Analysis Sections

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sink(file="RsessionInfoDESeq2.txt")
library('DESeq2')
library("ggplot2")
library(reshape2)
####library(tidyverse)
####library(splitstackshape)
####library(data.table)
library("RColorBrewer")
library("gplots")
####library('ggdendro')
library('ggrepel')
library("dplyr")
library("ComplexHeatmap")
library("clusterProfiler")
library(VennDiagram) ######
library(UpSetR)
library(gridExtra)
library(cluster)
library(circlize)
library(factoextra)
library(NbClust)
library("biomaRt")
library("org.Hs.eg.db")####human
library("org.Mm.eg.db")####mouse
library(venn)
library(enrichR)
library(ReactomePA)
Error in library(ReactomePA) : there is no package called ‘ReactomePA’
col_fun = colorRamp2(c(-1,-0.2, 0,0.2, 1), c("blue","cyan", "grey90","orange", "red"))#heatmap colours
col_funGR = colorRamp2(c(-1.5, 0, 1.5), c("green", "black", "red"))
col_funGR2 = colorRamp2(c(-2, 0, 2), c("green", "black", "red"))
colorsV3 <- c("cornflowerblue",  "brown1","orange2")#Venn colours
colorsV2 <- c("mediumorchid1",  "chartreuse3")#Venn colours
colorsV4<-c("cornflowerblue", "orange2", "green3","red")#Venn colours
colorsV5<-c("cornflowerblue", "orange2", "green3","purple","red")#Venn colours
#col_fun(seq(-3, 3))

DE Gene Selection

1. Genelist Selection

groupsName<-"R1_R4_kmeans_q0.05"
countsTable<-read.delim("RNAseq2019July_5.txt", header = TRUE, sep = "\t",check.names=FALSE,row.names=1)
head(countsTable)
AllGeneNames<-countsTable$Gene_Symbol
#head(AllGeneNames)
tempA<-countsTable
topDEgenes <- which(tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_20h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennq<-venn.diagram(x = list(listA,listB,listC),#,listD) ,
            category.names = c("Var37_6hv0h","Var37_20hv0h","Var37_20hv6h"),
            main="padj<0.05",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)
topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennp<-venn.diagram(x = list(listA,listB,listC) ,
            category.names = c("Var37_6hv0h","Var37_20hv0h","Var37_20hv6h"),
            main="pvalue<0.05&fold change>2",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)
topDEgenes <- which(tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennq2<-venn.diagram(x = list(listA,listB,listC),#,listD) ,
            category.names = c("Var14_6hv0h","Var14_20hv0h","Var14_20hv6h"),
            main="padj<0.05",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)
topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennp2<-venn.diagram(x = list(listA,listB,listC) ,
            category.names = c("Var14_6hv0h","Var14_20hv0h","Var14_20hv6h"),
            main="pvalue<0.05&fold change>2",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)
topDEgenes <- which((tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h))| 
(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h))|
(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))
)
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which((tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h))| 
(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h))| 
(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h)) 
 )####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which((tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h))| 
(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h))|
(tempA$padj_R4Var14TNF_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_6h))
)
listA2<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which((tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h))| 
(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h))| 
(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h))
 )####find indexes 
listB2<-tempA[ topDEgenes, ]$Gene_Symbol
vennpq<-venn.diagram(x = list(listA,listB,listA2,listB2) ,
            category.names = c("V37padj<0.05","V37p<0.05&fc>2","V14padj<0.05","V14p<0.05&fc>2"),
            main="padj compared to pvalue",
            filename = NULL,  scaled = FALSE, fill = colorsV4, cat.col = colorsV4, cat.cex = 1, cat.dist=0.3,  margin = 0.15)
grid.arrange(gTree(children=vennq), gTree(children=vennp), ncol=2,top="R1 Var37 TNF")

grid.arrange(gTree(children=vennq2), gTree(children=vennp2), ncol=2,top="R4 Var14 TNF")

grid.arrange(gTree(children=vennpq), ncol=1,top="R4 Var14 TNF")

R1 & R4 VAR37 VAR14 TNF k-means q0.05

Design

Design

#tempA<-resAll[-c(10:30) ]
tempA<-countsTable
#rownames(tempA)
rownames(tempA) <- NULL
tempA = mutate(tempA, Include=
                   ifelse(tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h), "in",
                          ifelse(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h), "in",
                                 ifelse(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h), "in",
                                        ifelse(tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h), "in",
                                               ifelse(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h),"in",
                                                      ifelse(tempA$padj_R4Var14TNF_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_6h),"in",
                                                 "out")))))))
#tempA
####library(dplyr)
tempA %>%
     group_by(Include) %>% 
     tally()
topDEgenes <- which(tempA$Include=="in")####find indexes 
head(countsTable)
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)

NB Please check columns used and renamed for plots

#baseMeansHm <-countsTable[,c(60:63)]
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)
tail(baseMeansHm[ topDEgenes, ])
baseMeansHm$Var37TNF_0h<-baseMeansHm$Var37TNF_0h_mean
baseMeansHm$Var37TNF_6h<-baseMeansHm$Var37TNF_6h_mean
baseMeansHm$Var37TNF_20h<-baseMeansHm$Var37TNF_20h_mean
baseMeansHm$Var14TNF_0h<-baseMeansHm$Var14TNF_0h_mean
baseMeansHm$Var14TNF_6h<-baseMeansHm$Var14TNF_6h_mean
baseMeansHm$Var14TNF_20h<-baseMeansHm$Var14TNF_20h_mean
baseMeansHm <-baseMeansHm[,c(7:12)]
#replace low values with 0
baseMeansHm$Var37TNF_0h[baseMeansHm$Var37TNF_0h<10]<-0
baseMeansHm$Var37TNF_6h[baseMeansHm$Var37TNF_6h<10]<-0
baseMeansHm$Var37TNF_20h[baseMeansHm$Var37TNF_20h<10]<-0
baseMeansHm$Var14TNF_0h[baseMeansHm$Var14TNF_0h<10]<-0
baseMeansHm$Var14TNF_6h[baseMeansHm$Var14TNF_6h<10]<-0
baseMeansHm$Var14TNF_20h[baseMeansHm$Var14TNF_20h<10]<-0
tail(baseMeansHm)
baseMeansHm <- log2(baseMeansHm+1)
tail(baseMeansHm)
#baseMeansHmM <-baseMeansHm2[,c(1:8)]
#head(baseMeansHmM)
topDEgenes <- which(tempA$Include=="in")####find indexes 
#scale Var35 and Var14 separately
var14mn<-baseMeansHm[,c(4:6)]
var14mn<- t(as.matrix(var14mn))
var14mn <- t(scale(var14mn))
#head(var14mn)
baseMeansHm2<-baseMeansHm[,c(1:3)]
baseMeansHm2<- t(as.matrix(baseMeansHm2))
baseMeansHm2 <- t(scale(baseMeansHm2))
baseMeansHm2 <- as.data.frame(cbind(baseMeansHm2, var14mn))
baseMeansHm2[is.na(baseMeansHm2)] <- 0
#head(baseMeansHm2)
baseMeansHm2$Var37TNF_0h_lfc<-baseMeansHm2$Var37TNF_0h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_6h_lfc<-baseMeansHm2$Var37TNF_6h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_20h_lfc<-baseMeansHm2$Var37TNF_20h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var14TNF_0h_lfc<-baseMeansHm2$Var14TNF_0h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_6h_lfc<-baseMeansHm2$Var14TNF_6h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_20h_lfc<-baseMeansHm2$Var14TNF_20h-baseMeansHm2$Var14TNF_0h
#baseMeansHm1<-baseMeansHm2[,c(1:6)]
baseMeansHm3<-baseMeansHm2[,c(7:12)]
head(baseMeansHm3)
baseMeansHm2<-baseMeansHm2[,c(1:6)]
head(baseMeansHm2)
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
tail(dataHMm2)
                   Var37TNF_0h Var37TNF_6h Var37TNF_20h Var14TNF_0h Var14TNF_6h Var14TNF_20h
ENSG00000120805.13  -0.5782822  -0.5764178     1.154700  -1.0855261   0.2018455    0.8836806
ENSG00000184307.14   0.5771031   0.5775974    -1.154701   0.1224345   0.9331455   -1.0555800
ENSG00000109920.12  -0.5767641  -0.5779363     1.154700  -1.0632535   0.1416024    0.9216511
ENSG00000088280.18  -0.5815036  -0.5731870     1.154691   0.8191921  -1.1143607    0.2951686
ENSG00000007171.16   0.0000000   0.0000000     0.000000  -0.5773503  -0.5773503    1.1547005
ENSG00000132185.16   0.0000000   0.0000000     0.000000  -0.5773503   1.1547005   -0.5773503

2. Hierachical clustering of means (individual samples added for inspection)

####mean
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
dataHMm2_37<-dataHMm2[,c(1,2,3)]
dataHMm2_14<-dataHMm2[,c(4,5,6)]
hmap_hier_factors37 <- Heatmap(
  dataHMm2_37,  name = "mean37",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors37b <- Heatmap(
  dataHMm2_37,  name = "mean37b",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors14 <- Heatmap(
  dataHMm2_14,  name = "mean14",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors14b <- Heatmap(
  dataHMm2_14,  name = "mean14b",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
#write.table(dataHMm2,"dataHMm2.txt",  sep = "\t")
hmap_hier_factors4 <- Heatmap(
  dataHMm2,  name = "mean1",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
dataHMm2b<-dataHMm2[,c(1,4,2,5,3,6)]
hmap_hier_factors4a <- Heatmap(
  dataHMm2b,  name = "mean2",
  row_labels = paste0(rownames(dataHMm2b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Rearranged"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors4b <- Heatmap(
  dataHMm2,  name = "mean3",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Clustered"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
dataHMm3<-as.matrix(baseMeansHm3[ topDEgenes, ])
write.table(dataHMm3,"dataHMm3.txt",  sep = "\t")
#baseMeansHm2<-as.matrix(baseMeansHm2)
  
hmap_hier_factors6 <- Heatmap(
  dataHMm3,  name = "logfc1",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)
dataHMm3b<-dataHMm3[,c(1,4,2,5,3,6)]
hmap_hier_factors6b <- Heatmap(
  dataHMm3b,  name = "logfc2",
  row_labels = paste0(rownames(dataHMm3b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h Rearranged"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)
hmap_hier_factors6c <- Heatmap(
  dataHMm3,  name = "logfc3",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  show_row_names = FALSE)
hmlist1=hmap_hier_factors37+hmap_hier_factors14+hmap_hier_factors37b+hmap_hier_factors14b
draw(hmlist1, column_title = "Heatmaps on Means (scaled per strain). Genelists combined from VAR37 and VAR14 timecourses padj<0.05", column_title_gp = gpar(fontsize = 22))

hmlist2=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b
draw(hmlist2, column_title = "Heatmaps on Means (scaled per strain)", column_title_gp = gpar(fontsize = 22))

hmlist3=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b+hmap_hier_factors6+hmap_hier_factors6b+hmap_hier_factors6c
draw(hmlist3, column_title = "Heatmaps on Means (scaled per strain) and logfc Means vs Strain 0h", column_title_gp = gpar(fontsize = 22))

par(mfrow=c(1,2))
#### Silhouette method
fviz_nbclust(dataHMm3, kmeans, method = "silhouette",k.max = 16)+
  labs(subtitle = "Silhouette method")

#### Elbow method
fviz_nbclust(dataHMm3, kmeans, method = "wss",k.max = 16) +
  labs(subtitle = "Elbow method")

####gap stat slow!!!
####set.seed(123)
####fviz_nbclust(dataHMm, kmeans, nstart = 25,  method = "gap_stat", nboot = 100,k.max = 16)+
####  labs(subtitle = "Gap statistic method")
#kclust7 <- kmeans(dataHMm3, 4)
#silhouette plot
distK<-daisy(dataHMm3)
plot(silhouette(kclust7$cluster, distK), col=1:4, border=NA)

3. K-means clustering of means

split <- paste0("Cluster\n", kclust7$cluster)
#split <- factor(paste0("Cluster\n", kclust3$cluster), levels=c("Cluster\n3","Cluster\n1","Cluster\n4","Cluster\n5","Cluster\n2","Cluster\n6"))
hmap_k <- Heatmap(dataHMm3, split=split, cluster_row_slices = FALSE,
                  cluster_columns = FALSE,
                  show_row_names = FALSE,
                  name = "Means (scaled per strain",
                  col = col_funGR2,
                  width = unit(50, "mm"),
                  column_title = "Means", 
                  column_title_gp = gpar(fontsize = 16, fontface = "bold"))
hmap_k#+hmap_hier_factors6+hmap_hier_factors5

Mean profiles of clusters

clustercount<-data.frame(kclust7$cluster)
clustersizes<-table(clustercount$kclust7.cluster)
clusterMeans<-data.frame(kclust7$centers)
clusterMeans1<-data.frame(t(clusterMeans))
clusterMeans1 <- cbind(rownames(clusterMeans1), clusterMeans1)
orderN<-c("Var37TNF_0h_lfc","Var37TNF_6h_lfc","Var37TNF_20h_lfc","Var14TNF_0h_lfc","Var14TNF_6h_lfc","Var14TNF_20h_lfc")#### manual
rownames(clusterMeans1) <- NULL
names(clusterMeans1)[names(clusterMeans1)=="rownames(clusterMeans1)"] <- "Sample"
####clusterMeans1
Strain<-factor(c(rep("VAR37",3),rep("VAR14",3)))####note names
#p1=ggplot(data=dataHmt, aes(x=row.names(dataHmt), y=ENSG00000162551.14),group=Run) + ggtitle("ALPL") +geom_point() +  scale_x_discrete(limits=limitsPlot)+  ylab(ylabPlot)+xlab(xlabPlot)+geom_line(aes(group = Run)) 
pX1<-ggplot(data=clusterMeans1, aes(x=Sample, y=X1,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X1 Profile ",clustersizes[1]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX2<-ggplot(data=clusterMeans1, aes(x=Sample, y=X2,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X2 Profile ",clustersizes[2]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX3<-ggplot(data=clusterMeans1, aes(x=Sample, y=X3,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X3 Profile ",clustersizes[3]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX4<-ggplot(data=clusterMeans1, aes(x=Sample, y=X4,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X4 Profile ",clustersizes[4]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX5<-ggplot(data=clusterMeans1, aes(x=Sample, y=X5,group=1)) +
#  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X5 Profile ",clustersizes[5]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX8<-ggplot(data=clusterMeans1, aes(x=Sample, y=X8,group=1)) +
#  geom_line()+  geom_point()+ggtitle(paste("Cluster X8 Profile ",clustersizes[6]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.title.y = element_blank())
#plot
multiplot(pX1,pX2,pX3,pX4,     cols=2)

topDEgenes <- which(tempA$Include=="in")####find indexes
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
#### export the gene expression data for the clusters
write.table(clusterMeans,paste0("ClusterMeansKm_",groupsName,".txt"),  sep = "\t")
ClusteredGenes<-data.frame(kclust7$cluster,SymbolsKm,dataHMm3)
write.table(ClusteredGenes,paste0("ScaledDataInClustersKm_",groupsName,".txt"),  sep = "\t")
#head(ClusteredGenes)
bottomDEgenes<-which(tempA$Include=="out")####find indexes 
bottomG<-tempA[ bottomDEgenes, ]
bottomG<-dplyr::pull(bottomG, Gene_Symbol)
write.table(bottomG,paste0("ipaBottomKmeans_",groupsName,".txt"),  sep = "\t")
                         
topDEgenes <- which(tempA$Include=="in")####find indexes 
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
ipaKmeans<-ClusteredGenes
#countsTable <-countsTable[,c(1:15)]####if samples need removing
ipaKmeans<-ipaKmeans[,c(1:2)]
ipaKmeans$name2<-rownames(ipaKmeans)
#ipaKmeans%>% rownames_to_column(var = "rowname")
#ipaKmeans
#rowid_to_column(ipaKmeans)
ipaKmeans = mutate(ipaKmeans, x1= ifelse(ipaKmeans$kclust7.cluster==1, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x2= ifelse(ipaKmeans$kclust7.cluster==2, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x3= ifelse(ipaKmeans$kclust7.cluster==3, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x4= ifelse(ipaKmeans$kclust7.cluster==4, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x5= ifelse(ipaKmeans$kclust3.cluster==5, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x6= ifelse(ipaKmeans$kclust3.cluster==6, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x7= ifelse(ipaKmeans$kclust3.cluster==7, "1", "0"))
#ipaKmeans
write.table(ipaKmeans,paste0("ipaKmeans_",groupsName,".txt"),  sep = "\t")
#head(ipaKmeans)
ClusteredGenes2<-ClusteredGenes[c(1)]
#ClusteredGenes2
listAll<-list()
for(i in 1:4) {
  clusterName<-paste0("x",i)
  #clusterName<-row.names(subset(ClusteredGenes,ClusteredGenes==i))
  clusterName<-(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==i))
  listAll[[i]]<-clusterName
}
#need to name the vectors in the list, example here is for 8 clusters
names(listAll)<-c("X1", "X2", "X3", "X4")#,"X5", "X6", "X7")
#if you want to rearrange the order
#listAll<-listAll[c("x3", "x7", "x8", "x2", "x6", "x5", "x4", "x1")]
lapply(listAll, head)
$X1
[1] "SOD2"    "RIPK2"   "CCL20"   "SLC12A2" "SELE"    "NFKB1"  

$X2
[1] "CYP1A1" "PLXNA4" "NPTX1"  "EMCN"   "PALMD"  "CTGF"  

$X3
[1] "CSF2"    "SLC41A1" "GPRC5B"  "CXCL3"   "SDC4"    "PLAU"   

$X4
[1] "FRY"     "ELMOD1"  "SLC1A1"  "SLC7A8"  "GALNT15" "MS4A6A" 
(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1))

Erichr

setEnrichrSite("Enrichr") # Human genes
Connection changed to https://maayanlab.cloud/Enrichr/
Connection is Live!
websiteLive <- TRUE
dbs <- listEnrichrDbs()
if (is.null(dbs)) websiteLive <- FALSE
if (websiteLive) head(dbs)

4. Annotation of K-means clusters

  • CC cellular compartment
  • BP biological process
  • MF molecular function

The simplify function has been used to cut down on GO redundancy

#str(AllGeneNames)
####CC
cgoCC <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      ####OrgDb=org.Mm.eg.db,
                      keyType="SYMBOL",
                      ont = "CC", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoCC2 <- simplify(cgoCC, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoCC2),paste0("GO_CC_",groupsName,".csv"))
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

Plots and GO data were written to files

png(paste0("GO_CC_",groupsName,".png"), width = 1224, height = 824)
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 

GO BP

####CC
cgoBP <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db,
                      keyType="SYMBOL",
                      ont = "BP", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoBP2 <- simplify(cgoBP, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoBP2),paste0("GO_BP_",groupsName,".csv"))
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

png(paste0("GO_BP_",groupsName,".png"), width = 1024, height = 1224)
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 

GO MF

####MF
cgoMF <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      keyType="SYMBOL",
                      ont = "MF", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoMF2 <- simplify(cgoMF, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoMF2),paste0("GO_MF_",groupsName,".csv"))
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

#dbs <- c("GO_Molecular_Function_2018", "GO_Cellular_Component_2018", "GO_Biological_Process_2018")
dbs <- c("Reactome_2016","WikiPathways_2019_Mouse")
if (websiteLive) {    enriched1 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1)), dbs)}
if (websiteLive) plotEnrich(enriched1[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 1")

if (websiteLive) {    enriched2 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==2)), dbs)}
if (websiteLive) plotEnrich(enriched2[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 2")

if (websiteLive) {    enriched3 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==3)), dbs)}
if (websiteLive) plotEnrich(enriched3[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 3")

if (websiteLive) {    enriched4 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==4)), dbs)}
if (websiteLive) plotEnrich(enriched4[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 4")

if (websiteLive) plotEnrich(enriched1[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 1")

if (websiteLive) plotEnrich(enriched2[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 2")

if (websiteLive) plotEnrich(enriched3[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 3")

if (websiteLive) plotEnrich(enriched4[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 4")

png(paste0("GO_MF_",groupsName,".png"), width = 1424, height = 824)
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 

R1 & R4 VAR37 VAR14 TNF k-means p0.05 lfc 1

Design

Design

1. Genelist Selection

groupsName<-"R1_R4_kmeans_p0.05lfc1"
countsTable<-read.delim("RNAseq2019July_5.txt", header = TRUE, sep = "\t",check.names=FALSE,row.names=1)
head(countsTable)
AllGeneNames<-countsTable$Gene_Symbol
#head(AllGeneNames)
tempA<-countsTable
#tempA<-resAll[-c(10:30) ]
tempA<-countsTable
#rownames(tempA)
rownames(tempA) <- NULL
tempA = mutate(tempA, Include=
                   ifelse(tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h), "in",
                          ifelse(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h), "in",
                                 ifelse(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h), "in",
                                        ifelse(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h), "in",
                                               ifelse(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_20h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h),"in",
                                                      ifelse(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h),"in",
                                                 "out")))))))
#tempA
####library(dplyr)
tempA %>%
     group_by(Include) %>% 
     tally()
topDEgenes <- which(tempA$Include=="in")####find indexes 
head(countsTable)
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)

NB Please check columns used and renamed for plots

#baseMeansHm <-countsTable[,c(60:63)]
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)
tail(baseMeansHm[ topDEgenes, ])
baseMeansHm$Var37TNF_0h<-baseMeansHm$Var37TNF_0h_mean
baseMeansHm$Var37TNF_6h<-baseMeansHm$Var37TNF_6h_mean
baseMeansHm$Var37TNF_20h<-baseMeansHm$Var37TNF_20h_mean
baseMeansHm$Var14TNF_0h<-baseMeansHm$Var14TNF_0h_mean
baseMeansHm$Var14TNF_6h<-baseMeansHm$Var14TNF_6h_mean
baseMeansHm$Var14TNF_20h<-baseMeansHm$Var14TNF_20h_mean
baseMeansHm <-baseMeansHm[,c(7:12)]
#replace low values with 0
baseMeansHm$Var37TNF_0h[baseMeansHm$Var37TNF_0h<10]<-0
baseMeansHm$Var37TNF_6h[baseMeansHm$Var37TNF_6h<10]<-0
baseMeansHm$Var37TNF_20h[baseMeansHm$Var37TNF_20h<10]<-0
baseMeansHm$Var14TNF_0h[baseMeansHm$Var14TNF_0h<10]<-0
baseMeansHm$Var14TNF_6h[baseMeansHm$Var14TNF_6h<10]<-0
baseMeansHm$Var14TNF_20h[baseMeansHm$Var14TNF_20h<10]<-0
tail(baseMeansHm)
baseMeansHm <- log2(baseMeansHm+1)
tail(baseMeansHm)
#baseMeansHmM <-baseMeansHm2[,c(1:8)]
#head(baseMeansHmM)
topDEgenes <- which(tempA$Include=="in")####find indexes 
#scale Var35 and Var14 separately
var14mn<-baseMeansHm[,c(4:6)]
var14mn<- t(as.matrix(var14mn))
var14mn <- t(scale(var14mn))
#head(var14mn)
baseMeansHm2<-baseMeansHm[,c(1:3)]
baseMeansHm2<- t(as.matrix(baseMeansHm2))
baseMeansHm2 <- t(scale(baseMeansHm2))
baseMeansHm2 <- as.data.frame(cbind(baseMeansHm2, var14mn))
baseMeansHm2[is.na(baseMeansHm2)] <- 0
#head(baseMeansHm2)
baseMeansHm2$Var37TNF_0h_lfc<-baseMeansHm2$Var37TNF_0h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_6h_lfc<-baseMeansHm2$Var37TNF_6h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_20h_lfc<-baseMeansHm2$Var37TNF_20h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var14TNF_0h_lfc<-baseMeansHm2$Var14TNF_0h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_6h_lfc<-baseMeansHm2$Var14TNF_6h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_20h_lfc<-baseMeansHm2$Var14TNF_20h-baseMeansHm2$Var14TNF_0h
#baseMeansHm1<-baseMeansHm2[,c(1:6)]
baseMeansHm3<-baseMeansHm2[,c(7:12)]
head(baseMeansHm3)
baseMeansHm2<-baseMeansHm2[,c(1:6)]
head(baseMeansHm2)
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
tail(dataHMm2)

2. Hierachical clustering of means (individual samples added for inspection)

####mean
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
dataHMm2_37<-dataHMm2[,c(1,2,3)]
dataHMm2_14<-dataHMm2[,c(4,5,6)]
hmap_hier_factors37 <- Heatmap(
  dataHMm2_37,  name = "mean37",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors37b <- Heatmap(
  dataHMm2_37,  name = "mean37b",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors14 <- Heatmap(
  dataHMm2_14,  name = "mean14",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors14b <- Heatmap(
  dataHMm2_14,  name = "mean14b",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
#write.table(dataHMm2,"dataHMm2.txt",  sep = "\t")
hmap_hier_factors4 <- Heatmap(
  dataHMm2,  name = "mean1",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
dataHMm2b<-dataHMm2[,c(1,4,2,5,3,6)]
hmap_hier_factors4a <- Heatmap(
  dataHMm2b,  name = "mean2",
  row_labels = paste0(rownames(dataHMm2b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Rearranged"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
hmap_hier_factors4b <- Heatmap(
  dataHMm2,  name = "mean3",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Clustered"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)
dataHMm3<-as.matrix(baseMeansHm3[ topDEgenes, ])
write.table(dataHMm3,"dataHMm3.txt",  sep = "\t")
#baseMeansHm2<-as.matrix(baseMeansHm2)
  
hmap_hier_factors6 <- Heatmap(
  dataHMm3,  name = "logfc1",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)
dataHMm3b<-dataHMm3[,c(1,4,2,5,3,6)]
hmap_hier_factors6b <- Heatmap(
  dataHMm3b,  name = "logfc2",
  row_labels = paste0(rownames(dataHMm3b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h Rearranged"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)
hmap_hier_factors6c <- Heatmap(
  dataHMm3,  name = "logfc3",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  show_row_names = FALSE)
hmlist1=hmap_hier_factors37+hmap_hier_factors14+hmap_hier_factors37b+hmap_hier_factors14b
draw(hmlist1, column_title = "Heatmaps on Means (scaled per strain). Genelists combined from VAR37 and VAR14 timecourses p<0.05 lfc1", column_title_gp = gpar(fontsize = 22))

hmlist2=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b
draw(hmlist2, column_title = "Heatmaps on Means (scaled per strain)", column_title_gp = gpar(fontsize = 22))

hmlist3=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b+hmap_hier_factors6+hmap_hier_factors6b+hmap_hier_factors6c
draw(hmlist3, column_title = "Heatmaps on Means (scaled per strain) and logfc Means vs Strain 0h", column_title_gp = gpar(fontsize = 22))

par(mfrow=c(1,2))
#### Silhouette method
fviz_nbclust(dataHMm3, kmeans, method = "silhouette",k.max = 16)+
  labs(subtitle = "Silhouette method")

#### Elbow method
fviz_nbclust(dataHMm3, kmeans, method = "wss",k.max = 16) +
  labs(subtitle = "Elbow method")

####gap stat slow!!!
####set.seed(123)
####fviz_nbclust(dataHMm, kmeans, nstart = 25,  method = "gap_stat", nboot = 100,k.max = 16)+
####  labs(subtitle = "Gap statistic method")
#kclust8 <- kmeans(dataHMm3, 4)
#silhouette plot
distK<-daisy(dataHMm3)
plot(silhouette(kclust8$cluster, distK), col=1:4, border=NA)

3. K-means clustering of means

split <- paste0("Cluster\n", kclust8$cluster)
#split <- factor(paste0("Cluster\n", kclust3$cluster), levels=c("Cluster\n3","Cluster\n1","Cluster\n4","Cluster\n5","Cluster\n2","Cluster\n6"))
hmap_k <- Heatmap(dataHMm3, split=split, cluster_row_slices = FALSE,
                  cluster_columns = FALSE,
                  show_row_names = FALSE,
                  name = "Means (scaled per strain",
                  col = col_funGR2,
                  width = unit(50, "mm"),
                  column_title = "Means", 
                  column_title_gp = gpar(fontsize = 16, fontface = "bold"))
hmap_k#+hmap_hier_factors6+hmap_hier_factors5

Mean profiles of clusters

clustercount<-data.frame(kclust8$cluster)
clustersizes<-table(clustercount$kclust8.cluster)
clusterMeans<-data.frame(kclust8$centers)
clusterMeans1<-data.frame(t(clusterMeans))
clusterMeans1 <- cbind(rownames(clusterMeans1), clusterMeans1)
orderN<-c("Var37TNF_0h_lfc","Var37TNF_6h_lfc","Var37TNF_20h_lfc","Var14TNF_0h_lfc","Var14TNF_6h_lfc","Var14TNF_20h_lfc")#### manual
rownames(clusterMeans1) <- NULL
names(clusterMeans1)[names(clusterMeans1)=="rownames(clusterMeans1)"] <- "Sample"
####clusterMeans1
Strain<-factor(c(rep("VAR37",3),rep("VAR14",3)))####note names
#p1=ggplot(data=dataHmt, aes(x=row.names(dataHmt), y=ENSG00000162551.14),group=Run) + ggtitle("ALPL") +geom_point() +  scale_x_discrete(limits=limitsPlot)+  ylab(ylabPlot)+xlab(xlabPlot)+geom_line(aes(group = Run)) 
pX1<-ggplot(data=clusterMeans1, aes(x=Sample, y=X1,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X1 Profile ",clustersizes[1]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX2<-ggplot(data=clusterMeans1, aes(x=Sample, y=X2,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X2 Profile ",clustersizes[2]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX3<-ggplot(data=clusterMeans1, aes(x=Sample, y=X3,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X3 Profile ",clustersizes[3]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX4<-ggplot(data=clusterMeans1, aes(x=Sample, y=X4,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X4 Profile ",clustersizes[4]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX5<-ggplot(data=clusterMeans1, aes(x=Sample, y=X5,group=1)) +
#  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X5 Profile ",clustersizes[5]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX8<-ggplot(data=clusterMeans1, aes(x=Sample, y=X8,group=1)) +
#  geom_line()+  geom_point()+ggtitle(paste("Cluster X8 Profile ",clustersizes[6]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.title.y = element_blank())
#plot
multiplot(pX1,pX2,pX4,pX3,     cols=2)

topDEgenes <- which(tempA$Include=="in")####find indexes
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
#### export the gene expression data for the clusters
write.table(clusterMeans,paste0("ClusterMeansKm_",groupsName,".txt"),  sep = "\t")
ClusteredGenes<-data.frame(kclust8$cluster,SymbolsKm,dataHMm3)
write.table(ClusteredGenes,paste0("ScaledDataInClustersKm_",groupsName,".txt"),  sep = "\t")
#head(ClusteredGenes)
bottomDEgenes<-which(tempA$Include=="out")####find indexes 
bottomG<-tempA[ bottomDEgenes, ]
bottomG<-dplyr::pull(bottomG, Gene_Symbol)
write.table(bottomG,paste0("ipaBottomKmeans_",groupsName,".txt"),  sep = "\t")
                         
topDEgenes <- which(tempA$Include=="in")####find indexes 
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
ipaKmeans<-ClusteredGenes
#countsTable <-countsTable[,c(1:15)]####if samples need removing
ipaKmeans<-ipaKmeans[,c(1:2)]
ipaKmeans$name2<-rownames(ipaKmeans)
#ipaKmeans%>% rownames_to_column(var = "rowname")
#ipaKmeans
#rowid_to_column(ipaKmeans)
ipaKmeans = mutate(ipaKmeans, x1= ifelse(ipaKmeans$kclust8.cluster==1, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x2= ifelse(ipaKmeans$kclust8.cluster==2, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x3= ifelse(ipaKmeans$kclust8.cluster==3, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x4= ifelse(ipaKmeans$kclust8.cluster==4, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x5= ifelse(ipaKmeans$kclust3.cluster==5, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x6= ifelse(ipaKmeans$kclust3.cluster==6, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x7= ifelse(ipaKmeans$kclust3.cluster==7, "1", "0"))
#ipaKmeans
write.table(ipaKmeans,paste0("ipaKmeans_",groupsName,".txt"),  sep = "\t")
#head(ipaKmeans)
ClusteredGenes2<-ClusteredGenes[c(1)]
#ClusteredGenes2
listAll<-list()
for(i in 1:4) {
  clusterName<-paste0("x",i)
  #clusterName<-row.names(subset(ClusteredGenes,ClusteredGenes==i))
  clusterName<-(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==i))
  listAll[[i]]<-clusterName
}
#need to name the vectors in the list, example here is for 8 clusters
names(listAll)<-c("X1", "X2", "X3", "X4")#,"X5", "X6", "X7")
#if you want to rearrange the order
#listAll<-listAll[c("x3", "x7", "x8", "x2", "x6", "x5", "x4", "x1")]
#lapply(listAll, head)

4. Annotation of K-means clusters

  • CC cellular compartment
  • BP biological process
  • MF molecular function

The simplify function has been used to cut down on GO redundancy

#str(AllGeneNames)
xread
Error: object 'xread' not found
####CC
cgoCC <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      ####OrgDb=org.Mm.eg.db,
                      keyType="SYMBOL",
                      ont = "CC", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoCC2 <- simplify(cgoCC, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoCC2),paste0("GO_CC_",groupsName,".csv"))
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

Plots and GO data were written to files

png(paste0("GO_CC_",groupsName,".png"), width = 1224, height = 824)
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 

GO BP

####CC
cgoBP <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db,
                      keyType="SYMBOL",
                      ont = "BP", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoBP2 <- simplify(cgoBP, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoBP2),paste0("GO_BP_",groupsName,".csv"))
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

png(paste0("GO_BP_",groupsName,".png"), width = 1024, height = 1224)
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 

GO MF

####MF
cgoMF <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      keyType="SYMBOL",
                      ont = "MF", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoMF2 <- simplify(cgoMF, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoMF2),paste0("GO_MF_",groupsName,".csv"))
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

png(paste0("GO_MF_",groupsName,".png"), width = 1424, height = 824)
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
null device 
          1 
#dbs <- c("GO_Molecular_Function_2018", "GO_Cellular_Component_2018", "GO_Biological_Process_2018")
dbs <- c("Reactome_2016","WikiPathways_2019_Mouse")
if (websiteLive) {    enriched1 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1)), dbs)}
if (websiteLive) plotEnrich(enriched1[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 1")

if (websiteLive) {    enriched2 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==2)), dbs)}
if (websiteLive) plotEnrich(enriched2[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 2")

if (websiteLive) {    enriched3 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==3)), dbs)}
if (websiteLive) plotEnrich(enriched3[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 3")

if (websiteLive) {    enriched4 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==4)), dbs)}
if (websiteLive) plotEnrich(enriched4[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 4")

if (websiteLive) plotEnrich(enriched1[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 1")

if (websiteLive) plotEnrich(enriched2[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 2")

if (websiteLive) plotEnrich(enriched3[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 3")

if (websiteLive) plotEnrich(enriched4[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 4")

save: once happy with clustering save workspace so that it can be recalled

save.image(file="KmFeb2021.RData")

Add a new chunk by clicking the Insert Chunk button on the toolbar or by pressing Ctrl+Alt+I.

When you save the notebook, an HTML file containing the code and output will be saved alongside it (click the Preview button or press Ctrl+Shift+K to preview the HTML file).

The preview shows you a rendered HTML copy of the contents of the editor. Consequently, unlike Knit, Preview does not run any R code chunks. Instead, the output of the chunk when it was last run in the editor is displayed.

---
title: "KCouper/Liverpool K-means RNAseq Analysis November 2020"
author: Leo Zeef
theme: united
output: 
 html_notebook:
 toc: true
 toc_depth: 2
 toc_float: true
 collapsed: false
 smooth_scroll: false
 code_folding: "hide"
---
## Analysis Sections {.tabset .tabset-pills}
Viewing is better if Code is hidden (Top Right drop down list)


```{r}
sink(file="RsessionInfoDESeq2.txt")
library('DESeq2')
library("ggplot2")
library(reshape2)
####library(tidyverse)
####library(splitstackshape)
####library(data.table)
library("RColorBrewer")
library("gplots")
####library('ggdendro')
library('ggrepel')
library("dplyr")
library("ComplexHeatmap")
library("clusterProfiler")
library(VennDiagram) ######
library(UpSetR)
library(gridExtra)
library(cluster)
library(circlize)
library(factoextra)
library(NbClust)
library("biomaRt")
library("org.Hs.eg.db")####human
library("org.Mm.eg.db")####mouse
library(venn)
library(enrichR)
#library(ReactomePA)
####library(org.At.tair.db)####arabidopsis
sessionInfo()
sink()

#########################################
####multiplot
#########################################
#### Multiple plot function
####
#### ggplot objects can be passed in ..., or to plotlist (as a list of ggplot objects)
#### - cols:   Number of columns in layout
#### - layout: A matrix specifying the layout. If present, 'cols' is ignored.

#### If the layout is something like matrix(c(1,2,3,3), nrow=2, byrow=TRUE),
#### then plot 1 will go in the upper left, 2 will go in the upper right, and
#### 3 will go all the way across the bottom.

multiplot <- function(..., plotlist=NULL, file, cols=1, layout=NULL) {
  library(grid)
  
  #### Make a list from the ... arguments and plotlist
  plots <- c(list(...), plotlist)
  
  numPlots = length(plots)
  
  #### If layout is NULL, then use 'cols' to determine layout
  if (is.null(layout)) {
    #### Make the panel
    #### ncol: Number of columns of plots
    #### nrow: Number of rows needed, calculated from #### of cols
    layout <- matrix(seq(1, cols * ceiling(numPlots/cols)),
                     ncol = cols, nrow = ceiling(numPlots/cols))
  }
  
  if (numPlots==1) {
    print(plots[[1]])
    
  } else {
    #### Set up the page
    grid.newpage()
    pushViewport(viewport(layout = grid.layout(nrow(layout), ncol(layout))))
    
    #### Make each plot, in the correct location
    for (i in 1:numPlots) {
      #### Get the i,j matrix positions of the regions that contain this subplot
      matchidx <- as.data.frame(which(layout == i, arr.ind = TRUE))
      
      print(plots[[i]], vp = viewport(layout.pos.row = matchidx$row,
                                      layout.pos.col = matchidx$col))
    }
  }
}
####function my code edit of plotPCA
####################################
plotPCALeo<-function (x, intgroup = "Treatment", ntop = 500, returnData = FALSE, PCx=1, PCy=2)
{
  ####rv <- rowVars(assay(x))
  rv = apply((assay(x)), 1, var)
  select <- order(rv, decreasing = TRUE)[seq_len(min(ntop, 
                                                     length(rv)))]
  pca <- prcomp(t(assay(x)[select, ]))
  percentVar <- pca$sdev^2/sum(pca$sdev^2)
  if (!all(intgroup %in% names(colData(x)))) {
    stop("the argument 'intgroup' should specify columns of colData(dds)")
  }
  intgroup.df <- as.data.frame(colData(x)[, intgroup, drop = FALSE])
  group <- factor(apply(intgroup.df, 1, paste, collapse = " : "))
  d <- data.frame(PCX = pca$x[, PCx], PCY = pca$x[, PCy], group = group, 
                  intgroup.df, names = colnames(x))
  if (returnData) {
    attr(d, "percentVar") <- percentVar[PCx:PCy]
    return(d)
  }
  ggplot(data = d, aes_string(x = "PCX", y = "PCY", color = "group")) + 
    ####ggplot(data = d, aes_string(x = "PCX", y = "PCY", color=Tgfb1, shape=Treatment)) + 
    geom_point(size = 3) + xlab(paste0("PC",PCx,": ", round(percentVar[1] * 
                                                              100), "% variance")) + ylab(paste0("PC",PCy,": ", round(percentVar[2] * 
                                                                                                                        100), "% variance"))
}
```


```{r}
col_fun = colorRamp2(c(-1,-0.2, 0,0.2, 1), c("blue","cyan", "grey90","orange", "red"))#heatmap colours
col_funGR = colorRamp2(c(-1.5, 0, 1.5), c("green", "black", "red"))
col_funGR2 = colorRamp2(c(-2, 0, 2), c("green", "black", "red"))
colorsV3 <- c("cornflowerblue",  "brown1","orange2")#Venn colours
colorsV2 <- c("mediumorchid1",  "chartreuse3")#Venn colours
colorsV4<-c("cornflowerblue", "orange2", "green3","red")#Venn colours
colorsV5<-c("cornflowerblue", "orange2", "green3","purple","red")#Venn colours
#col_fun(seq(-3, 3))
```



### DE Gene Selection

####1. Genelist Selection

```{r}
groupsName<-"R1_R4_kmeans_q0.05"
```


```{r}
countsTable<-read.delim("RNAseq2019July_5.txt", header = TRUE, sep = "\t",check.names=FALSE,row.names=1)
head(countsTable)
```

```{r}
AllGeneNames<-countsTable$Gene_Symbol
#head(AllGeneNames)
```

```{r}
tempA<-countsTable
```

```{r}


topDEgenes <- which(tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_20h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennq<-venn.diagram(x = list(listA,listB,listC),#,listD) ,
            category.names = c("Var37_6hv0h","Var37_20hv0h","Var37_20hv6h"),
            main="padj<0.05",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)

topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennp<-venn.diagram(x = list(listA,listB,listC) ,
            category.names = c("Var37_6hv0h","Var37_20hv0h","Var37_20hv6h"),
            main="pvalue<0.05&fold change>2",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)

topDEgenes <- which(tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennq2<-venn.diagram(x = list(listA,listB,listC),#,listD) ,
            category.names = c("Var14_6hv0h","Var14_20hv0h","Var14_20hv6h"),
            main="padj<0.05",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)

topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h))####find indexes 
listA<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h))####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol
topDEgenes <- which(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h))####find indexes 
listC<-tempA[ topDEgenes, ]$Gene_Symbol
vennp2<-venn.diagram(x = list(listA,listB,listC) ,
            category.names = c("Var14_6hv0h","Var14_20hv0h","Var14_20hv6h"),
            main="pvalue<0.05&fold change>2",
            filename = NULL,  scaled = FALSE, fill = colorsV3, cat.col = colorsV3, cat.cex = 1, cat.dist=0.1,  margin = 0.3)


```

```{r}

topDEgenes <- which((tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h))| 
(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h))|
(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h))
)
listA<-tempA[ topDEgenes, ]$Gene_Symbol

topDEgenes <- which((tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h))| 
(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h))| 
(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h)) 
 )####find indexes 
listB<-tempA[ topDEgenes, ]$Gene_Symbol

topDEgenes <- which((tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h))| 
(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h))|
(tempA$padj_R4Var14TNF_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_6h))
)
listA2<-tempA[ topDEgenes, ]$Gene_Symbol

topDEgenes <- which((tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h))| 
(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h))| 
(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h))
 )####find indexes 
listB2<-tempA[ topDEgenes, ]$Gene_Symbol



vennpq<-venn.diagram(x = list(listA,listB,listA2,listB2) ,
            category.names = c("V37padj<0.05","V37p<0.05&fc>2","V14padj<0.05","V14p<0.05&fc>2"),
            main="padj compared to pvalue",
            filename = NULL,  scaled = FALSE, fill = colorsV4, cat.col = colorsV4, cat.cex = 1, cat.dist=0.3,  margin = 0.15)
```

```{r,fig.height = 10,fig.width = 20}
grid.arrange(gTree(children=vennq), gTree(children=vennp), ncol=2,top="R1 Var37 TNF")
```
```{r,fig.height = 10,fig.width = 20}
grid.arrange(gTree(children=vennq2), gTree(children=vennp2), ncol=2,top="R4 Var14 TNF")
```
```{r,fig.height = 10,fig.width = 10}
grid.arrange(gTree(children=vennpq), ncol=1,top="R4 Var14 TNF")
```

### R1 & R4 VAR37 VAR14 TNF k-means q0.05
![Design](design.png)


```{r}

#tempA<-resAll[-c(10:30) ]
tempA<-countsTable
#rownames(tempA)
rownames(tempA) <- NULL
tempA = mutate(tempA, Include=
                   ifelse(tempA$padj_R1_Var37_Hours_6h_vs_0h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_0h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_6h_vs_0h), "in",
                          ifelse(tempA$padj_R1_Var37_Hours_20h_vs_0h<0.05&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_0h), "in",
                                 ifelse(tempA$padj_R1_Var37_Hours_20h_vs_6h<0.05&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$padj_R1_Var37_Hours_20h_vs_6h), "in",
                                        ifelse(tempA$padj_R4Var14TNF_Hours_6h_vs_0h<0.05&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_6h_vs_0h), "in",
                                               ifelse(tempA$padj_R4Var14TNF_Hours_20h_vs_0h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_0h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_0h),"in",
                                                      ifelse(tempA$padj_R4Var14TNF_Hours_20h_vs_6h<0.05&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$padj_R4Var14TNF_Hours_20h_vs_6h),"in",
                                                 "out")))))))


#tempA
####library(dplyr)
tempA %>%
     group_by(Include) %>% 
     tally()
```

```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes 
```

```{r}
head(countsTable)
```

```{r}
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)
```

#### NB Please check columns used and renamed for plots
```{r}
#baseMeansHm <-countsTable[,c(60:63)]
baseMeansHm <-countsTable[,c(48:50,110,112,113)]

head(baseMeansHm)


tail(baseMeansHm[ topDEgenes, ])


baseMeansHm$Var37TNF_0h<-baseMeansHm$Var37TNF_0h_mean
baseMeansHm$Var37TNF_6h<-baseMeansHm$Var37TNF_6h_mean
baseMeansHm$Var37TNF_20h<-baseMeansHm$Var37TNF_20h_mean

baseMeansHm$Var14TNF_0h<-baseMeansHm$Var14TNF_0h_mean
baseMeansHm$Var14TNF_6h<-baseMeansHm$Var14TNF_6h_mean
baseMeansHm$Var14TNF_20h<-baseMeansHm$Var14TNF_20h_mean

baseMeansHm <-baseMeansHm[,c(7:12)]

#replace low values with 0
baseMeansHm$Var37TNF_0h[baseMeansHm$Var37TNF_0h<10]<-0
baseMeansHm$Var37TNF_6h[baseMeansHm$Var37TNF_6h<10]<-0
baseMeansHm$Var37TNF_20h[baseMeansHm$Var37TNF_20h<10]<-0
baseMeansHm$Var14TNF_0h[baseMeansHm$Var14TNF_0h<10]<-0
baseMeansHm$Var14TNF_6h[baseMeansHm$Var14TNF_6h<10]<-0
baseMeansHm$Var14TNF_20h[baseMeansHm$Var14TNF_20h<10]<-0
tail(baseMeansHm)
baseMeansHm <- log2(baseMeansHm+1)
tail(baseMeansHm)
#baseMeansHmM <-baseMeansHm2[,c(1:8)]
#head(baseMeansHmM)
```

```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes 
```

```{r}
#scale Var35 and Var14 separately
var14mn<-baseMeansHm[,c(4:6)]
var14mn<- t(as.matrix(var14mn))
var14mn <- t(scale(var14mn))
#head(var14mn)
baseMeansHm2<-baseMeansHm[,c(1:3)]
baseMeansHm2<- t(as.matrix(baseMeansHm2))
baseMeansHm2 <- t(scale(baseMeansHm2))
baseMeansHm2 <- as.data.frame(cbind(baseMeansHm2, var14mn))
baseMeansHm2[is.na(baseMeansHm2)] <- 0
#head(baseMeansHm2)

baseMeansHm2$Var37TNF_0h_lfc<-baseMeansHm2$Var37TNF_0h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_6h_lfc<-baseMeansHm2$Var37TNF_6h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_20h_lfc<-baseMeansHm2$Var37TNF_20h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var14TNF_0h_lfc<-baseMeansHm2$Var14TNF_0h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_6h_lfc<-baseMeansHm2$Var14TNF_6h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_20h_lfc<-baseMeansHm2$Var14TNF_20h-baseMeansHm2$Var14TNF_0h
#baseMeansHm1<-baseMeansHm2[,c(1:6)]
baseMeansHm3<-baseMeansHm2[,c(7:12)]
head(baseMeansHm3)
baseMeansHm2<-baseMeansHm2[,c(1:6)]
head(baseMeansHm2)

```

```{r}
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
tail(dataHMm2)
```


####2. Hierachical clustering of means (individual samples added for inspection)
```{r,fig.height = 12,fig.width = 20}
####mean

dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
dataHMm2_37<-dataHMm2[,c(1,2,3)]
dataHMm2_14<-dataHMm2[,c(4,5,6)]

hmap_hier_factors37 <- Heatmap(
  dataHMm2_37,  name = "mean37",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors37b <- Heatmap(
  dataHMm2_37,  name = "mean37b",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors14 <- Heatmap(
  dataHMm2_14,  name = "mean14",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors14b <- Heatmap(
  dataHMm2_14,  name = "mean14b",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

#write.table(dataHMm2,"dataHMm2.txt",  sep = "\t")

hmap_hier_factors4 <- Heatmap(
  dataHMm2,  name = "mean1",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

dataHMm2b<-dataHMm2[,c(1,4,2,5,3,6)]
hmap_hier_factors4a <- Heatmap(
  dataHMm2b,  name = "mean2",
  row_labels = paste0(rownames(dataHMm2b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Rearranged"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors4b <- Heatmap(
  dataHMm2,  name = "mean3",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Clustered"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

dataHMm3<-as.matrix(baseMeansHm3[ topDEgenes, ])
write.table(dataHMm3,"dataHMm3.txt",  sep = "\t")
#baseMeansHm2<-as.matrix(baseMeansHm2)
  
hmap_hier_factors6 <- Heatmap(
  dataHMm3,  name = "logfc1",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)

dataHMm3b<-dataHMm3[,c(1,4,2,5,3,6)]
hmap_hier_factors6b <- Heatmap(
  dataHMm3b,  name = "logfc2",
  row_labels = paste0(rownames(dataHMm3b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h Rearranged"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)

hmap_hier_factors6c <- Heatmap(
  dataHMm3,  name = "logfc3",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  show_row_names = FALSE)

hmlist1=hmap_hier_factors37+hmap_hier_factors14+hmap_hier_factors37b+hmap_hier_factors14b
draw(hmlist1, column_title = "Heatmaps on Means (scaled per strain). Genelists combined from VAR37 and VAR14 timecourses padj<0.05", column_title_gp = gpar(fontsize = 22))

hmlist2=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b
draw(hmlist2, column_title = "Heatmaps on Means (scaled per strain)", column_title_gp = gpar(fontsize = 22))

hmlist3=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b+hmap_hier_factors6+hmap_hier_factors6b+hmap_hier_factors6c
draw(hmlist3, column_title = "Heatmaps on Means (scaled per strain) and logfc Means vs Strain 0h", column_title_gp = gpar(fontsize = 22))
```







```{r,fig.height = 7,fig.width =12 }
par(mfrow=c(1,2))
#### Silhouette method
fviz_nbclust(dataHMm3, kmeans, method = "silhouette",k.max = 16)+
  labs(subtitle = "Silhouette method")

#### Elbow method
fviz_nbclust(dataHMm3, kmeans, method = "wss",k.max = 16) +
  labs(subtitle = "Elbow method")

```

```{r}
####gap stat slow!!!
####set.seed(123)
####fviz_nbclust(dataHMm, kmeans, nstart = 25,  method = "gap_stat", nboot = 100,k.max = 16)+
####  labs(subtitle = "Gap statistic method")
```


```{r,fig.height = 7}
#kclust7 <- kmeans(dataHMm3, 4)
#silhouette plot
distK<-daisy(dataHMm3)
plot(silhouette(kclust7$cluster, distK), col=1:4, border=NA)

```

####3. K-means clustering of means 
```{r,fig.height = 10,fig.width = 20}
split <- paste0("Cluster\n", kclust7$cluster)
#split <- factor(paste0("Cluster\n", kclust3$cluster), levels=c("Cluster\n3","Cluster\n1","Cluster\n4","Cluster\n5","Cluster\n2","Cluster\n6"))
hmap_k <- Heatmap(dataHMm3, split=split, cluster_row_slices = FALSE,
                  cluster_columns = FALSE,
                  show_row_names = FALSE,
                  name = "Means (scaled per strain",
                  col = col_funGR2,
                  width = unit(50, "mm"),
                  column_title = "Means", 
                  column_title_gp = gpar(fontsize = 16, fontface = "bold"))

hmap_k#+hmap_hier_factors6+hmap_hier_factors5
```

Mean profiles of clusters

```{r,fig.height = 9,fig.width = 8}
clustercount<-data.frame(kclust7$cluster)
clustersizes<-table(clustercount$kclust7.cluster)
clusterMeans<-data.frame(kclust7$centers)
clusterMeans1<-data.frame(t(clusterMeans))
clusterMeans1 <- cbind(rownames(clusterMeans1), clusterMeans1)
orderN<-c("Var37TNF_0h_lfc","Var37TNF_6h_lfc","Var37TNF_20h_lfc","Var14TNF_0h_lfc","Var14TNF_6h_lfc","Var14TNF_20h_lfc")#### manual

rownames(clusterMeans1) <- NULL
names(clusterMeans1)[names(clusterMeans1)=="rownames(clusterMeans1)"] <- "Sample"
####clusterMeans1
Strain<-factor(c(rep("VAR37",3),rep("VAR14",3)))####note names
#p1=ggplot(data=dataHmt, aes(x=row.names(dataHmt), y=ENSG00000162551.14),group=Run) + ggtitle("ALPL") +geom_point() +  scale_x_discrete(limits=limitsPlot)+  ylab(ylabPlot)+xlab(xlabPlot)+geom_line(aes(group = Run)) 


pX1<-ggplot(data=clusterMeans1, aes(x=Sample, y=X1,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X1 Profile ",clustersizes[1]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX2<-ggplot(data=clusterMeans1, aes(x=Sample, y=X2,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X2 Profile ",clustersizes[2]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX3<-ggplot(data=clusterMeans1, aes(x=Sample, y=X3,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X3 Profile ",clustersizes[3]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX4<-ggplot(data=clusterMeans1, aes(x=Sample, y=X4,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X4 Profile ",clustersizes[4]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX5<-ggplot(data=clusterMeans1, aes(x=Sample, y=X5,group=1)) +
#  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X5 Profile ",clustersizes[5]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX8<-ggplot(data=clusterMeans1, aes(x=Sample, y=X8,group=1)) +
#  geom_line()+  geom_point()+ggtitle(paste("Cluster X8 Profile ",clustersizes[6]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.title.y = element_blank())


#plot
multiplot(pX1,pX2,pX3,pX4,     cols=2)

```


```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
#### export the gene expression data for the clusters
write.table(clusterMeans,paste0("ClusterMeansKm_",groupsName,".txt"),  sep = "\t")
ClusteredGenes<-data.frame(kclust7$cluster,SymbolsKm,dataHMm3)
write.table(ClusteredGenes,paste0("ScaledDataInClustersKm_",groupsName,".txt"),  sep = "\t")
#head(ClusteredGenes)
```


```{r}
bottomDEgenes<-which(tempA$Include=="out")####find indexes 
bottomG<-tempA[ bottomDEgenes, ]
bottomG<-dplyr::pull(bottomG, Gene_Symbol)
write.table(bottomG,paste0("ipaBottomKmeans_",groupsName,".txt"),  sep = "\t")
                         

topDEgenes <- which(tempA$Include=="in")####find indexes 
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)

ipaKmeans<-ClusteredGenes
#countsTable <-countsTable[,c(1:15)]####if samples need removing
ipaKmeans<-ipaKmeans[,c(1:2)]
ipaKmeans$name2<-rownames(ipaKmeans)
#ipaKmeans%>% rownames_to_column(var = "rowname")
#ipaKmeans
#rowid_to_column(ipaKmeans)
ipaKmeans = mutate(ipaKmeans, x1= ifelse(ipaKmeans$kclust7.cluster==1, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x2= ifelse(ipaKmeans$kclust7.cluster==2, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x3= ifelse(ipaKmeans$kclust7.cluster==3, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x4= ifelse(ipaKmeans$kclust7.cluster==4, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x5= ifelse(ipaKmeans$kclust3.cluster==5, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x6= ifelse(ipaKmeans$kclust3.cluster==6, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x7= ifelse(ipaKmeans$kclust3.cluster==7, "1", "0"))
#ipaKmeans
write.table(ipaKmeans,paste0("ipaKmeans_",groupsName,".txt"),  sep = "\t")
#head(ipaKmeans)

```


```{r}
ClusteredGenes2<-ClusteredGenes[c(1)]
#ClusteredGenes2
listAll<-list()
for(i in 1:4) {
  clusterName<-paste0("x",i)
  #clusterName<-row.names(subset(ClusteredGenes,ClusteredGenes==i))
  clusterName<-(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==i))
  listAll[[i]]<-clusterName
}
#need to name the vectors in the list, example here is for 8 clusters
names(listAll)<-c("X1", "X2", "X3", "X4")#,"X5", "X6", "X7")

#if you want to rearrange the order
#listAll<-listAll[c("x3", "x7", "x8", "x2", "x6", "x5", "x4", "x1")]

lapply(listAll, head)

```

```{r}
(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1))
```


####Erichr
```{r}
setEnrichrSite("Enrichr") # Human genes
```
```{r}
websiteLive <- TRUE
dbs <- listEnrichrDbs()
if (is.null(dbs)) websiteLive <- FALSE
if (websiteLive) head(dbs)
```




####4. Annotation of K-means clusters
- CC cellular compartment
- BP biological process
- MF molecular function

The simplify function has been used to cut down on GO redundancy

```{r}
#str(AllGeneNames)
```


```{r,fig.height = 8,fig.width = 12}
####CC
cgoCC <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      ####OrgDb=org.Mm.eg.db,
                      keyType="SYMBOL",
                      ont = "CC", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoCC2 <- simplify(cgoCC, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoCC2),paste0("GO_CC_",groupsName,".csv"))

dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```
Plots and GO data were written to files
```{r}
png(paste0("GO_CC_",groupsName,".png"), width = 1224, height = 824)
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```

GO BP
```{r,fig.height = 12,fig.width = 12}
####CC
cgoBP <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db,
                      keyType="SYMBOL",
                      ont = "BP", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoBP2 <- simplify(cgoBP, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoBP2),paste0("GO_BP_",groupsName,".csv"))

dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```

```{r}
png(paste0("GO_BP_",groupsName,".png"), width = 1024, height = 1224)
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```


GO MF
```{r,fig.height = 10,fig.width = 12}
####MF
cgoMF <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      keyType="SYMBOL",
                      ont = "MF", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoMF2 <- simplify(cgoMF, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoMF2),paste0("GO_MF_",groupsName,".csv"))

dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```
```{r,fig.height = 7,fig.width = 12}
#dbs <- c("GO_Molecular_Function_2018", "GO_Cellular_Component_2018", "GO_Biological_Process_2018")
dbs <- c("Reactome_2016","WikiPathways_2019_Mouse")

if (websiteLive) {    enriched1 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1)), dbs)}
if (websiteLive) plotEnrich(enriched1[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 1")
if (websiteLive) {    enriched2 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==2)), dbs)}
if (websiteLive) plotEnrich(enriched2[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 2")
if (websiteLive) {    enriched3 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==3)), dbs)}
if (websiteLive) plotEnrich(enriched3[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 3")
if (websiteLive) {    enriched4 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==4)), dbs)}
if (websiteLive) plotEnrich(enriched4[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 4")

if (websiteLive) plotEnrich(enriched1[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 1")
if (websiteLive) plotEnrich(enriched2[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 2")
if (websiteLive) plotEnrich(enriched3[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 3")
if (websiteLive) plotEnrich(enriched4[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 4")
```


```{r}
png(paste0("GO_MF_",groupsName,".png"), width = 1424, height = 824)
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```



### R1 & R4 VAR37 VAR14 TNF k-means p0.05 lfc 1

![Design](design.png)

####1. Genelist Selection

```{r}
groupsName<-"R1_R4_kmeans_p0.05lfc1"
```


```{r}
countsTable<-read.delim("RNAseq2019July_5.txt", header = TRUE, sep = "\t",check.names=FALSE,row.names=1)
head(countsTable)
```

```{r}
AllGeneNames<-countsTable$Gene_Symbol
#head(AllGeneNames)
```

```{r}
tempA<-countsTable
```

```{r}
#tempA<-resAll[-c(10:30) ]
tempA<-countsTable
#rownames(tempA)
rownames(tempA) <- NULL
tempA = mutate(tempA, Include=
                   ifelse(tempA$pvalue_R1_Var37_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_6h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_6h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_6h_vs_0h), "in",
                          ifelse(tempA$pvalue_R1_Var37_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_0h)>1&((tempA$Var37TNF_0h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_0h), "in",
                                 ifelse(tempA$pvalue_R1_Var37_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R1_Var37_Hours_20h_vs_6h)>1&((tempA$Var37TNF_6h_mean>10)|(tempA$Var37TNF_20h_mean>10))&!is.na(tempA$pvalue_R1_Var37_Hours_20h_vs_6h), "in",
                                        ifelse(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_6h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_6h_vs_0h), "in",
                                               ifelse(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_0h)>1&((tempA$Var14TNF_0h_mean>10)|(tempA$Var14TNF_20h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_0h),"in",
                                                      ifelse(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h<0.05&abs(tempA$log2FoldChange_R4Var14TNF_Hours_20h_vs_6h)>1&((tempA$Var14TNF_20h_mean>10)|(tempA$Var14TNF_6h_mean>10))&!is.na(tempA$pvalue_R4Var14TNF_Hours_20h_vs_6h),"in",
                                                 "out")))))))


#tempA
####library(dplyr)
tempA %>%
     group_by(Include) %>% 
     tally()
```

```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes 
```

```{r}
head(countsTable)
```

```{r}
baseMeansHm <-countsTable[,c(48:50,110,112,113)]
head(baseMeansHm)
```

#### NB Please check columns used and renamed for plots
```{r}
#baseMeansHm <-countsTable[,c(60:63)]
baseMeansHm <-countsTable[,c(48:50,110,112,113)]

head(baseMeansHm)


tail(baseMeansHm[ topDEgenes, ])


baseMeansHm$Var37TNF_0h<-baseMeansHm$Var37TNF_0h_mean
baseMeansHm$Var37TNF_6h<-baseMeansHm$Var37TNF_6h_mean
baseMeansHm$Var37TNF_20h<-baseMeansHm$Var37TNF_20h_mean

baseMeansHm$Var14TNF_0h<-baseMeansHm$Var14TNF_0h_mean
baseMeansHm$Var14TNF_6h<-baseMeansHm$Var14TNF_6h_mean
baseMeansHm$Var14TNF_20h<-baseMeansHm$Var14TNF_20h_mean

baseMeansHm <-baseMeansHm[,c(7:12)]

#replace low values with 0
baseMeansHm$Var37TNF_0h[baseMeansHm$Var37TNF_0h<10]<-0
baseMeansHm$Var37TNF_6h[baseMeansHm$Var37TNF_6h<10]<-0
baseMeansHm$Var37TNF_20h[baseMeansHm$Var37TNF_20h<10]<-0
baseMeansHm$Var14TNF_0h[baseMeansHm$Var14TNF_0h<10]<-0
baseMeansHm$Var14TNF_6h[baseMeansHm$Var14TNF_6h<10]<-0
baseMeansHm$Var14TNF_20h[baseMeansHm$Var14TNF_20h<10]<-0
tail(baseMeansHm)
baseMeansHm <- log2(baseMeansHm+1)
tail(baseMeansHm)
#baseMeansHmM <-baseMeansHm2[,c(1:8)]
#head(baseMeansHmM)
```

```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes 
```

```{r}
#scale Var35 and Var14 separately
var14mn<-baseMeansHm[,c(4:6)]
var14mn<- t(as.matrix(var14mn))
var14mn <- t(scale(var14mn))
#head(var14mn)
baseMeansHm2<-baseMeansHm[,c(1:3)]
baseMeansHm2<- t(as.matrix(baseMeansHm2))
baseMeansHm2 <- t(scale(baseMeansHm2))
baseMeansHm2 <- as.data.frame(cbind(baseMeansHm2, var14mn))
baseMeansHm2[is.na(baseMeansHm2)] <- 0
#head(baseMeansHm2)

baseMeansHm2$Var37TNF_0h_lfc<-baseMeansHm2$Var37TNF_0h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_6h_lfc<-baseMeansHm2$Var37TNF_6h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var37TNF_20h_lfc<-baseMeansHm2$Var37TNF_20h-baseMeansHm2$Var37TNF_0h
baseMeansHm2$Var14TNF_0h_lfc<-baseMeansHm2$Var14TNF_0h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_6h_lfc<-baseMeansHm2$Var14TNF_6h-baseMeansHm2$Var14TNF_0h
baseMeansHm2$Var14TNF_20h_lfc<-baseMeansHm2$Var14TNF_20h-baseMeansHm2$Var14TNF_0h
#baseMeansHm1<-baseMeansHm2[,c(1:6)]
baseMeansHm3<-baseMeansHm2[,c(7:12)]
head(baseMeansHm3)
baseMeansHm2<-baseMeansHm2[,c(1:6)]
head(baseMeansHm2)

```

```{r}
dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
tail(dataHMm2)
```


####2. Hierachical clustering of means (individual samples added for inspection)
```{r,fig.height = 12,fig.width = 20}
####mean

dataHMm2<-as.matrix(baseMeansHm2[ topDEgenes, ])
dataHMm2_37<-dataHMm2[,c(1,2,3)]
dataHMm2_14<-dataHMm2[,c(4,5,6)]

hmap_hier_factors37 <- Heatmap(
  dataHMm2_37,  name = "mean37",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors37b <- Heatmap(
  dataHMm2_37,  name = "mean37b",
  row_labels = paste0(rownames(dataHMm2_37)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV37"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors14 <- Heatmap(
  dataHMm2_14,  name = "mean14",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors14b <- Heatmap(
  dataHMm2_14,  name = "mean14b",
  row_labels = paste0(rownames(dataHMm2_14)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("MeansV14"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(25, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

#write.table(dataHMm2,"dataHMm2.txt",  sep = "\t")

hmap_hier_factors4 <- Heatmap(
  dataHMm2,  name = "mean1",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

dataHMm2b<-dataHMm2[,c(1,4,2,5,3,6)]
hmap_hier_factors4a <- Heatmap(
  dataHMm2b,  name = "mean2",
  row_labels = paste0(rownames(dataHMm2b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Rearranged"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

hmap_hier_factors4b <- Heatmap(
  dataHMm2,  name = "mean3",
  row_labels = paste0(rownames(dataHMm2)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("Means Clustered"), 
  col = col_funGR,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  #cluster_rows = FALSE,
  show_row_names = FALSE)

dataHMm3<-as.matrix(baseMeansHm3[ topDEgenes, ])
write.table(dataHMm3,"dataHMm3.txt",  sep = "\t")
#baseMeansHm2<-as.matrix(baseMeansHm2)
  
hmap_hier_factors6 <- Heatmap(
  dataHMm3,  name = "logfc1",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)

dataHMm3b<-dataHMm3[,c(1,4,2,5,3,6)]
hmap_hier_factors6b <- Heatmap(
  dataHMm3b,  name = "logfc2",
  row_labels = paste0(rownames(dataHMm3b)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h Rearranged"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  cluster_columns = FALSE,
  show_row_names = FALSE)

hmap_hier_factors6c <- Heatmap(
  dataHMm3,  name = "logfc3",
  row_labels = paste0(rownames(dataHMm3)," ",(tempA[ topDEgenes, ])$Gene_Symbol),
  column_title = paste0("vs 0h"), 
  col = col_funGR2,
  column_title_gp = gpar(fontsize = 14, fontface = "bold"),
  width = unit(50, "mm"),
  #cluster_columns = FALSE,
  show_row_names = FALSE)

hmlist1=hmap_hier_factors37+hmap_hier_factors14+hmap_hier_factors37b+hmap_hier_factors14b
draw(hmlist1, column_title = "Heatmaps on Means (scaled per strain). Genelists combined from VAR37 and VAR14 timecourses p<0.05 lfc1", column_title_gp = gpar(fontsize = 22))

hmlist2=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b
draw(hmlist2, column_title = "Heatmaps on Means (scaled per strain)", column_title_gp = gpar(fontsize = 22))

hmlist3=hmap_hier_factors4+hmap_hier_factors4a+hmap_hier_factors4b+hmap_hier_factors6+hmap_hier_factors6b+hmap_hier_factors6c
draw(hmlist3, column_title = "Heatmaps on Means (scaled per strain) and logfc Means vs Strain 0h", column_title_gp = gpar(fontsize = 22))
```







```{r,fig.height = 7,fig.width =12 }
par(mfrow=c(1,2))
#### Silhouette method
fviz_nbclust(dataHMm3, kmeans, method = "silhouette",k.max = 16)+
  labs(subtitle = "Silhouette method")

#### Elbow method
fviz_nbclust(dataHMm3, kmeans, method = "wss",k.max = 16) +
  labs(subtitle = "Elbow method")

```

```{r}
####gap stat slow!!!
####set.seed(123)
####fviz_nbclust(dataHMm, kmeans, nstart = 25,  method = "gap_stat", nboot = 100,k.max = 16)+
####  labs(subtitle = "Gap statistic method")
```


```{r,fig.height = 7}
#kclust8 <- kmeans(dataHMm3, 4)
#silhouette plot
distK<-daisy(dataHMm3)
plot(silhouette(kclust8$cluster, distK), col=1:4, border=NA)

```

####3. K-means clustering of means 
```{r,fig.height = 10,fig.width = 20}
split <- paste0("Cluster\n", kclust8$cluster)
#split <- factor(paste0("Cluster\n", kclust3$cluster), levels=c("Cluster\n3","Cluster\n1","Cluster\n4","Cluster\n5","Cluster\n2","Cluster\n6"))
hmap_k <- Heatmap(dataHMm3, split=split, cluster_row_slices = FALSE,
                  cluster_columns = FALSE,
                  show_row_names = FALSE,
                  name = "Means (scaled per strain",
                  col = col_funGR2,
                  width = unit(50, "mm"),
                  column_title = "Means", 
                  column_title_gp = gpar(fontsize = 16, fontface = "bold"))

hmap_k#+hmap_hier_factors6+hmap_hier_factors5
```

Mean profiles of clusters

```{r,fig.height = 9,fig.width = 8}
clustercount<-data.frame(kclust8$cluster)
clustersizes<-table(clustercount$kclust8.cluster)
clusterMeans<-data.frame(kclust8$centers)
clusterMeans1<-data.frame(t(clusterMeans))
clusterMeans1 <- cbind(rownames(clusterMeans1), clusterMeans1)
orderN<-c("Var37TNF_0h_lfc","Var37TNF_6h_lfc","Var37TNF_20h_lfc","Var14TNF_0h_lfc","Var14TNF_6h_lfc","Var14TNF_20h_lfc")#### manual

rownames(clusterMeans1) <- NULL
names(clusterMeans1)[names(clusterMeans1)=="rownames(clusterMeans1)"] <- "Sample"
####clusterMeans1
Strain<-factor(c(rep("VAR37",3),rep("VAR14",3)))####note names
#p1=ggplot(data=dataHmt, aes(x=row.names(dataHmt), y=ENSG00000162551.14),group=Run) + ggtitle("ALPL") +geom_point() +  scale_x_discrete(limits=limitsPlot)+  ylab(ylabPlot)+xlab(xlabPlot)+geom_line(aes(group = Run)) 


pX1<-ggplot(data=clusterMeans1, aes(x=Sample, y=X1,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X1 Profile ",clustersizes[1]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX2<-ggplot(data=clusterMeans1, aes(x=Sample, y=X2,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X2 Profile ",clustersizes[2]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX3<-ggplot(data=clusterMeans1, aes(x=Sample, y=X3,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X3 Profile ",clustersizes[3]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
pX4<-ggplot(data=clusterMeans1, aes(x=Sample, y=X4,group=1)) +
  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X4 Profile ",clustersizes[4]," genes"))+  scale_x_discrete(limits=orderN)+
  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX5<-ggplot(data=clusterMeans1, aes(x=Sample, y=X5,group=1)) +
#  geom_line(aes(group = Strain))+  geom_point()+ggtitle(paste("Cluster X5 Profile ",clustersizes[5]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1),axis.title.y = element_blank())+ylim (-1.8,1.8)
#pX8<-ggplot(data=clusterMeans1, aes(x=Sample, y=X8,group=1)) +
#  geom_line()+  geom_point()+ggtitle(paste("Cluster X8 Profile ",clustersizes[6]," genes"))+  scale_x_discrete(limits=orderN)+
#  theme(axis.title.x = element_blank(),axis.title.y = element_blank())


#plot
multiplot(pX1,pX2,pX4,pX3,     cols=2)

```


```{r}
topDEgenes <- which(tempA$Include=="in")####find indexes
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)
#### export the gene expression data for the clusters
write.table(clusterMeans,paste0("ClusterMeansKm_",groupsName,".txt"),  sep = "\t")
ClusteredGenes<-data.frame(kclust8$cluster,SymbolsKm,dataHMm3)
write.table(ClusteredGenes,paste0("ScaledDataInClustersKm_",groupsName,".txt"),  sep = "\t")
#head(ClusteredGenes)
```


```{r}
bottomDEgenes<-which(tempA$Include=="out")####find indexes 
bottomG<-tempA[ bottomDEgenes, ]
bottomG<-dplyr::pull(bottomG, Gene_Symbol)
write.table(bottomG,paste0("ipaBottomKmeans_",groupsName,".txt"),  sep = "\t")
                         

topDEgenes <- which(tempA$Include=="in")####find indexes 
tempAkm<-tempA[ topDEgenes, ]
SymbolsKm<-dplyr::pull(tempAkm, Gene_Symbol)

ipaKmeans<-ClusteredGenes
#countsTable <-countsTable[,c(1:15)]####if samples need removing
ipaKmeans<-ipaKmeans[,c(1:2)]
ipaKmeans$name2<-rownames(ipaKmeans)
#ipaKmeans%>% rownames_to_column(var = "rowname")
#ipaKmeans
#rowid_to_column(ipaKmeans)
ipaKmeans = mutate(ipaKmeans, x1= ifelse(ipaKmeans$kclust8.cluster==1, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x2= ifelse(ipaKmeans$kclust8.cluster==2, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x3= ifelse(ipaKmeans$kclust8.cluster==3, "1", "0"))
ipaKmeans = mutate(ipaKmeans, x4= ifelse(ipaKmeans$kclust8.cluster==4, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x5= ifelse(ipaKmeans$kclust3.cluster==5, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x6= ifelse(ipaKmeans$kclust3.cluster==6, "1", "0"))
#ipaKmeans = mutate(ipaKmeans, x7= ifelse(ipaKmeans$kclust3.cluster==7, "1", "0"))
#ipaKmeans
write.table(ipaKmeans,paste0("ipaKmeans_",groupsName,".txt"),  sep = "\t")
#head(ipaKmeans)

```


```{r}
ClusteredGenes2<-ClusteredGenes[c(1)]
#ClusteredGenes2
listAll<-list()
for(i in 1:4) {
  clusterName<-paste0("x",i)
  #clusterName<-row.names(subset(ClusteredGenes,ClusteredGenes==i))
  clusterName<-(subset(ClusteredGenes$SymbolsKm,ClusteredGenes==i))
  listAll[[i]]<-clusterName
}
#need to name the vectors in the list, example here is for 8 clusters
names(listAll)<-c("X1", "X2", "X3", "X4")#,"X5", "X6", "X7")

#if you want to rearrange the order
#listAll<-listAll[c("x3", "x7", "x8", "x2", "x6", "x5", "x4", "x1")]

#lapply(listAll, head)

```

####4. Annotation of K-means clusters
- CC cellular compartment
- BP biological process
- MF molecular function

The simplify function has been used to cut down on GO redundancy

```{r}
#str(AllGeneNames)
```

```{r}
xread
```

```{r,fig.height = 8,fig.width = 12}
####CC
cgoCC <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      ####OrgDb=org.Mm.eg.db,
                      keyType="SYMBOL",
                      ont = "CC", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoCC2 <- simplify(cgoCC, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoCC2),paste0("GO_CC_",groupsName,".csv"))

dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```
Plots and GO data were written to files
```{r}
png(paste0("GO_CC_",groupsName,".png"), width = 1224, height = 824)
dotplot(cgoCC2,showCategory = 30,
        title = paste0("GO Cellular Compartment ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```

GO BP
```{r,fig.height = 12,fig.width = 12}
####CC
cgoBP <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db,
                      keyType="SYMBOL",
                      ont = "BP", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoBP2 <- simplify(cgoBP, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoBP2),paste0("GO_BP_",groupsName,".csv"))

dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```

```{r}
png(paste0("GO_BP_",groupsName,".png"), width = 1024, height = 1224)
dotplot(cgoBP2,showCategory = 30,
        title = paste0("GO Biological Process ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```


GO MF
```{r,fig.height = 10,fig.width = 12}
####MF
cgoMF <- compareCluster(geneCluster = listAll, 
                      universe = AllGeneNames,
                      fun = "enrichGO",
                      OrgDb=org.Hs.eg.db, 
                      keyType="SYMBOL",
                      ont = "MF", 
                      pvalueCutoff=0.05,
                      qvalueCutoff = 0.10)
cgoMF2 <- simplify(cgoMF, cutoff=0.7, by="p.adjust", select_fun=min)
####write as spreadsheet
write.csv(as.data.frame(cgoMF2),paste0("GO_MF_",groupsName,".csv"))

dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))

```



```{r}
png(paste0("GO_MF_",groupsName,".png"), width = 1424, height = 824)
dotplot(cgoMF2,showCategory = 30,
        title = paste0("GO Molecular Function  ",groupsName))+
  theme(axis.text.x = element_text(angle = 90, vjust = 0.5, hjust=1))
dev.off()
```

```{r,fig.height = 7,fig.width = 12}
#dbs <- c("GO_Molecular_Function_2018", "GO_Cellular_Component_2018", "GO_Biological_Process_2018")
dbs <- c("Reactome_2016","WikiPathways_2019_Mouse")

if (websiteLive) {    enriched1 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==1)), dbs)}
if (websiteLive) plotEnrich(enriched1[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 1")
if (websiteLive) {    enriched2 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==2)), dbs)}
if (websiteLive) plotEnrich(enriched2[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 2")
if (websiteLive) {    enriched3 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==3)), dbs)}
if (websiteLive) plotEnrich(enriched3[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 3")
if (websiteLive) {    enriched4 <- enrichr((subset(ClusteredGenes$SymbolsKm,ClusteredGenes==4)), dbs)}
if (websiteLive) plotEnrich(enriched4[[1]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="Reactome Enrichment Analysis Cluster 4")

if (websiteLive) plotEnrich(enriched1[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 1")
if (websiteLive) plotEnrich(enriched2[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 2")
if (websiteLive) plotEnrich(enriched3[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 3")
if (websiteLive) plotEnrich(enriched4[[2]], showTerms = 30, numChar = 80, y = "Count", orderBy = "P.value", title ="WikiPathways Enrichment Analysis Cluster 4")
```



save: once happy with clustering save workspace so that it can be recalled
```{r}
save.image(file="KmFeb2021.RData")
```




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