Bio::SeqIO
swiss
Summary
Bio::SeqIO::swiss - Swissprot sequence input/output stream
Package variables
Privates (from "my" definitions)
$seq = $self->sequence_factory->create (-verbose => $self->verbose, %params, -seq => $seqc, -desc => $desc, -features =>\@ features, -annotation => $annotation, )
$ftunit = $self->_read_FTHelper_swissprot($_)
@accs = split(/[; ]+/, $1)
($database,$primaryid,$optional,$comment) = ($1,$2,$3,$4)
$dblinkobj =
Bio::Annotation::DBLink->
new (-database =>
$database, -primary_id =>
$primaryid, -optional_id =>
$optional, -comment =>
$comment,
)
($junk, $division) = split q(_), $name
$species = $self->_read_swissprot_Species($_)
$refs = $self->_read_swissprot_References($_)
$line = $1
$update =
Bio::Annotation::SimpleValue->
new( -tagname =>
'seq_update', -value =>
$1 )
@kw = split(/\s*\;\s*/,$1)
($date, $version) = split(' ', $line, 2)
$j = 0
Included modules
Inherit
Synopsis
It is probably best not to use this object directly, but
rather go through the SeqIO handler system:
use Bio::SeqIO;
$stream = Bio::SeqIO->new(-file => $filename,
-format => 'swiss');
while ( my $seq = $stream->next_seq() ) {
# do something with $seq
}
Description
This object can transform Bio::Seq objects to and from Swissprot flat
file databases.
There is a lot of flexibility here about how to dump things which needs
to be documented.
_show_dna()
(output only) shows the dna or not
_post_sort()
(output only) provides a sorting func which is applied to the FTHelpers
before printing
_id_generation_func()
This is function which is called as
print "ID ", $func($seq), "\n";
To generate the ID line. If it is not there, it generates a sensible ID
line using a number of tools.
If you want to output annotations in Swissprot format they need to be
stored in a Bio::Annotation::Collection object which is accessible
through the Bio::SeqI interface method
annotation().
The following are the names of the keys which are polled from a
Bio::Annotation::Collection object.
reference - Should contain Bio::Annotation::Reference objects
comment - Should contain Bio::Annotation::Comment objects
dblink - Should contain Bio::Annotation::DBLink objects
gene_name - Should contain Bio::Annotation::SimpleValue object
Methods
Methods description
Title : next_seq Usage : $seq = $stream->next_seq() Function: returns the next sequence in the stream Returns : Bio::Seq object Args : |
Title : write_seq Usage : $stream->write_seq($seq) Function: writes the $seq object (must be seq) to the stream Returns : 1 for success and 0 for error Args : array of 1 to n Bio::SeqI objects |
Title : _generateCRCTable Usage : Function: Example : Returns : Args : |
Title : _crc32 Usage : Function: Example : Returns : Args : |
Title : _crc64 Usage : Function: Example : Returns : Args : |
Title : _print_swissprot_FTHelper Usage : Function: Example : Returns : Args : |
Title : _read_swissprot_References Usage : Function: Reads references from swissprot format. Internal function really Example : Returns : Args : |
Title : _read_swissprot_Species Usage : Function: Reads the swissprot Organism species and classification lines. Able to deal with unconventional species names. Example : OS Unknown prokaryotic organism $genus = undef ; $species = Unknown prokaryotic organism Returns : A Bio::Species object Args : |
Title : _read_FTHelper_swissprot Usage : _read_FTHelper_swissprot(\$buffer) Function: reads the next FT key line Example : Returns : Bio::SeqIO::FTHelper object Args : |
Title : _write_line_swissprot Usage : Function: internal function Example : Returns : Args : |
Title : _write_line_swissprot_regex Usage : Function: internal function for writing lines of specified length, with different first and the next line left hand headers and split at specific points in the text Example : Returns : nothing Args : file handle, first header, second header, text-line, regex for line breaks, total line length |
Title : _post_sort Usage : $obj->_post_sort($newval) Function: Returns : value of _post_sort Args : newvalue (optional) |
Title : _show_dna Usage : $obj->_show_dna($newval) Function: Returns : value of _show_dna Args : newvalue (optional) |
Title : _id_generation_func Usage : $obj->_id_generation_func($newval) Function: Returns : value of _id_generation_func Args : newvalue (optional) |
Title : _ac_generation_func Usage : $obj->_ac_generation_func($newval) Function: Returns : value of _ac_generation_func Args : newvalue (optional) |
Title : _sv_generation_func Usage : $obj->_sv_generation_func($newval) Function: Returns : value of _sv_generation_func Args : newvalue (optional) |
Title : _kw_generation_func Usage : $obj->_kw_generation_func($newval) Function: Returns : value of _kw_generation_func Args : newvalue (optional) |
Methods code
sub _initialize
{ my($self,@args) = @_;
$self->SUPER::_initialize(@args);
$self->{'_func_ftunit_hash'} = {};
$self->_show_dna(1); if( ! defined $self->sequence_factory ) {
$self->sequence_factory(new Bio::Seq::SeqFactory
(-verbose => $self->verbose(),
-type => 'Bio::Seq::RichSeq'));
} } |
sub next_seq
{ my ($self,@args) = @_;
my ($pseq,$c,$line,$name,$desc,$acc,$seqc,$mol,$div, $sptr,$seq_div,
$date,$comment,@date_arr);
my $genename = "";
my ($annotation, %params, @features) = ( new Bio::Annotation::Collection);
local $_;
while( defined($_ = $self->_readline) && /^\s+$/ ) {
}
return unless defined $_ && /^ID\s/;
unless( m{^ ID \s+ # (\S+) \s+ # $1 entryname ([^\s;]+); \s+ # $2 DataClass (?:PRT;)? \s+ # Molecule Type (optional) [0-9]+[ ]AA \. # Sequencelength (capture?) $ }ox ) {
$self->throw("swissprot stream with no ID. Not swissprot in my book");} |
sub write_seq
{ my ($self,@seqs) = @_;
foreach my $seq ( @seqs ) {
$self->throw("Attempting to write with no seq!") unless defined $seq;
if( ! ref $seq || ! $seq->isa('Bio::SeqI') ) {
$self->warn(" $seq is not a SeqI compliant module. Attempting to dump, but may fail!");
}
my $i;
my $str = $seq->seq;
my $div;
my $ns = ($seq->can('namespace')) && $seq->namespace();
my $len = $seq->length();
if ( !$seq->can('division') || ! defined ($div = $seq->division()) ) {
$div = 'UNK';
}
if (defined($ns)) {
$div = ($ns eq 'Swiss-Prot') ? 'Reviewed' :
($ns eq 'TrEMBL') ? 'Unreviewed' :
$ns;
} else {
$ns = 'Swiss-Prot';
}
$self->warn("No whitespace allowed in SWISS-PROT display id [". $seq->display_id. "]")
if $seq->display_id =~ /\s/;
my $temp_line;
if( $self->_id_generation_func ) {
$temp_line = &{$self->_id_generation_func}($seq);
} else {
$temp_line = sprintf ("%-24s%-12s%9d AA.",
$seq->display_id(), $div.';', $len);
}
$self->_print( "ID $temp_line\n");
local($^W) = 0;
if( $self->_ac_generation_func ) {
$temp_line = &{$self->_ac_generation_func}($seq);
$self->_print( "AC $temp_line\n");
} else {
if ($seq->can('accession_number') ) {
$self->_print("AC ",$seq->accession_number,";");
if ($seq->can('get_secondary_accessions') ) {
foreach my $sacc ($seq->get_secondary_accessions) {
$self->_print(" ",$sacc,";");
}
$self->_print("\n");
}
else {
$self->_print("\n");
}
}
}
if( $seq->can('get_dates') ) {
my @dates = $seq->get_dates();
my $ct = 1;
my $seq_version = $seq->version;
my ($update_version) = $seq->get_Annotations("seq_update");
foreach my $dt (@dates){
$self->_write_line_swissprot_regex("DT ","DT ",
$dt.', integrated into UniProtKB/'.$ns,
"\\s\+\|\$",80) if $ct == 1;
$self->_write_line_swissprot_regex("DT ","DT ",
$dt.", sequence version $update_version.",
"\\s\+\|\$",80) if $ct == 2;
$self->_write_line_swissprot_regex("DT ","DT ",
$dt.", entry version $seq_version.",
"\\s\+\|\$",80) if $ct == 3;
$ct++;
}
}
$self->_write_line_swissprot_regex("DE ","DE ",$seq->desc(),"\\s\+\|\$",80);
if ((my @genes = $seq->annotation->get_Annotations('gene_name') ) ) {
$self->_print("GN ",
join(' OR ',
map {
$_->isa("Bio::Annotation::StructuredValue") ?
$_->value(-joins => [" AND ", " OR "]) :
$_->value();
} @genes),
".\n");
}
if ($seq->can('species') && (my $spec = $seq->species)) {
my @class = $spec->classification();
shift(@class);
my $species = $spec->species;
my $genus = $spec->genus;
my $OS = $spec->scientific_name;
if ($class[-1] =~ /viruses/i) {
$OS = $species;
$OS .= " ". $spec->sub_species if $spec->sub_species;
}
foreach (($spec->variant, $spec->common_name)) {
$OS .= " ($_)" if $_;
}
$self->_print( "OS $OS.\n");
my $OC = join('; ', reverse(@class)) .'.';
$self->_write_line_swissprot_regex("OC ","OC ",$OC,"\;\|\$ ",80);
if ($spec->organelle) {
$self->_write_line_swissprot_regex("OG ","OG ",$spec->organelle,"\;\|\$ ",80);
}
if ($spec->ncbi_taxid) {
$self->_print("OX NCBI_TaxID=".$spec->ncbi_taxid.";\n");
}
}
my $t = 1;
foreach my $ref ( $seq->annotation->get_Annotations('reference') ) {
$self->_print( "RN [$t]\n");
if ($ref->rp) {
$self->_write_line_swissprot_regex("RP ","RP ",$ref->rp,
"\\s\+\|\$",80);
}
if ($ref->comment) {
$self->_write_line_swissprot_regex("RC ","RC ",$ref->comment,
"\\s\+\|\$",80);
}
if ($ref->medline) {
if ($ref->pubmed) {
$self->_write_line_swissprot_regex("RX ","RX ",
"MEDLINE=".$ref->medline.
"; PubMed=".$ref->pubmed.";",
"\\s\+\|\$",80);
} else {
$self->_write_line_swissprot_regex("RX MEDLINE; ","RX MEDLINE; ",
$ref->medline.".","\\s\+\|\$",80);
}
}
my $author = $ref->authors .';' if($ref->authors);
my $title = $ref->title .';' if( $ref->title);
my $rg = $ref->rg . ';' if $ref->rg;
$self->_write_line_swissprot_regex("RG ","RG ",$rg,"\\s\+\|\$",80) if $rg;
$self->_write_line_swissprot_regex("RA ","RA ",$author,"\\s\+\|\$",80) if $author;
$self->_write_line_swissprot_regex("RT ","RT ",$title,"\\s\+\|\$",80) if $title;
$self->_write_line_swissprot_regex("RL ","RL ",$ref->location,"\\s\+\|\$",80);
$t++;
}
foreach my $comment ( $seq->annotation->get_Annotations('comment') ) {
foreach my $cline (split ("\n", $comment->text)) {
while (length $cline > 74) {
$self->_print("CC ",(substr $cline,0,74),"\n");
$cline = substr $cline,74;
}
$self->_print("CC ",$cline,"\n");
}
}
foreach my $dblink ( $seq->annotation->get_Annotations('dblink') )
{
my ($primary_id) = $dblink->primary_id;
if (defined($dblink->comment) && ($dblink->comment) ) {
$self->_print("DR ",$dblink->database,"; ",$primary_id,"; ",
$dblink->optional_id,"; ",$dblink->comment,".\n");
} elsif($dblink->optional_id) {
$self->_print("DR ",$dblink->database,"; ",
$primary_id,"; ",
$dblink->optional_id,".\n");
}
else {
$self->_print("DR ",$dblink->database,
"; ",$primary_id,"; ","-.\n");
}
}
{
my( $kw );
if( my $func = $self->_kw_generation_func ) {
$kw = &{$func}($seq);
} elsif( $seq->can('keywords') ) {
$kw = $seq->keywords;
if( ref($kw) =~ /ARRAY/i ) {
$kw = join("; ", @$kw);
}
$kw .= '.' if( $kw !~ /\.$/ );
}
$self->_write_line_swissprot_regex("KW ","KW ",
$kw, "\\s\+\|\$",80);
}
my @feats = $seq->can('top_SeqFeatures') ? $seq->top_SeqFeatures : ();
if ($feats[0]) {
if( defined $self->_post_sort ) {
my $post_sort_func = $self->_post_sort();
my @fth;
foreach my $sf ( @feats ) {
push(@fth,Bio::SeqIO::FTHelper::from_SeqFeature($sf,$seq));
}
@fth = sort { &$post_sort_func($a,$b) } @fth;
foreach my $fth ( @fth ) {
$self->_print_swissprot_FTHelper($fth);
}
} else {
foreach my $sf ( @feats ) {
my @fth = Bio::SeqIO::FTHelper::from_SeqFeature($sf,$seq);
foreach my $fth ( @fth ) {
if( ! $fth->isa('Bio::SeqIO::FTHelper') ) {
$sf->throw("Cannot process FTHelper... $fth");
}
$self->_print_swissprot_FTHelper($fth);
}
}
}
if( $self->_show_dna() == 0 ) {
return;
}
}
my $mw = ${Bio::Tools::SeqStats->get_mol_wt($seq->primary_seq)}[0];
my $crc64 = $self->_crc64(\$str);
$self->_print( sprintf("SQ SEQUENCE %4d AA; %d MW; %16s CRC64;\n",
$len,$mw,$crc64));
$self->_print( " ");
my $linepos;
for ($i = 0; $i < length($str); $i += 10) {
$self->_print( substr($str,$i,10), " ");
$linepos += 11;
if( ($i+10)%60 == 0 && (($i+10) < length($str))) {
$self->_print( "\n ");
}
}
$self->_print( "\n//\n");
$self->flush if $self->_flush_on_write && defined $self->_fh;
return 1;
}} |
sub _generateCRCTable
{ my $poly = 0xEDB88320;
my ($self) = shift;
$self->{'_crcTable'} = [];
foreach my $i (0..255) {
my $crc = $i;
for (my $j=8; $j > 0; $j--) {
if ($crc & 1) {
$crc = ($crc >> 1) ^ $poly;
}
else {
$crc >>= 1;
}
}
${$self->{'_crcTable'}}[$i] = $crc;
} } |
sub _crc32
{ my( $self, $str ) = @_;
$self->throw("Argument to crc32() must be ref to scalar")
unless ref($str) eq 'SCALAR';
$self->_generateCRCTable() unless exists $self->{'_crcTable'};
my $len = length($$str);
my $crc = 0xFFFFFFFF;
for (my $i = 0; $i < $len; $i++) {
my $int = ord uc substr $$str, $i, 1;
$crc = (($crc >> 8) & 0x00FFFFFF) ^
${$self->{'_crcTable'}}[ ($crc ^ $int) & 0xFF ];
}
return $crc;} |
sub _crc64
{ my ($self, $sequence) = @_;
my $POLY64REVh = 0xd8000000;
my @CRCTableh = 256;
my @CRCTablel = 256;
my $initialized;
my $seq = $$sequence;
my $crcl = 0;
my $crch = 0;
if (!$initialized) {
$initialized = 1;
for (my $i=0; $i<256; $i++) {
my $partl = $i;
my $parth = 0;
for (my $j=0; $j<8; $j++) {
my $rflag = $partl & 1;
$partl >>= 1;
$partl |= (1 << 31) if $parth & 1;
$parth >>= 1;
$parth ^= $POLY64REVh if $rflag;
}
$CRCTableh[$i] = $parth;
$CRCTablel[$i] = $partl;
}
}
foreach (split '', $seq) {
my $shr = ($crch & 0xFF) << 24 my $temp1h = $crch >> 8; my $temp1l = ($crcl >> 8) | $shr; my $tableindex = ($crcl ^ (unpack "C", $_)) & 0xFF; $crch = $temp1h ^ $CRCTableh[$tableindex]; $crcl = $temp1l ^ $CRCTablel[$tableindex]; } my $crc64 = sprintf("%08X%08X", $crch, $crcl); return $crc64;
} |
sub _print_swissprot_FTHelper
{ my ($self,$fth,$always_quote) = @_;
$always_quote ||= 0;
my ($start,$end) = ('?', '?');
if( ! ref $fth || ! $fth->isa('Bio::SeqIO::FTHelper') ) {
$fth->warn("$fth is not a FTHelper class. ".
"Attempting to print, but there could be tears!");
}
my $desc = "";
for my $tag ( qw(description gene note product) ) {
if( exists $fth->field->{$tag} ) {
$desc = @{$fth->field->{$tag}}[0].".";
last;
}
}
$desc =~ s/\.$//;
my $key =substr($fth->key,0,8);
my $loc = $fth->loc;
if( $loc =~ /(\?|\d+|\>\d+|<\d+)?\.\.(\?|\d+|<\d+|>\d+)?/ ) {
$start = $1 if defined $1;
$end = $2 if defined $2;
} elsif ( $loc =~ /join\((\d+)((?:,\d+)+)?\)/) {
my @y = ($1);
if( defined( my $m = $2) ) {
$m =~ s/^\,//;
push @y, split(/,/,$m);
}
for my $x ( @y ) {
$self->_write_line_swissprot_regex(
sprintf("FT %-8s %6s %6s ",
$key,
$x ,$x),
"FT ",
$desc.'.','\s+|$',80);
}
return;
} else {
$start = $end = $fth->loc;
}
$self->_write_line_swissprot_regex(sprintf("FT %-8s %6s %6s ",
$key,
$start ,$end),
"FT ",
$desc.'.','\s+|$',80);} |
sub _read_swissprot_References
{ my ($self,$line) = @_;
my ($b1, $b2, $rp, $rg, $title, $loc, $au, $med, $com, $pubmed);
my @refs;
local $_ = $line;
while( defined $_ ) {
if( /^[^R]/ || /^RN/ ) {
if( $rp ) {
$rg =~ s/;\s*$//g if defined($rg);
if (defined($au)) {
$au =~ s/;\s*$//;
} else {
$au = $rg;
}
$title =~ s/;\s*$//g if defined($title);
push @refs, Bio::Annotation::Reference->new(-title => $title,
-start => $b1,
-end => $b2,
-authors => $au,
-location=> $loc,
-medline => $med,
-pubmed => $pubmed,
-comment => $com,
-rp => $rp,
-rg => $rg);
$rp = '';
}
if (index($_,'R') != 0) {
$self->_pushback($_); last; }
$b1 = $b2 = $rg = $med = $com = $pubmed = undef;
$title = $loc = $au = undef;
} elsif ( /^RP\s{3}(.+? OF (\d+)-(\d+).*)/) {
$rp .= $1;
$b1 = $2;
$b2 = $3;
} elsif ( /^RP\s{3}(.*)/) {
if($rp) { $rp .= " ".$1 }
else { $rp = $1 }
} elsif( /^RX\s{3}MEDLINE;\s+(\d+)(?!<;)/ ) {
$med = $1;
} elsif( /^RX\s{3}MEDLINE=(\d+);\s+PubMed=(\d+);/ ) {
$med = $1;
$pubmed= $2;
} elsif( /^RX\s{3}PubMed=(\d+);/ ) { $pubmed = $1;
} elsif( /^RA\s{3}(.*)/ ) {
$au .= $au ? " $1" : $1;
} elsif( /^RG\s{3}(.*)/ ) {
$rg .= $rg ? " $1" : $1;
} elsif ( /^RT\s{3}(.*)/ ) {
if ($title) {
my $tline = $1;
$title .= ($title =~ /[\w;,:\?!]$/) ? " $tline" : $tline;
} else {
$title = $1;
}
} elsif (/^RL\s{3}(.*)/ ) {
$loc .= $loc ? " $1" : $1;
} elsif ( /^RC\s{3}(.*)/ ) {
$com .= $com ? " $1" : $1;
}
$_ = $self->_readline;
}
return\@ refs;} |
sub _read_swissprot_Species
{ my( $self,$line ) = @_;
my $org;
local $_ = $line;
my( $sub_species, $species, $genus, $common, $variant, $ncbi_taxid, $sci_name, $class_lines, $descr );
my $osline = "";
while ( defined $_ ) {
last unless /^O[SCGX]/;
if(/^OS\s+(\S.+)/ && (! defined($sci_name))) {
$osline .= " " if $osline;
$osline .= $1;
if($osline =~ s/(,|, and|\.)$//) {
($sci_name, $descr) = $osline =~ /(\S[^\(]+)(.*)/;
$sci_name =~ s/\s+$//;
while($descr =~ /\(([^\)]+)\)/g) {
my $item = $1;
if((! defined($variant)) &&
(($item =~ /(^|[^\(\w])([Ss]train|isolate|serogroup|serotype|subtype|clone)\b/) ||
($item =~ /^(biovar|pv\.|type\s+)/))) {
$variant = $item;
}
elsif($item =~ s/^subsp\.\s+//) {
if(! $sub_species) {
$sub_species = $item;
}
elsif(! $variant) {
$variant = $item;
}
}
elsif(! defined($common)) {
$common = $item;
if((index($common, '(') >= 0) &&
(index($common, ')') < 0)) {
$common .= ')';
}
}
}
}
}
elsif (s/^OC\s+(\S.+)$//) {
$class_lines .= $1;
}
elsif (/^OG\s+(.*)/) {
$org = $1;
}
elsif (/^OX\s+(.*)/ && (! defined($ncbi_taxid))) {
my $taxstring = $1;
if ($taxstring =~ /NCBI_TaxID=([\w\d]+)/) {
$ncbi_taxid = $1;
}
else {
$self->throw("$taxstring doesn't look like NCBI_TaxID");
}
}
$_ = $self->_readline;
}
$self->_pushback($_);
$sci_name || return;
return if grep { $_ eq $sci_name } @Unknown_names;
my @class = map { s/^\s+//; s/\s+$//; s/\s{2,}/ /g; $_; } split /[;\.]+/, $class_lines;
if ($class[0] =~ /viruses/i) {
my @virusnames = split(/\s+/, $sci_name);
$species = (@virusnames > 1) ? pop(@virusnames) : '';
$genus = join(" ", @virusnames);
$sub_species = $descr;
}
else {
my $possible_genus = $class[-1];
$possible_genus .= "|$class[-2]" if $class[-2];
if ($sci_name =~ /^($possible_genus)/) {
$genus = $1;
($species) = $sci_name =~ /^$genus\s+(.+)/;
}
else {
$species = $sci_name;
}
if ($species =~ /subsp\.|var\./) {
($species, $sub_species) = $species =~ /(.+)\s+((?:subsp\.|var\.).+)/;
}
}
unless ($class[-1] eq $sci_name) {
push(@class, $sci_name);
}
@class = reverse @class;
my $taxon = Bio::Species->new();
$taxon->scientific_name($sci_name);
$taxon->classification(@class);
$taxon->common_name($common) if $common;
$taxon->sub_species($sub_species) if $sub_species;
$taxon->organelle($org) if $org;
$taxon->ncbi_taxid($ncbi_taxid) if $ncbi_taxid;
$taxon->variant($variant) if $variant;
return $taxon;} |
sub _read_FTHelper_swissprot
{ my ($self,$line ) = @_;
local $_ = $line;
my ($key, $loc, $desc, );
if( m/^FT\s{3}(\w+)\s+([\d\?\<]+)\s+([\d\?\>]+)\s*(.*)$/ox) {
$key = $1;
my $loc1 = $2;
my $loc2 = $3;
$loc = "$loc1..$loc2";
if($4 && (length($4) > 0)) {
$desc = $4;
chomp($desc);
} else {
$desc = "";
}
}
while ( defined($_ = $self->_readline) &&
/^FT\s{20,}(\S.*)$/ ) {
if( $desc) { $desc .= " $1" }
else { $desc = $1 }
chomp($desc);
}
$self->_pushback($_);
unless( $key ) {
$self->warn("No feature key in putative feature table line: $line");
return;
}
my $out = new Bio::SeqIO::FTHelper(-verbose => $self->verbose());
$out->key($key);
$out->loc($loc);
if( $desc && length($desc) ) {
$desc =~ s/\.$//;
push(@{$out->field->{"description"}}, $desc);
}
return $out;} |
sub _write_line_swissprot
{ my ($self,$pre1,$pre2,$line,$length) = @_;
$length || $self->throw( "Miscalled write_line_swissprot without length. Programming error!");
my $subl = $length - length $pre2;
my $linel = length $line;
my $i;
my $sub = substr($line,0,$length - length $pre1);
$self->_print( "$pre1$sub\n");
for($i= ($length - length $pre1);$i < $linel;) {
$sub = substr($line,$i,($subl));
$self->_print( "$pre2$sub\n");
$i += $subl;
}} |
sub _write_line_swissprot_regex
{ my ($self,$pre1,$pre2,$line,$regex,$length) = @_;
$length || $self->throw( "Miscalled write_line_swissprot without length. Programming error!");
if( length $pre1 != length $pre2 ) {
$self->warn( "len 1 is ". length ($pre1) . " len 2 is ". length ($pre2) . "\n");
$self->throw( "Programming error - cannot called write_line_swissprot_regex with different length\n pre1 ($pre1) and\n pre2 ($pre2) tags!");
}
my $subl = $length - (length $pre1) -1 ;
my @lines;
while($line =~ m/(.{1,$subl})($regex)/g) {
push(@lines, $1.$2);
}
my $s = shift @lines;
$self->_print( "$pre1$s\n");
foreach my $s ( @lines ) {
$self->_print( "$pre2$s\n");
} } |
sub _post_sort
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_post_sort'} = $value;
}
return $obj->{'_post_sort'};} |
sub _show_dna
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_show_dna'} = $value;
}
return $obj->{'_show_dna'};} |
sub _id_generation_func
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_id_generation_func'} = $value;
}
return $obj->{'_id_generation_func'};} |
sub _ac_generation_func
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_ac_generation_func'} = $value;
}
return $obj->{'_ac_generation_func'};} |
sub _sv_generation_func
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_sv_generation_func'} = $value;
}
return $obj->{'_sv_generation_func'};} |
sub _kw_generation_func
{ my $obj = shift;
if( @_ ) {
my $value = shift;
$obj->{'_kw_generation_func'} = $value;
}
return $obj->{'_kw_generation_func'};} |
General documentation
User feedback is an integral part of the evolution of this
and other Bioperl modules. Send your comments and suggestions,
preferably to one of the Bioperl mailing lists.
Your participation is much appreciated.
bioperl-l@bioperl.org - General discussion
http://bioperl.org/wiki/Mailing_lists - About the mailing lists
Report bugs to the Bioperl bug tracking system to help us keep track
the bugs and their resolution.
Bug reports can be submitted via the web:
http://bugzilla.open-bio.org/
The rest of the documentation details each of the object methods.
Internal methods are usually preceded with a _
Title : _filehandle
Usage : $obj->_filehandle($newval)
Function:
Example :
Returns : value of _filehandle
Args : newvalue (optional)