Description Usage Details Value Note Author(s) References See Also Examples
This library compares two specimens' classes, desease and healty, and it uses pathways to collect a specific genes' subset. Desease specimens are named case, healty ones are named control.
1 | diVaMo()
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No more details are needed.
comp1 |
Description of 'comp1' |
comp2 |
Description of 'comp2' |
No further notes needed.
Alessandro Ingrosso
~put references to the literature/web site here ~
~~objects to See Also as help
, ~~~
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100 101 102 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120 121 122 123 124 125 126 127 128 129 130 131 132 133 134 135 136 137 138 139 140 141 142 143 144 145 146 147 148 149 150 151 152 153 154 | ##---- Should be DIRECTLY executable !! ----
##-- ==> Define data, use random,
##-- or do help(data=index) for the standard data sets.
## The function is currently defined as
function ()
{
pathCampioni = "/Users/aingrosso/Dropbox/Progetti/IASI-CNR/Sviluppo/Input_Matrice_Campioni.csv"
pathPathways = "/Users/aingrosso/Dropbox/Progetti/IASI-CNR/Sviluppo/Input_Matrice_Pathways.csv"
idClasse = "Classe"
listaValoriClasse <- c("CASO", "CONTROLLO")
paramSoglia = 1.1
mCampioni = read.csv2(pathCampioni, row.names = 1, header = TRUE)
tableControlloR001 <- paste(mCampioni$Pathology, mCampioni$Classe,
sep = "_")
if (length(unique(tableControlloR001[duplicated(tableControlloR001)]))%%2 ==
0)
print("controllo superato")
else print("controllo non superato")
mPathways = read.csv2(pathPathways, row.names = 1, header = TRUE)
numPathology <- unique(mCampioni$Pathology)
pathways_Geni <- matrix(NA, nrow = (nrow(mPathways) * length(numPathology)),
ncol = ncol(mPathways) + 1, byrow = TRUE, dimnames = list(paste(labels(mPathways)[[1]],
numPathology, sep = "_"), append(labels(mPathways)[[2]],
"Pathology")))
pathways_Score <- matrix(NA, nrow = nrow(mPathways), ncol = length(numPathology),
byrow = TRUE, dimnames = list(labels(mPathways)[[1]],
numPathology))
pathways_Score <- cbind(pathways_Score, Size = NA)
for (i in 1:nrow(mPathways)) {
pathwayGenes <- character()
for (j in 1:ncol(mPathways)) {
if (mPathways[i, j] == 1)
pathwayGenes <- append(pathwayGenes, c(labels(mPathways)[[2]][j]))
}
for (j in 1:length(numPathology)) {
print(paste("Elaboro il Pathway", row.names(mPathways)[i],
"della patologia", numPathology[j], sep = " "))
keywordCaso = paste(numPathology[j], listaValoriClasse[1],
sep = "_")
keywordControllo = paste(numPathology[j], listaValoriClasse[2],
sep = "_")
nCasi = table(tableControlloR001 == keywordCaso)["TRUE"]
nControlli = table(tableControlloR001 == keywordControllo)["TRUE"]
nAB = nCasi * nControlli
matrice_Confronti <- array(NA, c(nAB, length(pathwayGenes)))
rigaCorrenteConfronto = 1
for (k in match(keywordCaso, tableControlloR001):(nCasi -
1 + match(keywordCaso, tableControlloR001))) {
for (n in match(keywordControllo, tableControlloR001):(nControlli -
1 + match(keywordControllo, tableControlloR001))) {
for (m in 1:length(pathwayGenes)) {
if (!is.null(mCampioni[k, pathwayGenes[m]])) {
if ((mCampioni[k, pathwayGenes[m]]/mCampioni[n,
pathwayGenes[m]]) > paramSoglia)
matrice_Confronti[rigaCorrenteConfronto,
m] = 1
else if ((mCampioni[n, pathwayGenes[m]]/mCampioni[k,
pathwayGenes[m]]) > paramSoglia)
matrice_Confronti[rigaCorrenteConfronto,
m] = -1
else matrice_Confronti[rigaCorrenteConfronto,
m] = 0
}
}
rigaCorrenteConfronto = rigaCorrenteConfronto +
1
}
}
contaUno <- integer()
contaMenoUno <- integer()
valEquilibrio <- integer()
valGood <- integer()
valContaGoodUno <- integer()
valContaGoodMenoUno <- integer()
for (k in 1:length(pathwayGenes)) {
if (is.na(table(matrice_Confronti[, k] == 1)["TRUE"]))
contaUno <- append(contaUno, 0)
else contaUno <- append(contaUno, table(matrice_Confronti[,
k] == 1)["TRUE"])
if (is.na(table(matrice_Confronti[, k] == -1)["TRUE"]))
contaMenoUno <- append(contaMenoUno, 0)
else {
contaMenoUno <- append(contaMenoUno, table(matrice_Confronti[,
k] == -1)["TRUE"])
}
if (contaUno[k] == 0)
valEquilibrio <- append(valEquilibrio, contaMenoUno[k])
else if (contaMenoUno[k] == 0)
valEquilibrio <- append(valEquilibrio, contaUno[k])
else valEquilibrio <- append(valEquilibrio, 0)
if ((contaUno[k] == 0) & (contaMenoUno[k] > 0))
valGood = append(valGood, -1)
else if ((contaUno[k] > 0) & (contaMenoUno[k] ==
0))
valGood = append(valGood, 1)
else valGood = append(valGood, 0)
}
matrice_Confronti_Good <- array(NA, c(nAB, length(pathwayGenes)))
for (k in 1:nrow(matrice_Confronti)) {
for (n in 1:ncol(matrice_Confronti)) {
if (!is.na(matrice_Confronti[k, n])) {
if ((matrice_Confronti[k, n] * valGood[n]) >
0)
matrice_Confronti_Good[k, n] = 1
else matrice_Confronti_Good[k, n] = 0
}
}
if (!is.na(table(matrice_Confronti_Good[k, ] ==
1)["TRUE"]))
valContaGoodUno = append(valContaGoodUno, table(matrice_Confronti_Good[k,
] == 1)["TRUE"])
else valContaGoodUno = append(valContaGoodUno,
0)
if (!is.na(table(matrice_Confronti_Good[k, ] ==
-1)["TRUE"]))
valContaGoodMenoUno = append(valContaGoodMenoUno,
table(matrice_Confronti_Good[k, ] == -1)["TRUE"])
else valContaGoodMenoUno = append(valContaGoodMenoUno,
0)
}
minGoodUno = min(valContaGoodUno)
minGoodMenoUno = min(valContaGoodMenoUno)
contaGoodZero = table(valContaGoodUno == 0)["TRUE"]
contaGoodMenoZero = table(valContaGoodMenoUno ==
0)["TRUE"]
maxEquilibrio = max(valEquilibrio)
alpha = max(minGoodUno, minGoodMenoUno)
if (minGoodUno > minGoodMenoUno)
nalpha = contaGoodZero
else if (minGoodMenoUno > minGoodUno)
nalpha = contaGoodMenoZero
else nalpha = min(contaGoodZero, contaGoodMenoZero)
for (k in 1:length(pathwayGenes)) {
pathways_Geni[paste(labels(mPathways)[[1]][i],
numPathology[j], sep = "_"), pathwayGenes[k]] = (max(abs(contaUno[k]),
contaMenoUno[k]))/nAB
}
pathways_Geni[paste(labels(mPathways)[[1]][i], numPathology[j],
sep = "_"), "Pathology"] = numPathology[j]
pathways_Score[i, j] = ((alpha * nAB) + (nAB - nalpha))/nAB
pathways_Score[i, "Size"] = length(pathwayGenes)
}
}
for (i in 1:length(numPathology)) {
pathways_Geni <- rbind(pathways_Geni, Totale = colSums(pathways_Geni[pathways_Geni[,
"Pathology"] == i, ], na.rm = TRUE))
pathways_Geni[nrow(pathways_Geni), "Pathology"] = numPathology[j]
}
pathways_Geni[order(pathways_Geni[, "Pathology"]), ]
write.csv2(pathways_Geni, "/Users/aingrosso/Dropbox/Progetti/IASI-CNR/Sviluppo/Matrice_Pathways_Geni.csv")
write.csv2(pathways_Score, "/Users/aingrosso/Dropbox/Progetti/IASI-CNR/Sviluppo/Matrice_Pathways_Score.csv")
print("finito")
}
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