({as.numeric(my.latent.contrasts.F[[q-1]][1])*{my.SSP.err[q-1,q-1]}*1}/{the.resid.df-my.y.levels+1})
# }else{
# my.latent.contrasts.SS[[q-1]]=c(my.latent.contrasts.SS[[q-1]],{as.numeric(my.latent.contrasts.F[[q-1]][my.y.levels*l-1])*{my.SSP.err[q-1,q-1]}*1}/{the.resid.df-my.y.levels+1})
# }
# }
# }else{
# my.contrasts.SS[[q-1]]=c(my.contrasts.SS[[q-1]],{as.numeric(my.contrasts.F[[q-1]][j])*{the.resid.SS}*my.y.levels}/{the.resid.df})
# for(l in 1:{my.y.levels}){
# if(l==1){
# my.latent.contrasts.SS[[q-1]]=c(my.latent.contrasts.SS[[q-1]],{as.numeric(my.latent.contrasts.F[[q-1]][j])*{my.SSP.err[q-1,q-1]}*1}/{the.resid.df-my.y.levels+1})
# }else{
# my.latent.contrasts.SS[[q-1]]=c(my.latent.contrasts.SS[[q-1]],{as.numeric(my.latent.contrasts.F[[q-1]][my.y.levels*j-1])*{my.SSP.err[q-1,q-1]}*1}/{the.resid.df-my.y.levels+1})
# }
# }
# }
# }
# }
# }
#
#
# #### Make rownames
# my.contrasts.names=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# for(j in 1:{my.SSP.treat.df[q]}){
# if(j==1){
# my.contrasts.names[[q-1]]=as.list(paste(level.names[[1]],"-",level.names[[j+1]]))
# }else{
# my.contrasts.names[[q-1]]=c(my.contrasts.names[[q-1]],paste(level.names[[1]],"-",level.names[[j+1]]))
# }
# }
# }
# }
#
#
# #### Make table ####
# #### NEED TO ADD PVAL SO CAN ADJUST ####
# #### p.adjust works on set of p-vals!
# my.contrasts.table=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# num.of.contrasts=my.SSP.treat.df[q]
# my.contrasts.table[[q-1]]=cbind(my.contrasts.names[[1]],my.contrasts.F[[1]],my.contrasts.SS[[1]])
# colnames(my.contrasts.table[[q-1]])=c("name","F.val","SS")
# }
# }
# }
#
#
# #### Latent tables ####
# my.latent.contrasts.F.R=NULL
# my.latent.contrasts.SS.R=NULL
# for(q in 2:length(my.SSP.treat.df)){
# if(my.SSP.treat.df[q]>1){
# if(q==2){
# the.latent.levels=1
# num.of.contrasts=my.SSP.treat.df[q]
# for(s in 2:my.SSP.treat.df[q]){
# the.latent.levels=c(the.latent.levels,my.y.levels*s-1)}
# my.latent.contrasts.F.R[[q-1]]=as.list(my.latent.contrasts.F[[q-1]][[1]])
# my.latent.contrasts.SS.R[[q-1]]=as.list(my.latent.contrasts.SS[[q-1]][[1]])
# for(r in 2:length(the.latent.levels)){
# my.latent.contrasts.F.R[[q-1]]=c(my.latent.contrasts.F.R[[q-1]],my.latent.contrasts.F[[q-1]][[the.latent.levels[r]]])
# my.latent.contrasts.SS.R[[q-1]]=c(my.latent.contrasts.SS.R[[q-1]],my.latent.contrasts.SS[[q-1]][[the.latent.levels[r]]])
# }
# for(v in 2:my.y.levels){
# the.latent.levels=NULL
# for(s in 1:my.SSP.treat.df[q]){
# the.latent.levels=c(the.latent.levels,my.y.levels*s)}
# for(r in 1:length(the.latent.levels)){
# my.latent.contrasts.F.R[[q-1]]=c(my.latent.contrasts.F.R[[q-1]],my.latent.contrasts.F[[q-1]][[the.latent.levels[r]]])
# my.latent.contrasts.SS.R[[q-1]]=c(my.latent.contrasts.SS.R[[q-1]],my.latent.contrasts.SS[[q-1]][[the.latent.levels[r]]])
# }
# }
# }else{
# for(v in 1:my.y.levels){
# the.latent.levels=NULL
# #the.latent.levels=q-1
# for(s in 1:my.SSP.treat.df[q]){
# the.latent.levels=c(the.latent.levels,my.y.levels*s)}
# for(r in 1:length(the.latent.levels)){
# my.latent.contrasts.F.R[[q-1]]=c(my.latent.contrasts.F.R[[q-1]],my.latent.contrasts.F[[q-1]][[the.latent.levels[r]]])
# my.latent.contrasts.SS.R[[q-1]]=c(my.latent.contrasts.SS.R[[q-1]],my.latent.contrasts.SS[[q-1]][[the.latent.levels[r]]])
# }
# }
# }
# }
# }
# my.latent.contrasts.table=NULL
# for(q in 2:length(my.SSP.treat.df)){
# num.of.contrasts=my.SSP.treat.df[q]
# if(my.SSP.treat.df[q]>1){
# for(g in 1:my.y.levels){
# my.latent.contrasts.table[[q-1]][[g]]=cbind(my.contrasts.names[[1]],my.latent.contrasts.F.R[[q-1]][{g+ifelse(g>1,{g-1}*my.SSP.treat.df[q]-1,0)}:{g*my.SSP.treat.df[q]}],my.latent.contrasts.SS.R[[q-1]][{g+ifelse(g>1,{g-1}*my.SSP.treat.df[q]-1,0)}:{g*my.SSP.treat.df[q]}])
# }
# }
# }
# }
#### ORDINAL #####
#### Analysis of Devience table
#### Based on ordinal package primer by
#### Rune Hauabo B Christensen
#### Check for null model
#### Pairwise deletion of variables in data frame performed
new.df=my.model$model
new.model=update(my.model,data=new.df)
null.model=update(new.model,~1)
if(type=="ord"){
vars.df=new.model$edf-null.model$edf
}else{
vars.df=new.model$df.null-new.model$df.residual
}
if(vars.df==0){
stop("This is the null model.")
}
if(type=="ord"){
treat.dev=abs(as.numeric(levels(new.model$info$AIC)[1])-as.numeric(levels(null.model$info$AIC)[1]))
vars.dev=drop1(new.model, test="Chi")$LRT[-1]
vars.dev.df=drop1(new.model,test="Chi")$Df[-1]
vars.dev.p=drop1(new.model,test="Chi")$`Pr(>Chi)`[-1]
#total.dev=-2*{as.integer(levels(null.model$info$logLik)[1])-as.integer(levels(new.model$info$logLik)[1])}
total.dev=anova(null.model,new.model)$LR.stat[2]
resid.dev=total.dev-treat.dev
resid.df=null.model$edf
total.df=new.model$edf
vars.or=exp(coef(new.model))[{null.model$edf+1}:length(coef(new.model))]
vars.or.confint=exp(confint(new.model,type="Wald"))[{null.model$edf+1}:length(coef(new.model)),]
}else{
resid.dev=new.model$deviance
resid.df=new.model$df.residual
vars.dev=anova(new.model,test="Chi")$Deviance[-1]
vars.dev.df=anova(new.model,test="Chi")$Df[-1]
vars.dev.p=anova(new.model,test="Chi")$`Pr(>Chi)`[-1]
total.dev=new.model$null.deviance-new.model$deviance
vars.dev.total=sum(vars.dev)
vars.or=exp(coef(new.model))[-1]
vars.or.confint=exp(confint(new.model,type="Wald"))[-1,]
}
my.names=names(vars.or)
dev.table=as.data.frame(matrix(ncol=7,nrow=1))
names(dev.table)=c("var","p.odd","p.odd.2.5","p.odd.97.5","deviance","df","p-val")
if(type=="ord"){
dev.table[1,]=c("Treatment",NA,NA,NA,treat.dev,vars.df,dchisq(treat.dev,vars.df))
dev.var2=2
}else{
dev.var2=1
}
dev.var=1
while(dev.var < {vars.df+1}){
dev.table[dev.var2,]=c(my.names[dev.var],vars.or[dev.var],vars.or.confint[dev.var,1],vars.or.confint[dev.var,2],vars.dev[dev.var],vars.dev.df[dev.var],vars.dev.p[dev.var])
dev.var2=dev.var2+1
dev.var=dev.var+1
}
dev.table[dev.var2+1,]=c("Residual",NA,NA,NA,resid.dev,resid.df,dchisq(resid.dev,resid.df))
dev.table[dev.var2+2,]=c("Total",NA,NA,NA,total.dev,total.df,dchisq(total.dev,total.df))
for(i in 2:7){
dev.table[,i]=as.numeric(dev.table[,i])
}
options(pixie_interactive = pix.int,
pixie_na_string = "")
dev.table.dusted=pixiedust::dust(dev.table)%>%
sprinkle(cols = "p-val", fn = quote(pvalString(
value, digits = 3, format = "default"
))) %>%
sprinkle_print_method(pix.method) %>%
sprinkle_na_string()%>%
sprinkle_border(rows=1:dim(dev.table)[1],border="all")%>%
sprinkle_round(cols=2,round=2)%>%
sprinkle_round(cols=5:6,round=2)%>%
sprinkle_round(cols=3:4,round=4)%>%
sprinkle_colnames("Variable","Odds <br /> Ratio","Confidence <br /> 2.5%","Interval <br /> 97.5%","Deviance","dF","P(>Chisq)")%>%
sprinkle_pad(cols=1:7,pad=5,part="head")%>%
sprinkle_border(cols=1:2,border="all",part="head")%>%
sprinkle_border(cols=5:7,border="all",part="head")%>%
sprinkle_border(cols=3:4,border=c("top","bottom"),part="head")%>%
sprinkle_align(rows=1,halign="center",part="head")
family.glance=as.data.frame(matrix(ncol=7,nrow=1))
family.glance[1,]=c(paste("Family: Ordinal <br />","Link method: ",levels(new.model$info$link),sep=""),rep(NA,6))
#family.glance[2,]=c(paste("Link method: ",levels(new.model$info$link),sep=""),rep(NA,6))
dev.table.dusted=redust(dev.table.dusted,family.glance,part="foot")%>%
sprinkle_na_string()%>%
sprinkle(rows=1,merge=T,halign="center",part="foot")
if (pix.int) {
return(dev.table.dusted)
} else{
my.manova.pixie = print(dev.table.dusted, quote = F)[1]
return(my.manova.pixie)
}