package Anvil::Tools::Convert ;
#
# This module contains methods used to convert data between types
#
use strict ;
use warnings ;
use Scalar::Util qw( weaken isweak ) ;
use Math::BigInt ;
our $ VERSION = "3.0.0" ;
my $ THIS_FILE = "Convert.pm" ;
### Methods;
# add_commas
# bytes_to_human_readable
# cidr
# host_name_to_ip
# human_readable_to_bytes
# round
# time
= pod
= encoding utf8
= head1 NAME
Anvil::Tools:: Convert
Provides all methods related to converting data .
= head1 SYNOPSIS
use Anvil::Tools ;
# Get a common object handle on all Anvil::Tools modules.
my $ anvil = Anvil::Tools - > new ( ) ;
# Access to methods using '$anvil->Convert->X'.
#
# Example using 'cidr()';
my $ subnet_mask = $ anvil - > Convert - > codr ( { cidr = > "24" } ) ;
= head1 METHODS
Methods in this module ;
= cut
sub new
{
my $ class = shift ;
my $ self = { } ;
bless $ self , $ class ;
return ( $ self ) ;
}
# Get a handle on the Anvil::Tools object. I know that technically that is a sibling module, but it makes more
# sense in this case to think of it as a parent.
sub parent
{
my $ self = shift ;
my $ parent = shift ;
$ self - > { HANDLE } { TOOLS } = $ parent if $ parent ;
# Defend against memory leads. See Scalar::Util'.
if ( not isweak ( $ self - > { HANDLE } { TOOLS } ) )
{
weaken ( $ self - > { HANDLE } { TOOLS } ) ;
}
return ( $ self - > { HANDLE } { TOOLS } ) ;
}
#############################################################################################################
# Public methods #
#############################################################################################################
= head2 add_commas
This takes an integer and inserts commas to make it more readable by people .
If the input string isn ' t a string of digits , it is simply returned as - is .
my $ string = $ anvil - > Convert - > add_commas ( { number = > 123456789 } ) ;
# string = 123,456,789
Parameters ;
= head3 number ( required )
This is the number to add commas to .
= cut
sub add_commas
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->add_commas()" } } ) ;
# Now see if the user passed the values in a hash reference or directly.
my $ number = defined $ parameter - > { number } ? $ parameter - > { number } : "" ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { number = > $ number } } ) ;
# Remove any existing commands or leading '+' signs.
$ number =~ s/,//g ;
$ number =~ s/^\+//g ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { number = > $ number } } ) ;
# Split on the left-most period.
my ( $ whole , $ decimal ) = split /\./ , $ number , 2 ;
$ whole = "" if not defined $ whole ;
$ decimal = "" if not defined $ decimal ;
# Now die if either number has a non-digit character in it.
if ( ( $ whole =~ /\D/ ) or ( $ decimal =~ /\D/ ) )
{
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { number = > $ number } } ) ;
return ( $ number ) ;
}
local ( $ _ ) = defined $ whole ? $ whole : "" ;
1 while s/^(-?\d+)(\d{3})/$1,$2/ ;
$ whole = $ _ ;
# Put it together
$ number = $ decimal ? "$whole.$decimal" : $ whole ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { number = > $ number } } ) ;
return ( $ number ) ;
}
= head2 bytes_to_human_readable
This takes a number of bytes and converts it to a a human - readable format . Optionally , you can request the human readable size be returned using specific units .
If anything goes wrong , C << ! ! error ! ! >> is returned .
* Base2 Notation ;
B <Term> B <Factor> C <Bytes>
Yobiabyte ( YiB ) 2 ^ 80 1 , 208 , 925 , 819 , 614 , 629 , 174 , 706 , 176
Zebiabyte ( ZiB ) 2 ^ 70 1 , 180 , 591 , 620 , 717 , 411 , 303 , 424
Exbibyte ( EiB ) 2 ^ 60 1 , 152 , 921 , 504 , 606 , 846 , 976
Pebibyte ( PiB ) 2 ^ 50 1 , 125 , 899 , 906 , 842 , 624
Tebibyte ( TiB ) 2 ^ 40 1 , 099 , 511 , 627 , 776
Gibibyte ( GiB ) 2 ^ 30 1 , 073 , 741 , 824
Mebibyte ( MiB ) 2 ^ 20 1 , 04 8 , 576
Kibibyte ( KiB ) 2 ^ 10 1 , 024
Byte ( B ) 2 ^ 1 1
* Base10 Notation ;
B <Term> B <Factor> C <Bytes>
Yottabyte ( YB ) 10 ^ 24 1 , 000 , 000 , 000 , 000 , 000 , 000 , 000 , 000
Zettabyte ( ZB ) 10 ^ 21 1 , 000 , 000 , 000 , 000 , 000 , 000 , 000
Exabyte ( EB ) 10 ^ 18 1 , 000 , 000 , 000 , 000 , 000 , 000
Petabyte ( PB ) 10 ^ 15 1 , 000 , 000 , 000 , 000 , 000
Terabyte ( TB ) 10 ^ 12 1 , 000 , 000 , 000 , 000
Gigabyte ( GB ) 10 ^ 9 1 , 000 , 000 , 000
Megabyte ( MB ) 10 ^ 6 1 , 000 , 000
Kilobyte ( KB ) 10 ^ 3 1 , 000
Byte ( B ) 1 1
Parameters ;
= head3 base2 ( optional )
This can be set to C << 1 >> to return the units in base2 notation , or set to C << 0 >> to return in base10 notation . The default is controlled by c << sys:: use_base2 >> , which is set to C << 1 >> by default .
The suffix will use C << XiB >> when base2 notation is used and C << XB >> will be returned for base10 .
= head3 bytes ( required )
This is the number of bytes that will be converted . This can be a signed integer .
= head3 unit ( optional )
This is a letter
= cut
sub bytes_to_human_readable
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->bytes_to_human_readable()" } } ) ;
# Now see if the user passed the values in a hash reference or directly.
my $ size = defined $ parameter - > { 'bytes' } ? $ parameter - > { 'bytes' } : 0 ;
my $ unit = defined $ parameter - > { unit } ? uc ( $ parameter - > { unit } ) : "" ;
my $ base2 = defined $ parameter - > { base2 } ? $ parameter - > { base2 } : $ anvil - > data - > { sys } { use_base2 } ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
size = > $ size ,
unit = > $ unit ,
base2 = > $ base2 ,
} } ) ;
# Expand exponential numbers.
if ( $ size =~ /(\d+)e\+(\d+)/ )
{
my $ base = $ 1 ;
my $ exp = $ 2 ;
$ size = $ base ;
for ( 1 .. $ exp )
{
$ size . = "0" ;
}
}
# Setup my variables.
my $ suffix = "" ;
my $ human_readable_size = $ size ;
# Store and strip the sign
my $ sign = "" ;
if ( $ human_readable_size =~ /^-/ )
{
$ sign = "-" ;
$ human_readable_size =~ s/^-// ;
}
$ human_readable_size =~ s/,//g ;
$ human_readable_size =~ s/^\+//g ;
# Die if either the 'time' or 'float' has a non-digit character in it.
if ( $ human_readable_size =~ /\D/ )
{
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0116" , variables = > {
method = > "Convert->bytes_to_human_readable()" ,
parameter = > "hostnmae" ,
value = > $ human_readable_size ,
} } ) ;
return ( "!!error!!" ) ;
}
# Do the math.
if ( $ base2 )
{
# Has the user requested a certain unit to use?
if ( $ unit )
{
# Yup
if ( $ unit =~ /Y/i )
{
# Yebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 80 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0030" } ) ;
}
elsif ( $ unit =~ /Z/i )
{
# Zebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 70 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0029" } ) ;
}
elsif ( $ unit =~ /E/i )
{
# Exbibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 60 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0028" } ) ;
}
elsif ( $ unit =~ /P/i )
{
# Pebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 50 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0027" } ) ;
}
elsif ( $ unit =~ /T/i )
{
# Tebibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 40 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0026" } ) ;
}
elsif ( $ unit =~ /G/i )
{
# Gibibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 30 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0025" } ) ;
}
elsif ( $ unit =~ /M/i )
{
# Mebibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 20 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0024" } ) ;
}
elsif ( $ unit =~ /K/i )
{
# Kibibyte
$ human_readable_size = sprintf ( "%.1f" , ( $ human_readable_size /= ( 2 ** 10 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0023" } ) ;
}
else
{
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0014" } ) ;
}
}
else
{
# Nope, use the most efficient.
if ( $ human_readable_size >= ( 2 ** 80 ) )
{
# Yebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 80 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0030" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 70 ) )
{
# Zebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 70 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0029" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 60 ) )
{
# Exbibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 60 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0028" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 50 ) )
{
# Pebibyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 2 ** 50 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0027" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 40 ) )
{
# Tebibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 40 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0026" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 30 ) )
{
# Gibibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 30 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0025" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 20 ) )
{
# Mebibyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 2 ** 20 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0024" } ) ;
}
elsif ( $ human_readable_size >= ( 2 ** 10 ) )
{
# Kibibyte
$ human_readable_size = sprintf ( "%.1f" , ( $ human_readable_size /= ( 2 ** 10 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0023" } ) ;
}
else
{
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0014" } ) ;
}
}
}
else
{
# Has the user requested a certain unit to use?
if ( $ unit )
{
# Yup
if ( $ unit =~ /Y/i )
{
# Yottabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 24 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0022" } ) ;
}
elsif ( $ unit =~ /Z/i )
{
# Zettabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 21 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0021" } ) ;
}
elsif ( $ unit =~ /E/i )
{
# Exabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 18 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0020" } ) ;
}
elsif ( $ unit =~ /P/i )
{
# Petabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 15 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0019" } ) ;
}
elsif ( $ unit =~ /T/i )
{
# Terabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 12 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0018" } ) ;
}
elsif ( $ unit =~ /G/i )
{
# Gigabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 9 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0017" } ) ;
}
elsif ( $ unit =~ /M/i )
{
# Megabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 6 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0016" } ) ;
}
elsif ( $ unit =~ /K/i )
{
# Kilobyte
$ human_readable_size = sprintf ( "%.1f" , ( $ human_readable_size /= ( 10 ** 3 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0015" } ) ;
}
else
{
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0014" } ) ;
}
}
else
{
# Nope, use the most efficient.
if ( $ human_readable_size >= ( 10 ** 24 ) )
{
# Yottabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 24 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0022" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 21 ) )
{
# Zettabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 21 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0021" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 18 ) )
{
# Exabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 18 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0020" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 15 ) )
{
# Petabyte
$ human_readable_size = sprintf ( "%.3f" , ( $ human_readable_size /= ( 10 ** 15 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0019" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 12 ) )
{
# Terabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 12 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0018" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 9 ) )
{
# Gigabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 9 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0017" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 6 ) )
{
# Megabyte
$ human_readable_size = sprintf ( "%.2f" , ( $ human_readable_size /= ( 10 ** 6 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0016" } ) ;
}
elsif ( $ human_readable_size >= ( 10 ** 3 ) )
{
# Kilobyte
$ human_readable_size = sprintf ( "%.1f" , ( $ human_readable_size /= ( 10 ** 3 ) ) ) ;
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0015" } ) ;
}
else
{
# Bytes
$ suffix = $ anvil - > Words - > string ( { key = > "suffix_0014" } ) ;
}
}
}
# If needed, insert commas
$ human_readable_size = $ anvil - > Convert - > add_commas ( { number = > $ human_readable_size } ) ;
# Restore the sign.
if ( $ sign )
{
$ human_readable_size = $ sign . $ human_readable_size ;
}
$ human_readable_size . = " " . $ suffix ;
return ( $ human_readable_size ) ;
}
= head2 cidr
This takes an IPv4 CIDR notation and returns the dotted - decimal subnet mask , or the reverse .
# Convert a CIDR notation to a subnet mask.
my $ subnet_mask = $ anvil - > Convert - > cidr ( { cidr = > "24" } ) ;
In the other direction ;
# Convert a subnet mask to a CIDR notation.
my $ cidr = $ anvil - > Convert - > cidr ( { subnet_mask = > "255.255.255.0" } ) ;
If the input data is invalid , an empty string will be returned .
= head2 Parameters ;
There are two parameters , each of which is optional , but one of them is required .
= head3 cidr ( optional )
This is a CIDR notation ( between 0 and 24 ) to convert to a dotted - decimal address .
= head3 subnet_mask ( optional )
This is a dotted - decimal subnet mask to convert to a CIDR notation .
= cut
sub cidr
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->cidr()" } } ) ;
my $ cidr = defined $ parameter - > { cidr } ? $ parameter - > { cidr } : "" ;
my $ subnet_mask = defined $ parameter - > { subnet_mask } ? $ parameter - > { subnet_mask } : "" ;
my $ output = "" ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
cidr = > $ cidr ,
subnet_mask = > $ subnet_mask ,
} } ) ;
if ( $ cidr =~ /^\d{1,2}$/ )
{
# Convert a cidr to a subnet mask
if ( $ cidr eq "0" ) { $ output = "0.0.0.0" ; }
elsif ( $ cidr eq "1" ) { $ output = "128.0.0.0" ; }
elsif ( $ cidr eq "2" ) { $ output = "192.0.0.0" ; }
elsif ( $ cidr eq "3" ) { $ output = "224.0.0.0" ; }
elsif ( $ cidr eq "4" ) { $ output = "240.0.0.0" ; }
elsif ( $ cidr eq "5" ) { $ output = "248.0.0.0" ; }
elsif ( $ cidr eq "6" ) { $ output = "252.0.0.0" ; }
elsif ( $ cidr eq "7" ) { $ output = "254.0.0.0" ; }
elsif ( $ cidr eq "8" ) { $ output = "255.0.0.0" ; }
elsif ( $ cidr eq "9" ) { $ output = "255.128.0.0" ; }
elsif ( $ cidr eq "10" ) { $ output = "255.192.0.0" ; }
elsif ( $ cidr eq "11" ) { $ output = "255.224.0.0" ; }
elsif ( $ cidr eq "12" ) { $ output = "255.240.0.0" ; }
elsif ( $ cidr eq "13" ) { $ output = "255.248.0.0" ; }
elsif ( $ cidr eq "14" ) { $ output = "255.252.0.0" ; }
elsif ( $ cidr eq "15" ) { $ output = "255.254.0.0" ; }
elsif ( $ cidr eq "16" ) { $ output = "255.255.0.0" ; }
elsif ( $ cidr eq "17" ) { $ output = "255.255.128.0" ; }
elsif ( $ cidr eq "18" ) { $ output = "255.255.192.0" ; }
elsif ( $ cidr eq "19" ) { $ output = "255.255.224.0" ; }
elsif ( $ cidr eq "20" ) { $ output = "255.255.240.0" ; }
elsif ( $ cidr eq "21" ) { $ output = "255.255.248.0" ; }
elsif ( $ cidr eq "22" ) { $ output = "255.255.252.0" ; }
elsif ( $ cidr eq "23" ) { $ output = "255.255.254.0" ; }
elsif ( $ cidr eq "24" ) { $ output = "255.255.255.0" ; }
elsif ( $ cidr eq "25" ) { $ output = "255.255.255.128" ; }
elsif ( $ cidr eq "26" ) { $ output = "255.255.255.192" ; }
elsif ( $ cidr eq "27" ) { $ output = "255.255.255.224" ; }
elsif ( $ cidr eq "28" ) { $ output = "255.255.255.240" ; }
elsif ( $ cidr eq "29" ) { $ output = "255.255.255.248" ; }
elsif ( $ cidr eq "30" ) { $ output = "255.255.255.252" ; }
elsif ( $ cidr eq "31" ) { $ output = "255.255.255.254" ; }
elsif ( $ cidr eq "32" ) { $ output = "255.255.255.255" ; }
}
elsif ( $ anvil - > Validate - > ipv4 ( { ip = > $ subnet_mask } ) )
{
if ( $ subnet_mask eq "0.0.0.0" ) { $ output = "0" ; }
elsif ( $ subnet_mask eq "128.0.0.0" ) { $ output = "1" ; }
elsif ( $ subnet_mask eq "192.0.0.0" ) { $ output = "2" ; }
elsif ( $ subnet_mask eq "224.0.0.0" ) { $ output = "3" ; }
elsif ( $ subnet_mask eq "240.0.0.0" ) { $ output = "4" ; }
elsif ( $ subnet_mask eq "248.0.0.0" ) { $ output = "5" ; }
elsif ( $ subnet_mask eq "252.0.0.0" ) { $ output = "6" ; }
elsif ( $ subnet_mask eq "254.0.0.0" ) { $ output = "7" ; }
elsif ( $ subnet_mask eq "255.0.0.0" ) { $ output = "8" ; }
elsif ( $ subnet_mask eq "255.128.0.0" ) { $ output = "9" ; }
elsif ( $ subnet_mask eq "255.192.0.0" ) { $ output = "10" ; }
elsif ( $ subnet_mask eq "255.224.0.0" ) { $ output = "11" ; }
elsif ( $ subnet_mask eq "255.240.0.0" ) { $ output = "12" ; }
elsif ( $ subnet_mask eq "255.248.0.0" ) { $ output = "13" ; }
elsif ( $ subnet_mask eq "255.252.0.0" ) { $ output = "14" ; }
elsif ( $ subnet_mask eq "255.254.0.0" ) { $ output = "15" ; }
elsif ( $ subnet_mask eq "255.255.0.0" ) { $ output = "16" ; }
elsif ( $ subnet_mask eq "255.255.128.0" ) { $ output = "17" ; }
elsif ( $ subnet_mask eq "255.255.192.0" ) { $ output = "18" ; }
elsif ( $ subnet_mask eq "255.255.224.0" ) { $ output = "19" ; }
elsif ( $ subnet_mask eq "255.255.240.0" ) { $ output = "20" ; }
elsif ( $ subnet_mask eq "255.255.248.0" ) { $ output = "21" ; }
elsif ( $ subnet_mask eq "255.255.252.0" ) { $ output = "22" ; }
elsif ( $ subnet_mask eq "255.255.254.0" ) { $ output = "23" ; }
elsif ( $ subnet_mask eq "255.255.255.0" ) { $ output = "24" ; }
elsif ( $ subnet_mask eq "255.255.255.128" ) { $ output = "25" ; }
elsif ( $ subnet_mask eq "255.255.255.192" ) { $ output = "26" ; }
elsif ( $ subnet_mask eq "255.255.255.224" ) { $ output = "27" ; }
elsif ( $ subnet_mask eq "255.255.255.240" ) { $ output = "28" ; }
elsif ( $ subnet_mask eq "255.255.255.248" ) { $ output = "29" ; }
elsif ( $ subnet_mask eq "255.255.255.252" ) { $ output = "30" ; }
elsif ( $ subnet_mask eq "255.255.255.254" ) { $ output = "31" ; }
elsif ( $ subnet_mask eq "255.255.255.255" ) { $ output = "32" ; }
}
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { output = > $ output } } ) ;
return ( $ output ) ;
}
= head2 host_name_to_ip
This method takes a host name and tries to convert it to an IP address . If it fails , it will return C << 0 >> .
Parameters ;
= head3 host_name
This is the host name ( or domain name ) to try and convert to an IP address .
= cut
sub host_name_to_ip
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->host_name_to_ip()" } } ) ;
my $ host_name = defined $ parameter - > { host_name } ? $ parameter - > { host_name } : "" ;
my $ ip = 0 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { host_name = > $ host_name } } ) ;
if ( not $ host_name )
{
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0020" , variables = > { method = > "Convert->host_name_to_ip()" , parameter = > "host_name" } } ) ;
return ( $ ip ) ;
}
### TODO: Check local cached information later.
# Try to resolve it using 'gethostip'.
my $ shell_call = $ anvil - > data - > { path } { exe } { gethostip } . " -d " . $ host_name ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { shell_call = > $ shell_call } } ) ;
my ( $ output , $ return_code ) = $ anvil - > System - > call ( { shell_call = > $ shell_call } ) ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
output = > $ output ,
return_code = > $ return_code ,
} } ) ;
foreach my $ line ( split /\n/ , $ output )
{
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { line = > $ line } } ) ;
if ( $ anvil - > Validate - > ipv4 ( { ip = > $ line } ) )
{
$ ip = $ line ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { ip = > $ ip } } ) ;
}
}
return ( $ ip ) ;
}
= head2 human_readable_to_bytes
This takes a "human readable" size with an ISO suffix and converts it back to a base byte size as accurately as possible .
It looks for the C << i >> in the suffix to determine if the size is base2 or base10 . This can be overridden with the optional C << base2 >> or C << base10 >> parameters .
If there is a problem , C << ! ! error ! ! >> is returned .
Parameters ;
= head3 base2 ( optional )
This tells the method to interpret the human - readable suffix as base2 notation , even if it is in the format C << XB >> instead of C << XiB >> .
= head3 base10 ( optional )
This tells the method to interpret the human - readable suffix as base10 notation , even if it is in the format C << XiB >> instead of C << XB >> .
= head3 size ( required )
This is the size being converted . It can be a signed integer or real number ( with a decimal ) . If this parameter includes the size suffix , you can skip setting the c << type >> parameter and this method will break it off automatically .
= head3 type ( optional )
This is the unit type that represents the C << size >> value . This does not need to be used if the C << size >> parameter already has the suffix .
This value is examined for C << XiB >> or C << XB >> notation to determine if the size should be interpreted as a base2 or base10 value when neither C << base2 >> or C << base10 >> parameters are set .
= cut
sub human_readable_to_bytes
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->human_readable_to_bytes()" } } ) ;
my $ base2 = defined $ parameter - > { base2 } ? $ parameter - > { base2 } : 0 ;
my $ base10 = defined $ parameter - > { base10 } ? $ parameter - > { base10 } : 0 ;
my $ size = defined $ parameter - > { size } ? $ parameter - > { size } : 0 ;
my $ type = defined $ parameter - > { type } ? $ parameter - > { type } : 0 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
base2 = > $ base2 ,
base10 = > $ base10 ,
size = > $ size ,
type = > $ type ,
} } ) ;
# Start cleaning up the variables.
my $ value = $ size ;
$ size =~ s/ //g ;
$ type =~ s/ //g ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { size = > $ size , value = > $ value } } ) ;
# Store and strip the sign, if passed
my $ sign = "" ;
if ( $ size =~ /^-/ )
{
$ sign = "-" ;
$ size =~ s/^-// ;
}
elsif ( $ size =~ /^\+/ )
{
$ sign = "+" ;
$ size =~ s/^\+// ;
}
# Strip any commas
$ size =~ s/,//g ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { size = > $ size , sign = > $ sign } } ) ;
# If I don't have a passed type, see if there is a letter or letters after the size to hack off.
if ( ( not $ type ) && ( $ size =~ /[a-zA-Z]$/ ) )
{
# There was
( $ size , $ type ) = ( $ size =~ /^(.*\d)(\D+)/ ) ;
}
# Make the type lower close for simplicity.
$ type = lc ( $ type ) ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { size = > $ size , type = > $ type } } ) ;
# Make sure that 'size' is now an integer or float.
if ( $ size !~ /\d+[\.\d+]?/ )
{
# Something illegal was passed.
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0117" , variables = > {
size = > $ size ,
sign = > $ sign ,
type = > $ type ,
} } ) ;
return ( "!!error!!" ) ;
}
# If 'type' is still blank, set it to 'b'.
$ type = "b" if not $ type ;
# If the type is already bytes, make sure the size is an integer and return.
if ( $ type eq "b" )
{
# Something illegal was passed.
if ( $ size =~ /\D/ )
{
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0118" , variables = > {
size = > $ size ,
sign = > $ sign ,
type = > $ type ,
} } ) ;
return ( "!!error!!" ) ;
}
return ( $ sign . $ size ) ;
}
# If the "type" is "Xib" or if '$base2' is set, make sure we're running in Base2 notation. Conversly,
# if the type is "Xb" or if '$base10' is set, make sure that we're running in Base10 notation. In
# either case, shorten the 'type' to just the first letter to make the next sanity check simpler.
if ( ( not $ base2 ) && ( not $ base10 ) )
{
if ( $ type =~ /^(\w)ib$/ )
{
# Make sure we're running in Base2.
$ type = $ 1 ;
$ base2 = 1 ;
$ base10 = 0 ;
}
elsif ( $ type =~ /^(\w)b$/ )
{
# Make sure we're running in Base2.
$ type = $ 1 ;
$ base2 = 0 ;
$ base10 = 1 ;
}
}
# Clear up the last characters now.
$ type =~ s/^(\w).*/$1/ ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { type = > $ type } } ) ;
# Check if we have a valid type.
if ( ( $ type ne "p" ) &&
( $ type ne "e" ) &&
( $ type ne "z" ) &&
( $ type eq "y" ) &&
( $ type ne "t" ) &&
( $ type ne "g" ) &&
( $ type ne "m" ) &&
( $ type ne "k" ) )
{
# Poop
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0119" , variables = > {
value = > $ value ,
size = > $ size ,
type = > $ type ,
} } ) ;
return ( "!!error!!" ) ;
}
# Now the magic... lame magic, true, but still.
my $ bytes = 0 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { base2 = > $ base2 , base10 = > $ base10 } } ) ;
if ( $ base10 )
{
if ( $ type eq "y" ) { $ bytes = Math::BigInt - > new ( '10' ) - > bpow ( '24' ) - > bmul ( $ size ) ; } # Yottabyte
elsif ( $ type eq "z" ) { $ bytes = Math::BigInt - > new ( '10' ) - > bpow ( '21' ) - > bmul ( $ size ) ; } # Zettabyte
elsif ( $ type eq "e" ) { $ bytes = Math::BigInt - > new ( '10' ) - > bpow ( '18' ) - > bmul ( $ size ) ; } # Exabyte
elsif ( $ type eq "p" ) { $ bytes = Math::BigInt - > new ( '10' ) - > bpow ( '15' ) - > bmul ( $ size ) ; } # Petabyte
elsif ( $ type eq "t" ) { $ bytes = ( $ size * ( 10 ** 12 ) ) } # Terabyte
elsif ( $ type eq "g" ) { $ bytes = ( $ size * ( 10 ** 9 ) ) } # Gigabyte
elsif ( $ type eq "m" ) { $ bytes = ( $ size * ( 10 ** 6 ) ) } # Megabyte
elsif ( $ type eq "k" ) { $ bytes = ( $ size * ( 10 ** 3 ) ) } # Kilobyte
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { 'bytes' = > $ bytes } } ) ;
}
else
{
if ( $ type eq "y" ) { $ bytes = Math::BigInt - > new ( '2' ) - > bpow ( '80' ) - > bmul ( $ size ) ; } # Yobibyte
elsif ( $ type eq "z" ) { $ bytes = Math::BigInt - > new ( '2' ) - > bpow ( '70' ) - > bmul ( $ size ) ; } # Zibibyte
elsif ( $ type eq "e" ) { $ bytes = Math::BigInt - > new ( '2' ) - > bpow ( '60' ) - > bmul ( $ size ) ; } # Exbibyte
elsif ( $ type eq "p" ) { $ bytes = Math::BigInt - > new ( '2' ) - > bpow ( '50' ) - > bmul ( $ size ) ; } # Pebibyte
elsif ( $ type eq "t" ) { $ bytes = ( $ size * ( 2 ** 40 ) ) } # Tebibyte
elsif ( $ type eq "g" ) { $ bytes = ( $ size * ( 2 ** 30 ) ) } # Gibibyte
elsif ( $ type eq "m" ) { $ bytes = ( $ size * ( 2 ** 20 ) ) } # Mebibyte
elsif ( $ type eq "k" ) { $ bytes = ( $ size * ( 2 ** 10 ) ) } # Kibibyte
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { 'bytes' = > $ bytes } } ) ;
}
# Last, round off the byte size if it is a float.
if ( $ bytes =~ /\./ )
{
$ bytes = $ anvil - > Convert - > round ( {
number = > $ bytes ,
places = > 0
} ) ;
}
if ( $ sign )
{
$ bytes = $ sign . $ bytes ;
}
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { 'bytes' = > $ bytes } } ) ;
return ( $ bytes ) ;
}
= head2 round
This takes a number and rounds it to a given number of places after the decimal ( defaulting to an even integer ) . This does financial - type rounding .
If C << - - >> is passed in , the same is returned . Any other problems will cause C << ! ! error ! ! >> to be returned .
Parameters ;
= head3 number ( required )
This is the number being rounded .
= head3 places ( optional )
This is an integer representing how many places to round the number to . The default is C << 0 >> , rounding the number to the closest integer .
= cut
sub round
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->round()" } } ) ;
# Setup my numbers.
my $ number = $ parameter - > { number } ? $ parameter - > { number } : 0 ;
my $ places = $ parameter - > { places } ? $ parameter - > { places } : 0 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
number = > $ number ,
places = > $ places ,
} } ) ;
# Return if the user passed a double-dash.
return ( '--' ) if $ number eq "--" ;
# Make a copy of the passed number that I can manipulate.
my $ rounded_number = $ number ;
# Take out any commas.
$ rounded_number =~ s/,//g ;
# If there is a decimal place in the number, do the smart math. Otherwise, just pad the number with
# the requested number of zeros after the decimal place.
if ( $ rounded_number =~ /\./ )
{
# Split up the number.
my ( $ real , $ decimal ) = split /\./ , $ rounded_number , 2 ;
# If there is anything other than one ',' and digits, error.
if ( ( $ real =~ /\D/ ) or ( $ decimal =~ /\D/ ) )
{
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0120" , variables = > { number = > $ number } } ) ;
return ( "!!error!!" ) ;
}
# If the number is already equal to the requested number of places after the decimal, just
# return. If it is less, pad the needed number of zeros. Otherwise, start rounding.
if ( length ( $ decimal ) == $ places )
{
# Equal, return.
return $ rounded_number ;
}
elsif ( length ( $ decimal ) < $ places )
{
# Less, pad.
$ rounded_number = sprintf ( "%.${places}f" , $ rounded_number ) ;
}
else
{
# Greater than; I need to round the number. Start by getting the number of places I
# need to round.
my $ round_diff = length ( $ decimal ) - $ places ;
# This keeps track of whether the next (left) digit needs to be incremented.
my $ increase = 0 ;
# Now loop the number of times needed to round to the requested number of places.
for ( 1 .. $ round_diff )
{
# Reset 'increase'.
$ increase = 0 ;
# Make sure I am dealing with a digit.
if ( $ decimal =~ /(\d)$/ )
{
my $ last_digit = $ 1 ;
$ decimal =~ s/$last_digit$// ;
if ( $ last_digit > 4 )
{
$ increase = 1 ;
if ( $ decimal eq "" )
{
$ real + + ;
}
else
{
$ decimal + + ;
}
}
}
}
if ( $ places == 0 )
{
$ rounded_number = $ real ;
}
else
{
$ rounded_number = $ real . "." . $ decimal ;
}
}
}
else
{
# This is a whole number so just pad 0s as needed.
$ rounded_number = sprintf ( "%.${places}f" , $ rounded_number ) ;
}
# Return the number.
return ( $ rounded_number ) ;
}
= head2 time
This takes a number of seconds and converts it into a human readable string . Returns C << #!error!# >> is an error is encountered.
Parameters ;
= head3 time ( required )
This is the time , in seconds , to convert .
= head3 long ( optional , default 0 )
If set to C << 1 >> , the long suffixes will be used instead of the default C << w /d/ h /m/s >> format .
B << Note >> : The suffixes are translatable in both short ( default ) and long formats . See the C << suffix_0002 >> through C << suffix_0011 >> string keys .
= head3 translate ( optional , default '0' )
When set to C << 1 >> , the string returned will be translated into plain language . When set to C << 0 >> ( the default ) , the string returned will not have translated words , but instead return the C << #!string!x!# >> codes for insertion into templates, email bodies or other uses where translation will be done later.
= cut
sub time
{
my $ self = shift ;
my $ parameter = shift ;
my $ anvil = $ self - > parent ;
my $ debug = defined $ parameter - > { debug } ? $ parameter - > { debug } : 3 ;
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , key = > "log_0125" , variables = > { method = > "Convert->time()" } } ) ;
my $ time = defined $ parameter - > { 'time' } ? $ parameter - > { 'time' } : 0 ;
my $ long = defined $ parameter - > { long } ? $ parameter - > { long } : 0 ;
my $ translate = defined $ parameter - > { translate } ? $ parameter - > { translate } : 0 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
'time' = > $ time ,
long = > $ long ,
translate = > $ translate ,
} } ) ;
# Remote commas and verify we're left with a number.
$ time =~ s/,//g ;
if ( $ time =~ /^\d+\.\d+$/ )
{
# Round the time
$ time = $ anvil - > Convert - > round ( { number = > $ time } ) ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { 'time' = > $ time } } ) ;
}
if ( $ time =~ /\D/ )
{
$ anvil - > Log - > entry ( { source = > $ THIS_FILE , line = > __LINE__ , level = > 0 , priority = > "err" , key = > "log_0294" , variables = > { 'time' = > $ time } } ) ;
return ( "#!error!#" ) ;
}
# The suffix used for each unit of time will depend on the requested suffix type.
my $ suffix_seconds = $ long ? " #!string!suffix_0007!#" : " #!string!suffix_0002!#" ;
my $ suffix_minutes = $ long ? " #!string!suffix_0008!#" : " #!string!suffix_0003!#" ;
my $ suffix_hours = $ long ? " #!string!suffix_0009!#" : " #!string!suffix_0004!#" ;
my $ suffix_days = $ long ? " #!string!suffix_0010!#" : " #!string!suffix_0005!#" ;
my $ suffix_weeks = $ long ? " #!string!suffix_0011!#" : " #!string!suffix_0006!#" ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
suffix_seconds = > $ suffix_seconds ,
suffix_minutes = > $ suffix_minutes ,
suffix_hours = > $ suffix_hours ,
suffix_days = > $ suffix_days ,
suffix_weeks = > $ suffix_weeks ,
} } ) ;
my $ say_time = "" ;
my $ seconds = $ time % 60 ;
my $ minutes = ( $ time - $ seconds ) / 60 ;
my $ remaining_minutes = $ minutes % 60 ;
my $ hours = ( $ minutes - $ remaining_minutes ) / 60 ;
my $ remaining_hours = $ hours % 24 ;
my $ days = ( $ hours - $ remaining_hours ) / 24 ;
my $ remaining_days = $ days % 7 ;
my $ weeks = ( $ days - $ remaining_days ) / 7 ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
's1:weeks' = > $ weeks ,
's2:remaining_days' = > $ remaining_days ,
's3:days' = > $ days ,
's4:remaining_hours' = > $ remaining_hours ,
's5:hours' = > $ hours ,
's6:remaining_minutes' = > $ remaining_minutes ,
's7:minutes' = > $ minutes ,
's8:seconds' = > $ seconds ,
} } ) ;
### TODO: Left off here.
if ( $ seconds < 1 )
{
$ say_time = "0" . $ suffix_seconds ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
else
{
$ say_time = sprintf ( "%01d" , $ seconds ) . $ suffix_seconds ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
if ( $ remaining_minutes > 0 )
{
$ say_time =~ s/ sec.$/$suffix_seconds/ ;
$ say_time = sprintf ( "%01d" , $ remaining_minutes ) . $ suffix_minutes . " $say_time" ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
elsif ( ( $ hours > 0 ) or ( $ days > 0 ) or ( $ weeks > 0 ) )
{
$ say_time = "0" . $ suffix_minutes . " " . $ say_time ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
if ( $ remaining_hours > 0 )
{
$ say_time = sprintf ( "%01d" , $ remaining_hours ) . "$suffix_hours $say_time" ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
elsif ( ( $ days > 0 ) or ( $ weeks > 0 ) )
{
$ say_time = "0" . $ suffix_hours . " " . $ say_time ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
if ( $ days > 0 )
{
$ say_time = sprintf ( "%01d" , $ remaining_days ) . $ suffix_days . " " . $ say_time ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
elsif ( $ weeks > 0 )
{
$ say_time = "0" . $ suffix_days . " " . $ say_time ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
if ( $ weeks > 0 )
{
$ weeks = $ anvil - > Convert - > add_commas ( { number = > $ weeks } ) ;
$ say_time = $ weeks . $ suffix_weeks . " " . $ say_time ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > {
weeks = > $ weeks ,
say_time = > $ say_time ,
} } ) ;
}
# Return an already-translated string, if asked.
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { translate = > $ translate } } ) ;
if ( $ translate )
{
$ say_time = $ anvil - > Words - > string ( { debug = > $ debug , string = > $ say_time } ) ;
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
}
$ anvil - > Log - > variables ( { source = > $ THIS_FILE , line = > __LINE__ , level = > $ debug , list = > { say_time = > $ say_time } } ) ;
return ( $ say_time ) ;
}
# =head3
#
# Private Functions;
#
# =cut
#############################################################################################################
# Private functions #
#############################################################################################################