This file is associated with the course on Functional Analysis, accessible at this link: https://moodle.france-bioinformatique.fr/course/view.php?id=28. This file shows the code to perform over-representation analysis and gene set enrichment analysis. The analyses are based on the clusterProfiler package:

citation("clusterProfiler")
## Please cite S. Xu (2024) for using clusterProfiler. In addition, please
## cite G. Yu (2010) when using GOSemSim, G. Yu (2015) when using DOSE and
## G. Yu (2015) when using ChIPseeker.
## 
##   S Xu, E Hu, Y Cai, Z Xie, X Luo, L Zhan, W Tang, Q Wang, B Liu, R
##   Wang, W Xie, T Wu, L Xie, G Yu. Using clusterProfiler to characterize
##   multiomics data. Nature Protocols. 2024,
##   doi:10.1038/s41596-024-01020-z
## 
##   T Wu, E Hu, S Xu, M Chen, P Guo, Z Dai, T Feng, L Zhou, W Tang, L
##   Zhan, X Fu, S Liu, X Bo, and G Yu. clusterProfiler 4.0: A universal
##   enrichment tool for interpreting omics data. The Innovation. 2021,
##   2(3):100141
## 
##   Guangchuang Yu, Li-Gen Wang, Yanyan Han and Qing-Yu He.
##   clusterProfiler: an R package for comparing biological themes among
##   gene clusters. OMICS: A Journal of Integrative Biology 2012,
##   16(5):284-287
## 
## To see these entries in BibTeX format, use 'print(<citation>,
## bibtex=TRUE)', 'toBibtex(.)', or set
## 'options(citation.bibtex.max=999)'.

Environment

We load packages of interest:

library(clusterProfiler)  # Make enrichment analysis
library(enrichplot)       # Awesome graphs
library(org.At.tair.db)   # A. Thaliana annotation

.libPaths()
## [1] "/shared/home/aonfroy/R/x86_64-conda-linux-gnu-library/4.4"     
## [2] "/shared/ifbstor1/software/miniconda/envs/r-4.4.1/lib/R/library"

Data

We load the data from the differential expression analysis.

deseq_genes = read.table(
  file = "./tables/KOvsWT.complete.txt",
  sep = "\t",
  header = TRUE
)

We assess the dimensions of the data

colnames(deseq_genes)
##  [1] "Id"             "WT1"            "WT2"            "WT3"           
##  [5] "KO1"            "KO2"            "KO3"            "norm.WT1"      
##  [9] "norm.WT2"       "norm.WT3"       "norm.KO1"       "norm.KO2"      
## [13] "norm.KO3"       "baseMean"       "WT"             "KO"            
## [17] "FoldChange"     "log2FoldChange" "stat"           "pvalue"        
## [21] "padj"           "dispGeneEst"    "dispFit"        "dispMAP"       
## [25] "dispersion"     "betaConv"       "maxCooks"
nrow(deseq_genes)
## [1] 27655
head(deseq_genes$Id)
## [1] "gene:AT1G01010" "gene:AT1G01020" "gene:AT1G01030" "gene:AT1G01040"
## [5] "gene:AT1G01050" "gene:AT1G01060"

We explore the data:

deseq_genes[deseq_genes$Id == "gene:AT1G61580", ]
##                  Id WT1 WT2 WT3 KO1 KO2 KO3 norm.WT1 norm.WT2 norm.WT3 norm.KO1
## 5120 gene:AT1G61580 248 231 205 119 131 125      229      210      215      131
##      norm.KO2 norm.KO3 baseMean  WT  KO FoldChange log2FoldChange  stat
## 5120      131      123   173.19 218 128      0.588         -0.766 -4.48
##            pvalue         padj dispGeneEst dispFit dispMAP dispersion betaConv
## 5120 7.465947e-06 0.0001156724           0  0.0311  0.0149     0.0149     TRUE
##      maxCooks
## 5120   0.0222

Gene identifiers

For a computer, gene:AT1G01010 is not AT1G01010. We fix identifiers for the computer:

head(deseq_genes$Id)
## [1] "gene:AT1G01010" "gene:AT1G01020" "gene:AT1G01030" "gene:AT1G01040"
## [5] "gene:AT1G01050" "gene:AT1G01060"
deseq_genes$Id = sub(pattern = "gene:",
                     replacement = "",
                     x = deseq_genes$Id)

head(deseq_genes$Id)
## [1] "AT1G01010" "AT1G01020" "AT1G01030" "AT1G01040" "AT1G01050" "AT1G01060"

Gene symbol

For a human, AT1G61580 is horrible to remember. We can add human-readable names. The latter are called “symbol”.

annotation = clusterProfiler::bitr(
  geneID   = deseq_genes$Id,          # Our gene list
  fromType = "TAIR",                  # We have TAIR ID
  toType   = c("ENTREZID", "SYMBOL"), # What we want
  OrgDb    = org.At.tair.db,          # Our annotation
  drop = FALSE
)
## 'select()' returned 1:many mapping between keys and columns
## Warning in clusterProfiler::bitr(geneID = deseq_genes$Id, fromType = "TAIR", :
## 3.42% of input gene IDs are fail to map...
head(annotation)
##        TAIR ENTREZID  SYMBOL
## 1 AT1G01010   839580 ANAC001
## 2 AT1G01010   839580  NAC001
## 3 AT1G01010   839580   NTL10
## 4 AT1G01020   839569    ARV1
## 5 AT1G01030   839321    NGA3
## 6 AT1G01040   839574    ASU1
dim(annotation)
## [1] 38947     3

We add the translation to the result table

deseq_genes_with_symbol = merge(
  x = deseq_genes,
  y = annotation,
  by.x = "Id",   # In deseq_genes, TAIR IDs are stored in the Id column
  by.y = "TAIR"  # In annotation, TAIR IDs are stored in the TAIR column
)

dim(deseq_genes)
## [1] 27655    27
dim(deseq_genes_with_symbol)
## [1] 38947    29
head(deseq_genes_with_symbol[, c("Id", "SYMBOL", "ENTREZID")])
##          Id  SYMBOL ENTREZID
## 1 AT1G01010 ANAC001   839580
## 2 AT1G01010  NAC001   839580
## 3 AT1G01010   NTL10   839580
## 4 AT1G01020    ARV1   839569
## 5 AT1G01030    NGA3   839321
## 6 AT1G01040    ASU1   839574

Adding symbol changes the number of dimensions of the table:

dim(deseq_genes)
## [1] 27655    27
dim(deseq_genes_with_symbol)
## [1] 38947    29

We are going to use the original table, so we clean the annotation and annotated table:

rm(annotation, deseq_genes_with_symbol)

Over-representation analysis

We need to filter differentially expressed genes in order to perform ORA.

dim(deseq_genes)
## [1] 27655    27
de_genes = deseq_genes[deseq_genes[, "padj"] <= 0.001, ]
de_genes = de_genes[!is.na(de_genes[, "log2FoldChange"]), ]
dim(de_genes)
## [1] 1807   27

Cellular components

We perform the ORA using the gene ontology for cellular components:

ego = clusterProfiler::enrichGO(
  gene = de_genes$Id,                # gene list
  universe = deseq_genes$Id,         # all genes
  OrgDb = org.At.tair.db,            # annotation
  keyType = "TAIR",                  # nature of the genes ID
  ont = "CC",                        # Cellular Components
  pvalueCutoff = 1,                  # significance threshold (take all)
  pAdjustMethod = "BH",              # p-value adjustment method
  readable = TRUE                    # For human beings
)

# View(ego)

How it looks like ?

head(ego@result, 3)
##                    ID                    Description GeneRatio   BgRatio
## GO:0055035 GO:0055035     plastid thylakoid membrane   74/1785 357/26909
## GO:0009535 GO:0009535 chloroplast thylakoid membrane   73/1785 349/26909
## GO:0019867 GO:0019867                 outer membrane   85/1785 477/26909
##                  pvalue     p.adjust       qvalue
## GO:0055035 1.033262e-18 1.443340e-16 1.310881e-16
## GO:0009535 1.042123e-18 1.443340e-16 1.310881e-16
## GO:0019867 5.207312e-17 3.606064e-15 3.275125e-15
##                                                                                                                                                                                                                                                                                                                                                                                                                                                                                                                                        geneID
## GO:0055035                                                             PSAD-2/EMB2784/PnsL2/NDF1/NDF6/LHCA2*1/ATLFNR2/DRT112/COR413-TM1/AB180/AB165/AB140/PSAF/PRK/CP22/PSAH-2/PSAG/RBCS1A/cS23z/CRR23/LIL8/SPPA/NDH-O/CRR3/LHCB2/LHCB2/NA/NA/PSBW/DEG11/DRN1/ATBCA1/EMB3119/LHCB4.2/ATNCED3/ATHM4/AOC1/ATPRX/CCL/DEG13/bL12cz/ATLOX2/PTAC16/CAB4/CHL/LHCA1/CYP20-3/OEP6/ATPC1/ATPD/PSAL/ATRAB8D/PSBQ/PSAE-1/PDE334/NDH-M/CURT1D/FKBP16-2/ATPLAT1/LHCB4.1/ATFER1/BETA/NA/PHGAP2/ATHMA8/NA/ATGSL1/NDH18/PAM68L/LHCB3/PSAN/PSAB/PSAA/AthCF1beta
## GO:0009535                                                                    PSAD-2/EMB2784/PnsL2/NDF1/NDF6/LHCA2*1/ATLFNR2/COR413-TM1/AB180/AB165/AB140/PSAF/PRK/CP22/PSAH-2/PSAG/RBCS1A/cS23z/CRR23/LIL8/SPPA/NDH-O/CRR3/LHCB2/LHCB2/NA/NA/PSBW/DEG11/DRN1/ATBCA1/EMB3119/LHCB4.2/ATNCED3/ATHM4/AOC1/ATPRX/CCL/DEG13/bL12cz/ATLOX2/PTAC16/CAB4/CHL/LHCA1/CYP20-3/OEP6/ATPC1/ATPD/PSAL/ATRAB8D/PSBQ/PSAE-1/PDE334/NDH-M/CURT1D/FKBP16-2/ATPLAT1/LHCB4.1/ATFER1/BETA/NA/PHGAP2/ATHMA8/NA/ATGSL1/NDH18/PAM68L/LHCB3/PSAN/PSAB/PSAA/AthCF1beta
## GO:0019867 PSAD-2/FZL/EMB2784/PnsL2/NDF1/NDF6/LHCA2*1/ATLFNR2/AtTTM2/COR413-TM1/AB180/AB165/AB140/PSAF/PRK/CP22/NA/PSAH-2/PSAG/RBCS1A/cS23z/CRR23/LIL8/AtTTM1/SPPA/NDH-O/ARC3/CRR3/LHCB2/LHCB2/NA/NA/PSBW/DEG11/DRN1/ATBCA1/EMB3119/LHCB4.2/ATNCED3/ATHM4/AOC1/ATPRX/CCL/DEG13/bL12cz/AtOM47/ATLOX2/PTAC16/CAB4/CHL/AtBCS1/LHCA1/CYP20-3/OEP6/ATPC1/ATPD/AZI3/PSAL/ATRAB8D/PSBQ/PSAE-1/KOC1/PDE334/NDH-M/CURT1D/FKBP16-2/ATPLAT1/LHCB4.1/ATFER1/BETA/NA/PHGAP2/ATHMA8/ATKO1/NA/ATGSL1/NDH18/At-NEET/PAM68L/NA/LHCB3/PSAN/PSAB/PSAA/AthCF1beta
##            Count
## GO:0055035    74
## GO:0009535    73
## GO:0019867    85

We visualize results:

graphics::barplot(ego,
                  showCategory = 15)

enrichplot::dotplot(ego,
                    showCategory = 15)

We search for enriched terms that related to roots.

grep(ego@result$Description,
     pattern = "root",
     value = TRUE)
## [1] "root hair"

There is only one. What about the result regarding this gene set ?

ego@result[ego@result$Description == "root hair", ]
##                    ID Description GeneRatio  BgRatio     pvalue  p.adjust
## GO:0035618 GO:0035618   root hair    5/1785 23/26909 0.01573318 0.1562631
##               qvalue                          geneID Count
## GO:0035618 0.1419224 MATE/ATCNGC6/PRX44/AtSFH1/PRX73     5

Biological processes

We perform the ORA using the gene ontology for biological processes:

ego = clusterProfiler::enrichGO(
  gene = de_genes$Id,                     # gene list
  universe = deseq_genes$Id,            # all genes
  OrgDb = org.At.tair.db,               # annotation
  keyType = "TAIR",               # nature of the genes ID
  ont = "BP",                       # Biological Processes
  pvalueCutoff = 1,               # significance threshold (take all)
  pAdjustMethod = "BH",           # p-value adjustment method
  readable = TRUE                 # For human beings
)

We visualize results:

graphics::barplot(ego,
                  showCategory = 15)

enrichplot::dotplot(ego,
                    showCategory = 15)

Again, we search for enriched terms that related to roots.

root_names = grep(ego@result$Description,
                  pattern = "root",
                  value = TRUE)
root_names
##  [1] "root morphogenesis"                           
##  [2] "lateral root development"                     
##  [3] "root epidermal cell differentiation"          
##  [4] "post-embryonic root development"              
##  [5] "root hair cell development"                   
##  [6] "root hair cell differentiation"               
##  [7] "lateral root morphogenesis"                   
##  [8] "post-embryonic root morphogenesis"            
##  [9] "root hair elongation"                         
## [10] "lateral root formation"                       
## [11] "root hair cell tip growth"                    
## [12] "root hair initiation"                         
## [13] "regulation of root meristem growth"           
## [14] "root meristem growth"                         
## [15] "primary root development"                     
## [16] "regulation of lateral root development"       
## [17] "regulation of root development"               
## [18] "root cap development"                         
## [19] "regulation of post-embryonic root development"
## [20] "regulation of root morphogenesis"             
## [21] "maintenance of root meristem identity"

There are a lot ! What about the associated results ?

ego@result[ego@result$Description %in% root_names, ]
##                    ID                                   Description GeneRatio
## GO:0010015 GO:0010015                            root morphogenesis   47/1383
## GO:0048527 GO:0048527                      lateral root development   24/1383
## GO:0010053 GO:0010053           root epidermal cell differentiation   24/1383
## GO:0048528 GO:0048528               post-embryonic root development   25/1383
## GO:0080147 GO:0080147                    root hair cell development   18/1383
## GO:0048765 GO:0048765                root hair cell differentiation   20/1383
## GO:0010102 GO:0010102                    lateral root morphogenesis   14/1383
## GO:0010101 GO:0010101             post-embryonic root morphogenesis   14/1383
## GO:0048767 GO:0048767                          root hair elongation   13/1383
## GO:0010311 GO:0010311                        lateral root formation    9/1383
## GO:0048768 GO:0048768                     root hair cell tip growth    5/1383
## GO:0048766 GO:0048766                          root hair initiation    4/1383
## GO:0010082 GO:0010082            regulation of root meristem growth    4/1383
## GO:0010449 GO:0010449                          root meristem growth    4/1383
## GO:0080022 GO:0080022                      primary root development    3/1383
## GO:2000023 GO:2000023        regulation of lateral root development    2/1383
## GO:2000280 GO:2000280                regulation of root development    5/1383
## GO:0048829 GO:0048829                          root cap development    1/1383
## GO:2000069 GO:2000069 regulation of post-embryonic root development    2/1383
## GO:2000067 GO:2000067              regulation of root morphogenesis    1/1383
## GO:0010078 GO:0010078         maintenance of root meristem identity    1/1383
##              BgRatio       pvalue     p.adjust       qvalue
## GO:0010015 347/21050 1.917062e-06 0.0001694857 0.0001400648
## GO:0048527 151/21050 4.914273e-05 0.0020336727 0.0016806485
## GO:0010053 154/21050 6.783874e-05 0.0026704699 0.0022069044
## GO:0048528 164/21050 7.002260e-05 0.0026704699 0.0022069044
## GO:0080147 107/21050 2.007462e-04 0.0061976408 0.0051217955
## GO:0048765 132/21050 3.878455e-04 0.0094264546 0.0077901211
## GO:0010102  78/21050 5.062118e-04 0.0115833177 0.0095725753
## GO:0010101  79/21050 5.786498e-04 0.0126457730 0.0104505996
## GO:0048767  77/21050 1.430280e-03 0.0229591337 0.0189736692
## GO:0010311  60/21050 1.584524e-02 0.1199182390 0.0991016918
## GO:0048768  25/21050 2.143399e-02 0.1426382809 0.1178777729
## GO:0048766  20/21050 3.859919e-02 0.1981569812 0.1637590098
## GO:0010082  44/21050 3.273507e-01 0.6163573779 0.5093642084
## GO:0010449  56/21050 5.065207e-01 0.7684733018 0.6350744050
## GO:0080022  41/21050 5.107809e-01 0.7695343076 0.6359512314
## GO:2000023  31/21050 6.133967e-01 0.8095479937 0.6690189616
## GO:2000280  82/21050 6.327005e-01 0.8196782385 0.6773907023
## GO:0048829  15/21050 6.393069e-01 0.8196782385 0.6773907023
## GO:2000069  33/21050 6.476445e-01 0.8265343358 0.6830566531
## GO:2000067  33/21050 8.940083e-01 0.9496702381 0.7848174556
## GO:0010078  42/21050 9.425670e-01 0.9682636046 0.8001832089
##                                                                                                                                                                                                                                                                                                      geneID
## GO:0010015 ATCTL1/ZFP5/LRX1/ATEXP7/AtDTX31/ATP8/ACT8/ATROPGEF11/ABS4/AtRHD6/ATPIN3/LAX3/AHK4/AIR3/P4H5/ICK1/ARR12/ABR/AIR12/AtTCTP1/ACT2/ATPLT5/ATNEK5/ATPRP3/AtTIR1/AHDP/ATEXP17/RHS13/ATXT2/AIR1/AMT1;1/CLEL/BAM3/ABS3/AtSFH1/AtHMP42/AtPRPL1/SHBY/DGR2/IAA28/ATSOS4/ATMYA2/COBL9/CEPR1/XBAT32/DROP3/CAP1
## GO:0048527                                                                                                                                      ACH1/ATGSTU17/AtNPF6.3/AtLrgB/ATP8/BDG1/LAX3/AIR3/ICK1/ATWRKY46/AIR12/AtTCTP1/ATPLT5/ATNEK5/ABCB19/MYB77/AtTIR1/ATEXP17/AIR1/AMT1;1/CLEL/IAA28/CEPR1/XBAT32
## GO:0010053                                                                                                                                        ATCTL1/ZFP5/LRX1/ATEXP7/AtDTX31/ACT8/ATROPGEF11/AtRHD6/ATPIN3/P4H5/ABR/AtTCTP1/ACT2/ATPRP3/AHDP/RHS13/ATXT2/AtSFH1/AtPRPL1/ATSOS4/ATMYA2/COBL9/DROP3/CAP1
## GO:0048528                                                                                                                                 ACH1/ATGSTU17/AtNPF6.3/AtLrgB/ATP8/BDG1/LAX3/AIR3/MCA2/ICK1/ATWRKY46/AIR12/AtTCTP1/ATPLT5/ATNEK5/ABCB19/MYB77/AtTIR1/ATEXP17/AIR1/AMT1;1/CLEL/IAA28/CEPR1/XBAT32
## GO:0080147                                                                                                                                                                              ZFP5/ATEXP7/AtDTX31/ACT8/ATROPGEF11/ATPIN3/P4H5/ABR/AtTCTP1/ACT2/RHS13/ATXT2/AtSFH1/AtPRPL1/ATMYA2/COBL9/DROP3/CAP1
## GO:0048765                                                                                                                                                                  ZFP5/ATEXP7/AtDTX31/ACT8/ATROPGEF11/AtRHD6/ATPIN3/P4H5/ABR/AtTCTP1/ACT2/AHDP/RHS13/ATXT2/AtSFH1/AtPRPL1/ATMYA2/COBL9/DROP3/CAP1
## GO:0010102                                                                                                                                                                                                            ATP8/LAX3/AIR3/ICK1/AIR12/ATPLT5/ATNEK5/AtTIR1/ATEXP17/AIR1/AMT1;1/IAA28/CEPR1/XBAT32
## GO:0010101                                                                                                                                                                                                            ATP8/LAX3/AIR3/ICK1/AIR12/ATPLT5/ATNEK5/AtTIR1/ATEXP17/AIR1/AMT1;1/IAA28/CEPR1/XBAT32
## GO:0048767                                                                                                                                                                                                               ZFP5/ATEXP7/AtDTX31/ACT8/ATPIN3/ABR/AtTCTP1/ACT2/ATXT2/AtSFH1/AtPRPL1/ATMYA2/COBL9
## GO:0010311                                                                                                                                                                                                                                       LAX3/ICK1/ATPLT5/ATNEK5/AtTIR1/ATEXP17/AMT1;1/CEPR1/XBAT32
## GO:0048768                                                                                                                                                                                                                                                                   ACT8/AtTCTP1/ACT2/AtSFH1/COBL9
## GO:0048766                                                                                                                                                                                                                                                                           ZFP5/AtRHD6/ATPIN3/ABR
## GO:0010082                                                                                                                                                                                                                                                                           ATPIN3/ARR12/CLEL/SHBY
## GO:0010449                                                                                                                                                                                                                                                                           ATPIN3/ARR12/CLEL/SHBY
## GO:0080022                                                                                                                                                                                                                                                                                BRON/ARR12/ATEXP5
## GO:2000023                                                                                                                                                                                                                                                                                       CLEL/CEPR1
## GO:2000280                                                                                                                                                                                                                                                                    GLP5/OPS/CLEL/ATEXO70C1/CEPR1
## GO:0048829                                                                                                                                                                                                                                                                                             LAX3
## GO:2000069                                                                                                                                                                                                                                                                                       CLEL/CEPR1
## GO:2000067                                                                                                                                                                                                                                                                                             CLEL
## GO:0010078                                                                                                                                                                                                                                                                                             BAM3
##            Count
## GO:0010015    47
## GO:0048527    24
## GO:0010053    24
## GO:0048528    25
## GO:0080147    18
## GO:0048765    20
## GO:0010102    14
## GO:0010101    14
## GO:0048767    13
## GO:0010311     9
## GO:0048768     5
## GO:0048766     4
## GO:0010082     4
## GO:0010449     4
## GO:0080022     3
## GO:2000023     2
## GO:2000280     5
## GO:0048829     1
## GO:2000069     2
## GO:2000067     1
## GO:0010078     1

We visualize the results as graphs:

graphics::barplot(ego,
                  showCategory = root_names)

enrichplot::dotplot(ego,
                    showCategory = root_names)

Gene set enrichment analysis

We need to build a named vector which contains sorted numbers. So, we explore results to guess the right column to extract:

colnames(deseq_genes)
##  [1] "Id"             "WT1"            "WT2"            "WT3"           
##  [5] "KO1"            "KO2"            "KO3"            "norm.WT1"      
##  [9] "norm.WT2"       "norm.WT3"       "norm.KO1"       "norm.KO2"      
## [13] "norm.KO3"       "baseMean"       "WT"             "KO"            
## [17] "FoldChange"     "log2FoldChange" "stat"           "pvalue"        
## [21] "padj"           "dispGeneEst"    "dispFit"        "dispMAP"       
## [25] "dispersion"     "betaConv"       "maxCooks"

We choose to use the stat column

geneList = as.numeric(de_genes$stat)
names(geneList) = de_genes$Id
geneList = sort(geneList, decreasing = TRUE)

head(geneList)
## AT2G17820 AT5G19600 AT2G25760 AT3G19670 AT3G48110 AT5G11800 
##    18.377    16.078    16.002    15.616    15.249    14.443

We perform the GSEA using the gene ontology for biological processes:

gsea = clusterProfiler::gseGO(
  geneList = geneList,       # ranked gene list
  ont = "BP",                # Biological Processes
  OrgDb = org.At.tair.db,    # annotation
  keyType = "TAIR",          # nature of the genes ID
  pAdjustMethod = "BH",      # p-value adjustment method
  pvalueCutoff = 1,          # significance threshold (take all)
  seed = 1                   # fix randomness for permutations
)

We explore results:

gsea@result %>%
  dplyr::filter(p.adjust < 0.05) %>%
  dplyr::top_n(., n = 8, wt = abs(NES)) %>%
  dplyr::select(Description, NES, p.adjust, setSize)
##                                                                                     Description
## GO:0090304                                                       nucleic acid metabolic process
## GO:0006139                                     nucleobase-containing compound metabolic process
## GO:0006396                                                                       RNA processing
## GO:0016071                                                               mRNA metabolic process
## GO:0008380                                                                         RNA splicing
## GO:0000375                                      RNA splicing, via transesterification reactions
## GO:0000377 RNA splicing, via transesterification reactions with bulged adenosine as nucleophile
## GO:0000398                                                       mRNA splicing, via spliceosome
##                 NES     p.adjust setSize
## GO:0090304 3.205898 7.612500e-09     269
## GO:0006139 3.108906 7.612500e-09     313
## GO:0006396 3.294111 1.875476e-08      49
## GO:0016071 3.329805 1.995708e-08      44
## GO:0008380 3.201659 4.633670e-07      25
## GO:0000375 3.163249 1.374899e-06      23
## GO:0000377 3.163249 1.374899e-06      23
## GO:0000398 3.163249 1.374899e-06      23

We still focus on root-related terms:

root_names = grep(gsea@result$Description,
                  pattern = "root",
                  value = TRUE)
root_names
##  [1] "root epidermal cell differentiation" "root hair cell differentiation"     
##  [3] "root hair cell development"          "root system development"            
##  [5] "root development"                    "root morphogenesis"                 
##  [7] "root hair elongation"                "lateral root development"           
##  [9] "post-embryonic root development"     "post-embryonic root morphogenesis"  
## [11] "lateral root morphogenesis"

What are the significant results associated with these terms ?

gsea@result %>%
  dplyr::filter(p.adjust < 0.05) %>%
  dplyr::filter(Description %in% root_names) %>%
  dplyr::top_n(., n = 8, wt = abs(NES)) %>%
  dplyr::select(Description, NES, p.adjust, setSize)
##                                    Description       NES   p.adjust setSize
## GO:0010053 root epidermal cell differentiation -1.992990 0.02082870      24
## GO:0048765      root hair cell differentiation -1.803941 0.03351513      20

We want to visualize the GSEA curve associated with one of these terms:

gene_set_name = "root hair cell differentiation"
gene_set_id = which(gsea@result$Description == gene_set_name)
gene_set_id
## [1] 207
enrichplot::gseaplot2(
  x = gsea,
  geneSetID = gene_set_id,
  title = gene_set_name
)

Bonus

In this section, we propose other ways to visualize the results from ORA (ego object) or GSEA (gsea object).

Multiple GSEA curves

enrichplot::gseaplot2(
  x = gsea,
  geneSetID = c(1:3),
  title = "Most enriched terms"
)

Heatmap

enrichplot::heatplot(
  x = ego,                         # Our ORA
  showCategory = root_names,       # Gene sets of interest
  foldChange = setNames(nm = de_genes$Id,
                        de_genes$log2FoldChange) # Our fold changes
)

Upset plot

ego = enrichplot::pairwise_termsim(ego)

enrichplot::upsetplot(x = ego,    # Our ORA
                      n = 10)     # Nb of terms to display

Enrichment map

enrichplot::emapplot(ego, showCategory = root_names)

Gene-concept network

enrichplot::cnetplot(ego,
                     showCategory = root_names,
                     foldChange = setNames(nm = de_genes$Id,
                                           de_genes$log2FoldChange))
## Warning in cnetplot.enrichResult(x, ...): Use 'color.params = list(foldChange = your_value)' instead of 'foldChange'.
##  The foldChange parameter will be removed in the next version.
## Scale for size is already present.
## Adding another scale for size, which will replace the existing scale.

R Session

To be able to re-run the analysis or to understand why outputs are different between two compilations, it is important to display the version of the packages we used:

sessionInfo()
## R version 4.4.1 (2024-06-14)
## Platform: x86_64-conda-linux-gnu
## Running under: Ubuntu 20.04.6 LTS
## 
## Matrix products: default
## BLAS/LAPACK: /shared/ifbstor1/software/miniconda/envs/r-4.4.1/lib/libopenblasp-r0.3.27.so;  LAPACK version 3.12.0
## 
## locale:
##  [1] LC_CTYPE=en_US.UTF-8       LC_NUMERIC=C              
##  [3] LC_TIME=en_US.UTF-8        LC_COLLATE=en_US.UTF-8    
##  [5] LC_MONETARY=en_US.UTF-8    LC_MESSAGES=en_US.UTF-8   
##  [7] LC_PAPER=en_US.UTF-8       LC_NAME=C                 
##  [9] LC_ADDRESS=C               LC_TELEPHONE=C            
## [11] LC_MEASUREMENT=en_US.UTF-8 LC_IDENTIFICATION=C       
## 
## time zone: Europe/Paris
## tzcode source: system (glibc)
## 
## attached base packages:
## [1] stats4    stats     graphics  grDevices utils     datasets  methods  
## [8] base     
## 
## other attached packages:
## [1] org.At.tair.db_3.19.1  AnnotationDbi_1.66.0   IRanges_2.38.1        
## [4] S4Vectors_0.42.1       Biobase_2.64.0         BiocGenerics_0.50.0   
## [7] enrichplot_1.24.4      clusterProfiler_4.12.6
## 
## loaded via a namespace (and not attached):
##   [1] DBI_1.2.3               gson_0.1.0              shadowtext_0.1.3       
##   [4] gridExtra_2.3           httr2_1.0.1             rlang_1.1.4            
##   [7] magrittr_2.0.3          DOSE_3.30.1             compiler_4.4.1         
##  [10] RSQLite_2.3.7           png_0.1-8               vctrs_0.6.5            
##  [13] reshape2_1.4.4          stringr_1.5.1           pkgconfig_2.0.3        
##  [16] crayon_1.5.3            fastmap_1.2.0           XVector_0.44.0         
##  [19] labeling_0.4.3          ggraph_2.2.1            utf8_1.2.4             
##  [22] HDO.db_0.99.1           rmarkdown_2.28          UCSC.utils_1.0.0       
##  [25] purrr_1.0.2             bit_4.5.0               xfun_0.48              
##  [28] zlibbioc_1.50.0         cachem_1.1.0            aplot_0.2.3            
##  [31] GenomeInfoDb_1.40.1     jsonlite_1.8.9          blob_1.2.4             
##  [34] highr_0.11              BiocParallel_1.38.0     tweenr_2.0.3           
##  [37] parallel_4.4.1          R6_2.5.1                bslib_0.8.0            
##  [40] stringi_1.8.4           RColorBrewer_1.1-3      jquerylib_0.1.4        
##  [43] GOSemSim_2.30.2         Rcpp_1.0.13             knitr_1.48             
##  [46] R.utils_2.12.3          Matrix_1.7-1            splines_4.4.1          
##  [49] igraph_2.1.1            tidyselect_1.2.1        qvalue_2.36.0          
##  [52] rstudioapi_0.17.0       yaml_2.3.10             viridis_0.6.5          
##  [55] codetools_0.2-20        lattice_0.22-6          tibble_3.2.1           
##  [58] plyr_1.8.9              treeio_1.28.0           withr_3.0.1            
##  [61] KEGGREST_1.44.0         evaluate_1.0.1          gridGraphics_0.5-1     
##  [64] scatterpie_0.2.4        polyclip_1.10-7         ggupset_0.4.0          
##  [67] Biostrings_2.72.1       ggtree_3.12.0           pillar_1.9.0           
##  [70] ggfun_0.1.6             generics_0.1.3          ggplot2_3.5.1          
##  [73] tidytree_0.4.6          munsell_0.5.1           scales_1.3.0           
##  [76] glue_1.8.0              lazyeval_0.2.2          tools_4.4.1            
##  [79] ggnewscale_0.4.10       data.table_1.16.2       fgsea_1.30.0           
##  [82] fs_1.6.4                graphlayouts_1.1.1      fastmatch_1.1-4        
##  [85] tidygraph_1.3.1         cowplot_1.1.3           grid_4.4.1             
##  [88] ape_5.8                 tidyr_1.3.1             colorspace_2.1-1       
##  [91] nlme_3.1-165            patchwork_1.3.0         GenomeInfoDbData_1.2.12
##  [94] ggforce_0.4.2           cli_3.6.3               rappdirs_0.3.3         
##  [97] fansi_1.0.6             viridisLite_0.4.2       dplyr_1.1.4            
## [100] gtable_0.3.5            R.methodsS3_1.8.2       yulab.utils_0.1.7      
## [103] sass_0.4.9              digest_0.6.37           ggplotify_0.1.2        
## [106] ggrepel_0.9.6           farver_2.1.2            memoise_2.0.1          
## [109] htmltools_0.5.8.1       R.oo_1.26.0             lifecycle_1.0.4        
## [112] httr_1.4.7              GO.db_3.19.1            bit64_4.5.2            
## [115] MASS_7.3-61
---
title: "GSEA_TP"
date: "EBAII n1 2024"
output:
  html_document:
    code_download: true
    toc: true
    toc_float: true
---

```{r setup, include=FALSE}
knitr::opts_chunk$set(echo = TRUE)
```


This file is associated with the course on Functional Analysis, accessible at this link: [https://moodle.france-bioinformatique.fr/course/view.php?id=28](https://moodle.france-bioinformatique.fr/course/view.php?id=28). This file shows the code to perform over-representation analysis and gene set enrichment analysis. The analyses are based on the `clusterProfiler` package:

```{r citation_clusterprofiler}
citation("clusterProfiler")
```


# Environment

We load packages of interest: 

```{r environment, warning=FALSE, message=FALSE}
library(clusterProfiler)  # Make enrichment analysis
library(enrichplot)       # Awesome graphs
library(org.At.tair.db)   # A. Thaliana annotation

.libPaths()
```

# Data

We load the data from the differential expression analysis.

```{r loaddata}
deseq_genes = read.table(
  file = "./tables/KOvsWT.complete.txt",
  sep = "\t",
  header = TRUE
)
```

We assess the dimensions of the data

```{r checkdata}
colnames(deseq_genes)

nrow(deseq_genes)

head(deseq_genes$Id)
```

We explore the data:

```{r AT1G61580}
deseq_genes[deseq_genes$Id == "gene:AT1G61580", ]
```

# Gene identifiers

For a computer, `gene:AT1G01010` is not `AT1G01010`. We fix identifiers for the computer:

```{r remove_genedot}
head(deseq_genes$Id)

deseq_genes$Id = sub(pattern = "gene:",
                     replacement = "",
                     x = deseq_genes$Id)

head(deseq_genes$Id)
```

# Gene symbol

For a human, `AT1G61580` is horrible to remember. We can add human-readable names. The latter are called "symbol".

```{r}
annotation = clusterProfiler::bitr(
  geneID   = deseq_genes$Id,          # Our gene list
  fromType = "TAIR",                  # We have TAIR ID
  toType   = c("ENTREZID", "SYMBOL"), # What we want
  OrgDb    = org.At.tair.db,          # Our annotation
  drop = FALSE
)

head(annotation)
dim(annotation)
```

We add the translation to the result table

```{r}
deseq_genes_with_symbol = merge(
  x = deseq_genes,
  y = annotation,
  by.x = "Id",   # In deseq_genes, TAIR IDs are stored in the Id column
  by.y = "TAIR"  # In annotation, TAIR IDs are stored in the TAIR column
)

dim(deseq_genes)
dim(deseq_genes_with_symbol)

head(deseq_genes_with_symbol[, c("Id", "SYMBOL", "ENTREZID")])
```

Adding symbol changes the number of dimensions of the table:

```{r compare}
dim(deseq_genes)
dim(deseq_genes_with_symbol)
```

We are going to use the original table, so we clean the annotation and annotated table:

```{r clean_annotation}
rm(annotation, deseq_genes_with_symbol)
```


# Over-representation analysis

We need to filter differentially expressed genes in order to perform ORA.

```{r select_de_genes}
dim(deseq_genes)

de_genes = deseq_genes[deseq_genes[, "padj"] <= 0.001, ]
de_genes = de_genes[!is.na(de_genes[, "log2FoldChange"]), ]
dim(de_genes)
```

## Cellular components

We perform the ORA using the gene ontology for cellular components:

```{r}
ego = clusterProfiler::enrichGO(
  gene = de_genes$Id,                # gene list
  universe = deseq_genes$Id,         # all genes
  OrgDb = org.At.tair.db,            # annotation
  keyType = "TAIR",                  # nature of the genes ID
  ont = "CC",                        # Cellular Components
  pvalueCutoff = 1,                  # significance threshold (take all)
  pAdjustMethod = "BH",              # p-value adjustment method
  readable = TRUE                    # For human beings
)

# View(ego)
```

How it looks like ?

```{r}
head(ego@result, 3)
```

We visualize results:

```{r, fig.width = 10, fig.height = 5}
graphics::barplot(ego,
                  showCategory = 15)

enrichplot::dotplot(ego,
                    showCategory = 15)
```
We search for enriched terms that related to roots.

```{r}
grep(ego@result$Description,
     pattern = "root",
     value = TRUE)
```

There is only one. What about the result regarding this gene set ?

```{r}
ego@result[ego@result$Description == "root hair", ]
```

## Biological processes

We perform the ORA using the gene ontology for biological processes:

```{r}
ego = clusterProfiler::enrichGO(
  gene = de_genes$Id,				      # gene list
  universe = deseq_genes$Id,			# all genes
  OrgDb = org.At.tair.db,		    	# annotation
  keyType = "TAIR",               # nature of the genes ID
  ont = "BP",	                    # Biological Processes
  pvalueCutoff = 1,               # significance threshold (take all)
  pAdjustMethod = "BH",           # p-value adjustment method
  readable = TRUE                 # For human beings
)
```

We visualize results:

```{r, fig.width = 10, fig.height = 5}
graphics::barplot(ego,
                  showCategory = 15)

enrichplot::dotplot(ego,
                    showCategory = 15)
```

Again, we search for enriched terms that related to roots.


```{r}
root_names = grep(ego@result$Description,
                  pattern = "root",
                  value = TRUE)
root_names
```

There are a lot ! What about the associated results ?

```{r}
ego@result[ego@result$Description %in% root_names, ]
```

We visualize the results as graphs:

```{r, fig.width = 10, fig.height = 5}
graphics::barplot(ego,
                  showCategory = root_names)

enrichplot::dotplot(ego,
                    showCategory = root_names)
```

# Gene set enrichment analysis

We need to build a named vector which contains sorted numbers. So, we explore results to guess the right column to extract:

```{r}
colnames(deseq_genes)
```

We choose to use the `stat` column

```{r}
geneList = as.numeric(de_genes$stat)
names(geneList) = de_genes$Id
geneList = sort(geneList, decreasing = TRUE)

head(geneList)
```

We perform the GSEA using the gene ontology for biological processes:

```{r message=FALSE, warning=FALSE}
gsea = clusterProfiler::gseGO(
  geneList = geneList,       # ranked gene list
  ont = "BP",                # Biological Processes
  OrgDb = org.At.tair.db,    # annotation
  keyType = "TAIR",          # nature of the genes ID
  pAdjustMethod = "BH",      # p-value adjustment method
  pvalueCutoff = 1,          # significance threshold (take all)
  seed = 1                   # fix randomness for permutations
)
```

We explore results:

```{r}
gsea@result %>%
  dplyr::filter(p.adjust < 0.05) %>%
  dplyr::top_n(., n = 8, wt = abs(NES)) %>%
  dplyr::select(Description, NES, p.adjust, setSize)
```

We still focus on root-related terms:

```{r}
root_names = grep(gsea@result$Description,
                  pattern = "root",
                  value = TRUE)
root_names
```

What are the significant results associated with these terms ?

```{r}
gsea@result %>%
  dplyr::filter(p.adjust < 0.05) %>%
  dplyr::filter(Description %in% root_names) %>%
  dplyr::top_n(., n = 8, wt = abs(NES)) %>%
  dplyr::select(Description, NES, p.adjust, setSize)
```
We want to visualize the GSEA curve associated with one of these terms:

```{r, fig.width = 8, fig.height = 5}
gene_set_name = "root hair cell differentiation"
gene_set_id = which(gsea@result$Description == gene_set_name)
gene_set_id

enrichplot::gseaplot2(
  x = gsea,
  geneSetID = gene_set_id,
  title = gene_set_name
)
```


# Bonus

In this section, we propose other ways to visualize the results from ORA (`ego` object) or GSEA (`gsea` object).

## Multiple GSEA curves

```{r, fig.width = 8, fig.height = 5}
enrichplot::gseaplot2(
  x = gsea,
  geneSetID = c(1:3),
  title = "Most enriched terms"
)
```

## Heatmap

```{r, fig.width = 10, fig.height = 4}
enrichplot::heatplot(
  x = ego,                         # Our ORA
  showCategory = root_names,       # Gene sets of interest
  foldChange = setNames(nm = de_genes$Id,
                        de_genes$log2FoldChange) # Our fold changes
)
```

## Upset plot

```{r, fig.width = 8, fig.height = 5}
ego = enrichplot::pairwise_termsim(ego)

enrichplot::upsetplot(x = ego,    # Our ORA
                      n = 10)     # Nb of terms to display
```

## Enrichment map

```{r, fig.width = 10, fig.height = 10}
enrichplot::emapplot(ego, showCategory = root_names)
```

## Gene-concept network

```{r, fig.width = 15, fig.height = 15}
enrichplot::cnetplot(ego,
                     showCategory = root_names,
                     foldChange = setNames(nm = de_genes$Id,
                                           de_genes$log2FoldChange))
```


# R Session

To be able to re-run the analysis or to understand why outputs are different between two compilations, it is important to display the version of the packages we used:

```{r sessioninfo}
sessionInfo()
```

