$head_str = '';
for my $expr (@{atoms($exprs)}) {
my ($name,$value) = flat($expr);
given ($name) {
when ('package') {
InContext($t,$value);
$head_str = package_t
urn $strs;
}
sub atom_to_perl {
my ($t,$atom) = @_;
my ($name,$args) = flat($atom);
given ($name) {
when ('Cursor') {
return exprs_to_perl($t,$args);
}
when ('Lint')
}
my $iter_str = atom_to_perl($t,$iter_atom);
my $type = GetAtomType($t,$iter_atom);
given ($type) {
when ('Str') {
return "my $loop (split '', $iter_str)";
}
when ('
t = ();
while (
$content =~ /[PATHWAY]*\s+ko(\d*)\s*(.*)/gm )
{
if ( !( $1 ~~ @idKEGG ) && $1 ne "" ) {
$workAroundSort{$2} = $1;
push @idKEGG, $1;
t = ();
while (
$content =~ /[PATHWAY]*\s+ko(\d*)\s*(.*)/gm )
{
if ( !( $1 ~~ @idKEGG ) && $1 ne "" ) {
$workAroundSort{$2} = $1;
push @idKEGG, $1;
{ }
** unless (e) { } elsif (e) { } else { }
! ~ \ u+ u- given (e) { when (e) {} default {} }
=~ !~
* / % x NUMBERS vs STRINGS FALSE vs
== != eq ne
< > <= >= lt gt le ge < > <= >= lt gt le ge
== != <=> eq ne cmp ~~ <=> cmp
&
| ^ МОДИФИКАТОРЫ REGEX МЕТАСИМВОЛ
g;
my $c2c = $c2->content;
if ($c2c ~~ @ll || $c2c ~~ @llf) {
$match++;
}
my $c2c = $c2->content;
if ($c2c ~~ @isll) {
$match++;
e;
$self->_fasta;
$self->_strand;
}
sub _build_strand {
my $self = shift;
my $strand_sub;
given ($self->strand_bias) {
when ('plus') { $strand_sub = sub {1} }
when ('minus') { $strand_su
acklist;
for my $id (keys %$indexed_fasta) {
my $index_size = $indexed_fasta->{$id}{size};
given (ref $self->fastq) {
when ('App::SimulateReads::Fastq::SingleEnd') {
my $read_size = $self
vedb($self->expression_matrix);
}
sub _build_seqid_raffle {
my $self = shift;
my $seqid_sub;
given ($self->seqid_weight) {
when ('same') {
my @seqids = keys %{ $self->_fasta };
my $seqids_
for ($task, @more_tasks) {
$this->do($_);
}
return $this;
}
given (ref $task) {
when ('CODE') {
return $this->_add(OP_CODE, $task);
}
n't be
# surprised by shared state.
for my $key (keys %task) {
my $task;
given (ref $task{$key}) {
when ('CODE') {
$task = __PACKAGE__->new();
OP_CATCH and OP_ENDTRY.
# This limitation should help user to avoid subtle bugs.
given ($opcode) {
when (OP_CODE) {
return $param[0]->($this, @result);
eletion> from I<BRANG> to I<BANG>).
I<Identical strings>: If two identical letter strings are given (I<BANG>, I<BANG>), they are defined as I<not> being orthons: the number of index identical chara
>. It will be calculated from C<xydata>.
=item C<fit(time_limit =E<gt> 3)>
If a time limit is given (in seconds), C<fit()> will spend no more than that long trying to fit the data. It may return i
erformance counts of hits, false-alarms, misses & correct rejections
## from what has just been given (just initialised)
## e.g., number of hits from the given number of signal-trials and misses:
s
nless ref $data ~~ [qw/HASH ARRAY/];
my $current = shift;
my $type = $current->{'type'};
my $val = $current->{'val'};
if (ref $data eq 'HASH') {
given ($type) {
default { return undef }
}
}
elsif (ref $data eq 'ARRAY') {
given ($type) {
when ('SLICE') {
my @slice = @$data[@$val];
ata;
}
# for $val_pat we do grep at array or hash loops
return $data unless ref $data ~~ [qw/ARRAY HASH/];
# If we have been already visited this ref
$visited //= {};
return
ue) ~~ $matrix->SetAttribute("BGCOLOR30:10", $value)
$matrix->MatAttribute("ALIGNMENT", 10, $value) ~~ $matrix->SetAttribute("ALIGNMENT10", $value)
$v = $matrix->GetAttribute("BGCOLOR30:10") ~~ $v
al set and get functions:
$matrix->MatCell(30, 10, $value) ~~ $matrix->SetAttribute("30:10", $value)
$v = $matrix->MatCell(30, 10) ~~ $v = $matrix->GetAttribute("30:10")
=head1 EXAMPLES
The
e
$i2c->write( $addr, $data_out )->get
Performs an I²C write operation to the chip at the given (7-bit) address
value.
The device sends a start condition, then a command to address the chip fo
$data_in = $i2c->read( $addr, $len_in )->get
Performs an I²C read operation to the chip at the given (7-bit) address
value.
The device sends a start condition, then a command to address the chip fo
I²C write operation followed by a read operation within the same
transaction to the chip at the given (7-bit) address value. This is roughly
equivalent to performing separate calls to L</write> and L
tom see_ast is_exported);
use Spp::Builtin;
sub is_type {
my $str = shift;
return $str ~~ [
'Str', 'Int', 'Bool', 'Cursor',
'Lint', 'Array', 'Ints', 'Hash',
'
y $chars = [];
my $mode = 0;
for my $ch (split '', $json) {
if ($mode == 0) {
given ($ch) {
when ('[') { push @{$chars}, In; }
when (']') { push @{$chars}, Out; }
$mode = 2;
}
}
}
}
elsif ($mode == 1) {
given ($ch) {
when ('"') { $mode = 0 }
when ("\\") { $mode = 3 }
default {
^<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$role_reqs
.
format INHERIT_POD =
=head1 NAME
@*
$myclass
=he
<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$handles
.
format ATTR_NARROW =
$handles
^<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$handles
.
format ATTRHEAD_POD =
=head1 ATTRIBUTES
.
format ATTR_POD =
=head2 C<
~~ <1..3> | <4..6> ~~ <1..3>->zip(<4..6>)
<1..3> Z. <4..6> ~~ <1..3> |'.'| <4..6> ~~ <1..3>->zip('.' => <4..6>)
<1..3> X <4..6> ~~ <1..3> x <4..6> ~~ <1.
<4..6> ~~ <1..3> x'.'x <4..6> ~~ <1..3>->cross('.' => <4..6>)
<1..3> <<+>> <4..6> ~~ <1..3> <<'+'>> <4..6> ~~ <1..3>->hyper('<<+>>', <4..6>)
[+] 1..10 ~~ <[+] 1..10
> ~~ reduce {$_[0] + $_[1]} 1 .. 10
[+]->(1..10) ~~ <[+]>->(1..10) ~~ same as above
[\+] 1..10 ~~ <[..+] 1..10> ~~ scan {$_[0] + $_[1]} 1 ..
^<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$role_reqs
.
format INHERIT_POD =
=head1 NAME
@*
$myclass
=he
<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$handles
.
format ATTR_NARROW =
$handles
^<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<< ~~
$handles
.
format ATTRHEAD_POD =
=head1 ATTRIBUTES
.
format ATTR_POD =
=head2 C<
without a label';
}
$self->login;
my $tmpl = Crypt::PKCS11::Attributes->new;
given ($self->function) {
return $self->get_signing_key($self->key) when 'sign';
return
lots, $slot;
}
return \@slots;
}
sub login {
my $self = shift;
my $pin;
given (ref $self->pin) {
when ('CODE') {
$log->debug('Getting PIN from coderef');
mech->set_mechanism($const->());
# does this mechanism need parameters?
my $params;
given ($args->{mech}) {
when (/^(SHA(\d+))_RSA_PKCS_PSS$/) {
$params = $self->_get_
n triple semantics (the graph union of triples from all the named
graphs). If four arguments are given (even if C<< $context >> is undef),
statements will be matched based on quad semantics (the union
n triple semantics (the graph union of triples from all the named
graphs). If four arguments are given (even if C<< $context >> is undef),
statements will be matched based on quad semantics (the union