Mercurial > repos > prog > lcmsmatching
view msdb-common.R @ 2:20d69a062da3 draft
planemo upload for repository https://github.com/workflow4metabolomics/lcmsmatching.git commit d4048accde6bdfd5b3e14f5394902d38991854f8
author | prog |
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date | Thu, 02 Mar 2017 08:55:00 -0500 |
parents | e66bb061af06 |
children | fb9c0409d85c |
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if ( ! exists('.parse_chrom_col_desc')) { # Do not load again if already loaded library('stringr') source('strhlp.R', chdir = TRUE) source('biodb-common.R', chdir = TRUE) ############# # CONSTANTS # ############# # Field tags MSDB.TAG.MZ <- BIODB.PEAK.MZ MSDB.TAG.MZEXP <- BIODB.PEAK.MZEXP MSDB.TAG.MZTHEO <- BIODB.PEAK.MZTHEO MSDB.TAG.RT <- BIODB.PEAK.RT MSDB.TAG.MODE <- BIODB.MSMODE MSDB.TAG.MOLID <- BIODB.COMPOUND.ID MSDB.TAG.COL <- BIODB.CHROM.COL MSDB.TAG.COLRT <- BIODB.CHROM.COL.RT MSDB.TAG.ATTR <- BIODB.PEAK.ATTR MSDB.TAG.INT <- BIODB.PEAK.INTENSITY MSDB.TAG.REL <- BIODB.PEAK.RELATIVE.INTENSITY MSDB.TAG.COMP <- BIODB.PEAK.COMP MSDB.TAG.MOLNAMES <- BIODB.FULLNAMES MSDB.TAG.MOLCOMP <- BIODB.COMPOUND.MASS # MSDB.TAG.MOLATTR <- 'molattr' MSDB.TAG.MOLMASS <- BIODB.COMPOUND.COMP MSDB.TAG.INCHI <- BIODB.INCHI MSDB.TAG.INCHIKEY <- BIODB.INCHIKEY # TODO Use BIODB tags. MSDB.TAG.PUBCHEM <- BIODB.PUBCHEMCOMP.ID MSDB.TAG.CHEBI <- BIODB.CHEBI.ID MSDB.TAG.HMDB <- BIODB.HMDB.ID MSDB.TAG.KEGG <- BIODB.KEGG.ID # Mode tags MSDB.TAG.POS <- BIODB.MSMODE.NEG MSDB.TAG.NEG <- BIODB.MSMODE.POS # Fields containing multiple values MSDB.MULTIVAL.FIELDS <- c(MSDB.TAG.MOLNAMES) MSDB.MULTIVAL.FIELD.SEP <- ';' # Authorized mz tolerance unit values MSDB.MZTOLUNIT.PPM <- 'ppm' MSDB.MZTOLUNIT.PLAIN <- 'plain' # same as mz: mass-to-charge ratio MSDB.MZTOLUNIT.VALS <- c(MSDB.MZTOLUNIT.PPM, MSDB.MZTOLUNIT.PLAIN) # Default values MSDB.DFT.PREC <- list() MSDB.DFT.PREC[[MSDB.TAG.POS]] <- c("[(M+H)]+", "[M+H]+", "[(M+Na)]+", "[M+Na]+", "[(M+K)]+", "[M+K]+") MSDB.DFT.PREC[[MSDB.TAG.NEG]] <- c("[(M-H)]-", "[M-H]-", "[(M+Cl)]-", "[M+Cl]-") MSDB.DFT.OUTPUT.FIELDS <- list( mz = 'mz', rt = 'rt', col = 'col', colrt = 'colrt', molid = 'id', attr = 'attribution', comp = 'composition', int = 'intensity', rel = 'relative', mzexp = 'mzexp', mztheo = 'mztheo', msmatching = 'msmatching', molnames = 'molnames', molcomp = 'molcomp', molmass = 'molmass', inchi = 'inchi', inchikey = 'inchikey', pubchem = 'pubchem', chebi = 'chebi', hmdb = 'hmdb', kegg = 'kegg') MSDB.DFT.OUTPUT.MULTIVAL.FIELD.SEP <- MSDB.MULTIVAL.FIELD.SEP MSDB.DFT.MATCH.FIELDS <- list( molids = 'molid', molnames = 'molnames') MSDB.DFT.MATCH.SEP <- ',' MSDB.DFT.MODES <- list( pos = 'POS', neg = 'NEG') MSDB.DFT.MZTOLUNIT <- MSDB.MZTOLUNIT.PPM ############################ # GET DEFAULT INPUT FIELDS # ############################ msdb.get.dft.input.fields <- function () { dft.fields <- list() for(f in c(MSDB.TAG.MZ, MSDB.TAG.RT)) dft.fields[[f]] <- f return(dft.fields) } ############################# # GET DEFAULT OUTPUT FIELDS # ############################# msdb.get.dft.output.fields <- function () { dft.fields <- list() for(f in c(MSDB.TAG.MZ, MSDB.TAG.RT, MSDB.TAG.COL, MSDB.TAG.COLRT, MSDB.TAG.MOLID, MSDB.TAG.ATTR, MSDB.TAG.COMP, MSDB.TAG.INT, MSDB.TAG.REL, MSDB.TAG.MZEXP, MSDB.TAG.MZTHEO, MSDB.TAG.MOLNAMES, MSDB.TAG.MOLCOMP, MSDB.TAG.MOLMASS, MSDB.TAG.INCHI, MSDB.TAG.INCHIKEY, MSDB.TAG.PUBCHEM, MSDB.TAG.CHEBI, MSDB.TAG.HMDB, MSDB.TAG.KEGG)) dft.fields[[f]] <- f return(dft.fields) } ######################### # GET DEFAULT DB FIELDS # ######################### msdb.get.dft.db.fields <- function () { dft.fields <- list() for (f in c(MSDB.TAG.MZTHEO, MSDB.TAG.COLRT, MSDB.TAG.MOLID, MSDB.TAG.COL, MSDB.TAG.MODE, MSDB.TAG.ATTR, MSDB.TAG.COMP, MSDB.TAG.MOLNAMES, MSDB.TAG.MOLCOMP, MSDB.TAG.MOLMASS, MSDB.TAG.INCHI, MSDB.TAG.INCHIKEY, MSDB.TAG.PUBCHEM, MSDB.TAG.CHEBI, MSDB.TAG.HMDB, MSDB.TAG.KEGG)) dft.fields[[f]] <- f return(dft.fields) } ################## # MAKE DB FIELDS # ################## msdb.make.db.fields <- function(fields) { # Merge with default fields dft.fields <- msdb.get.dft.db.fields() absent <- ! names(dft.fields) %in% names(fields) if (length(absent) > 0) fields <- c(fields, dft.fields[absent]) return(fields) } ######################### # MAKE INPUT DATA FRAME # ######################### msdb.make.input.df <- function(mz, rt = NULL) { field <- msdb.get.dft.input.fields() x <- data.frame() # Set mz if (length(mz) > 1) x[seq(mz), field[[MSDB.TAG.MZ]]] <- mz else if (length(mz) == 1) x[1, field[[MSDB.TAG.MZ]]] <- mz else x[, field[[MSDB.TAG.MZ]]] <- numeric() # Set rt if ( ! is.null(rt)) { if (length(rt) > 1) x[seq(rt), field[[MSDB.TAG.RT]]] <- rt else if (length(rt) == 1) x[1, field[[MSDB.TAG.RT]]] <- rt else x[, field[[MSDB.TAG.RT]]] <- numeric() } return(x) } ############################### # GET EMPTY RESULT DATA FRAME # ############################### .get.empty.result.df <- function(rt = FALSE) { df <- data.frame(stringsAsFactors = FALSE) df[MSDB.TAG.MOLID] <- character() df[MSDB.TAG.MOLNAMES] <- character() df[MSDB.TAG.MZ] <- numeric() df[MSDB.TAG.MZTHEO] <- numeric() df[MSDB.TAG.ATTR] <- character() df[MSDB.TAG.COMP] <- character() if (rt) { df[MSDB.TAG.RT] <- numeric() df[MSDB.TAG.COL] <- character() df[MSDB.TAG.COLRT] <- numeric() } return(df) } ############################ # PARSE COLUMN DESCRIPTION # ############################ .parse_chrom_col_desc <- function(desc) { # Clean string s <- desc s <- gsub('\\.+', ' ', s, perl = TRUE) # Replace '.' characters by spaces s <- gsub('[*-]', ' ', s, perl = TRUE) # Replace dashes and asterisks by spaces s <- gsub('[)(]', '', s, perl = TRUE) # Remove paranthesis s <- trim(s) s <- tolower(s) # put in lowercase # Match 2 3 4 5 6 7 8 9 10 1112 13 pattern <- "^(uplc|hsf5|hplc|zicphilic)( (c8|c18|150 5 2 1))?( (\\d+)mn)?( (orbitrap|exactive|qtof|shimadzu exactive))?( (\\d+)mn)?( (bis|ter))?( 1)?$" g <- str_match(s, pattern) if (is.na(g[1, 1])) stop(paste0("Impossible to parse column description \"", desc, "\".")) type <- g[1, 2] stationary_phase <- if ( ! is.na(g[1, 4]) && nchar(g[1, 4]) > 0) g[1, 4] else NA_character_ msdevice <- if ( ! is.na(g[1, 8]) && nchar(g[1, 8]) > 0) g[1, 8] else NA_character_ time <- if ( ! is.na(g[1,6]) && nchar(g[1, 6]) > 0) as.integer(g[1, 6]) else ( if ( ! is.na(g[1, 10]) && nchar(g[1, 10]) > 0) as.integer(g[1, 10]) else NA_integer_ ) # Correct values if ( ! is.na(stationary_phase) && stationary_phase == '150 5 2 1') stationary_phase <- '150*5*2.1' if ( ! is.na(msdevice)) msdevice <- gsub(' ', '', msdevice) # remove spaces return(list( type = type, stationary_phase = stationary_phase, time = time, msdevice = msdevice)) } ######################### # NORMALIZE COLUMN NAME # ######################### .normalize_column_name <- function(desc) { lst <- .parse_chrom_col_desc(desc) v <- c(lst$type) if ( ! is.na(lst$stationary_phase)) v <- c(v, lst$stationary_phase) if ( ! is.na(lst$time)) v <- c(v, paste0(lst$time, "min")) if ( ! is.na(lst$msdevice)) v <- c(v, lst$msdevice) return(paste(v, collapse = '-')) } } # end of load safe guard