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1 NAMEOFOUTPUTFILE<-"output1.csv"
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2 #this is the name of the file you will create
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3
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4
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5
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6 SuperAwesometrial <- read.delim2("input1.tabular", header=FALSE)
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7 #once you've used the other script to turn the FASFA into a CSV, copypaste the filepath and name
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8 #of the csv into this line between the quote marks.
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9
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10 SBF<-read.csv("input3.csv", stringsAsFactors = FALSE)
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11
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12
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13 PositiveMotifs <- read.csv("input2.csv", stringsAsFactors=FALSE)
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14 #because of R reasons, it is required that the motifs in this file have blank cells instead of spaces where there is no letter in
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15 #the motif
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16
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17 ################################################################################################################################
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18 #I have to paste them, then split and unlist them, then find the x and paste again
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19 Positive9Letters<-PositiveMotifs[,4:18]
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20 #head(Positive9Letters)
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21 PositiveTrueMotifs<-c()
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22
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23 AccessionNumbers<-SBF[,1]
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24 ALLPOSSIBLE<-SuperAwesometrial[,1]
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25 ALLPOSSIBLE<-as.character(ALLPOSSIBLE)
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26 ################################################################################################################################
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27
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28 for (q in 1:nrow(Positive9Letters)) {
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29 LeftJust<-0
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30 RightJust<-0
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31
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32 motifmotif<-Positive9Letters[q,]
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33 motifmotif<-paste(motifmotif, collapse = "",sep = "")
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34
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35 motifmotif<-unlist(strsplit(motifmotif, split = ""))
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36
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37 position <- match(x = "x", table = motifmotif)
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38 LeftJust<-position-1
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39 RightJust<-length(motifmotif)-position-1
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40
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41 LeftSpaces<-rep(x=" ", times=(7-LeftJust))
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42 RightSpaces<-rep(x=" ", times=(7-RightJust))
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43
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44 motifmotif<-motifmotif[!motifmotif %in% c("x")]
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45
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46 motifmotif<-c(LeftSpaces,motifmotif,RightSpaces)
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47 motifmotif<-paste(motifmotif, collapse = "",sep = "")
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48 PositiveTrueMotifs<-c(PositiveTrueMotifs,motifmotif)
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49 }
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50
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51
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52 ################################################################################################################################
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53 allmotifs<-matrix(data=c("Motifs"),nrow=1)
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54 thenames<-matrix(data=c("AccessionNumbers"),nrow = 1)
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55 ################################################################################################################################
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56
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57 ################################################################################################################################
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58
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59 #TrueMotifNums<-which(ALLPOSSIBLE %in% AccessionNumbers)
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60 #fihlodeANs<-c()
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61 for (q in 1:length(AccessionNumbers)) {
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62 patterno<-AccessionNumbers[q]
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63 location<-sapply(ALLPOSSIBLE, grepl, pattern=patterno, fixed=TRUE)
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64 if (sum(location)>0){
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65 whereisit<-which(location %in% TRUE)
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66 for (u in 1:length(whereisit)) {
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67 i<-whereisit[u]
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68 name<-c()
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69 data<-c()
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70 name<-as.character(SuperAwesometrial[i,1])
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71 #the name of each protein is the first column
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72 name<-sub(x=name, pattern=",", replacement="")
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73 #the names may contain commas, remove them
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74 data<-as.character(SuperAwesometrial[i,3])
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75 #the amino acids are stored in the third column
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76 data<-strsplit(data,"")
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77 #split them into their component letters
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78 data<-unlist(data)
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79 #turn them into a vector
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80 motif<-c()
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81 for (j in 1:length(data)){
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82 if ("Y" %in% data[j]){
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83 #if there is a Y aka Tyrosine in the data
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84 #allmotifs=rbind(allmotifs,data[(i-4):(i+4)])
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85 a<-j-7
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86 if (a<1){
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87 a<-1
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88 }
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89 b<-j+7
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90 if (b>length(data)){
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91 b<-length(data)
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92 }
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93 #take the motif that is +/- 4 from that Y, sanity checks so that values are never off the grid from the protein
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94
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95 LeftSide<-7-(j-a)
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96 RightSide<-7-(b-j)
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97 #how is the motif justified? Does it have exactly 4 letters to the left/right, or does it not?
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98
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99 leftspaces<-rep(" ",times=LeftSide)
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100 rightspaces<-rep(" ",times=RightSide)
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101 #add blank spaces if the motif has less than 4 letters to the left/right
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102
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103
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104 motif<-(data[(a):(b)])
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105 motif<-c(leftspaces,motif,rightspaces)
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106 #save that motif, which is the Y and +/- 4 amino acids, including truncation
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107
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108 # lens<-c(lens,length(motif))
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109 # leni<-c(leni,i)
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110 # lenj<-c(lenj,j)
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111
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112 motif<-paste(motif, sep="", collapse="")
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113 #the 4 amino acids, put them back together into a single string
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114 motif<-matrix(data=c(motif),nrow = 1)
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115 namesss<-matrix(data=c(name),nrow = 1)
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116 #keep this motif and separately keep the name of the protein it came from
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117 allmotifs<-rbind(allmotifs,motif)
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118 thenames<-rbind(thenames,namesss)
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119 #add names and motifs to a growing list
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120
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121 # write.table(motif, file="TRIALTIALRIAALSKFDJSD.csv", quote=FALSE, sep=",",
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122 # row.names=FALSE,col.names = FALSE, na="", append=TRUE)
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123 #and then write it into a csv, the sep is needed so that the two pieces of the data frame are separated
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124 #append has 1to equal true because this thing will loop around many times adding more and more data points
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125 #you must create a new filename/filepath with each new data you run
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126 }
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127 }
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128 }
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129 }
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130 }
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131
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132
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133
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134
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135 ################################################################################################################################
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136 ################################################################################################################################
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137 ################################################################################################################################
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138
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139
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140 # for (i in 1:nrow(SuperAwesometrial)){
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141 #
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142 # }
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143
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144 names(allmotifs)<-thenames
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145
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146 truemotifs<-allmotifs[!duplicated(allmotifs)]
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147 #truenames<-thenames[!duplicated(thenames)]
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148 #remove duplicates from the motifs and names
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149
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150 #make the motifs and names into matrices
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151
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152 # for (w in 1:nrow(truemotifs)) {
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153 # for (e in 1:length(PositiveTrueMotifs)){
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154 # if (grepl(pattern=PositiveTrueMotifs[e], x=truemotifs[w,1],ignore.case = TRUE)==TRUE){
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155 # truemotifs[w,1]<-NA
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156 # }
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157 # }
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158 # }
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159
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160 truemotifs<-truemotifs[!truemotifs %in% PositiveTrueMotifs]
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161
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162 # truemotifs<-matrix(data = truemotifs,ncol = 1)
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163 # truenames<-matrix(data=truenames,ncol = 1)
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164 #
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165 #
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166 # #program only works if there are more motifs than names, fuck it
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167 #
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168 # rowsrows<-nrow(truemotifs)-nrow(truenames)
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169 # nanas<-rep(NA,times=rowsrows)
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170 # nanas<-matrix(data = nanas,ncol = 1)
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171 # truenames<-rbind(truenames,nanas)
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172 # #to turn the motifs and names into a single output matrix, add enough rows of NAs so the two initial matrices are equivalent,
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173 # #then put them together columnwise
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174
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175 outputfile<-cbind(names(truemotifs),truemotifs)
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176
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177 outputfile <- gsub(",","",outputfile)
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178
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179 write.table(outputfile, file=NAMEOFOUTPUTFILE, quote=FALSE, sep=",",
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180 row.names=FALSE,col.names = FALSE, na="", append=TRUE)
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