# This file was automatically generated by SWIG (https://www.swig.org).
# Version 4.2.0
#
# Do not make changes to this file unless you know what you are doing - modify
# the SWIG interface file instead.

package Math::GSL::Complex;
use base qw(Exporter);
use base qw(DynaLoader);
package Math::GSL::Complexc;
bootstrap Math::GSL::Complex;
package Math::GSL::Complex;
@EXPORT = qw();

# ---------- BASE METHODS -------------

package Math::GSL::Complex;

sub TIEHASH {
    my ($classname,$obj) = @_;
    return bless $obj, $classname;
}

sub CLEAR { }

sub FIRSTKEY { }

sub NEXTKEY { }

sub FETCH {
    my ($self,$field) = @_;
    my $member_func = "swig_${field}_get";
    $self->$member_func();
}

sub STORE {
    my ($self,$field,$newval) = @_;
    my $member_func = "swig_${field}_set";
    $self->$member_func($newval);
}

sub this {
    my $ptr = shift;
    return tied(%$ptr);
}


# ------- FUNCTION WRAPPERS --------

package Math::GSL::Complex;

*gsl_error = *Math::GSL::Complexc::gsl_error;
*gsl_stream_printf = *Math::GSL::Complexc::gsl_stream_printf;
*gsl_strerror = *Math::GSL::Complexc::gsl_strerror;
*gsl_set_error_handler = *Math::GSL::Complexc::gsl_set_error_handler;
*gsl_set_error_handler_off = *Math::GSL::Complexc::gsl_set_error_handler_off;
*gsl_set_stream_handler = *Math::GSL::Complexc::gsl_set_stream_handler;
*gsl_set_stream = *Math::GSL::Complexc::gsl_set_stream;
*gsl_complex_polar = *Math::GSL::Complexc::gsl_complex_polar;
*gsl_complex_rect = *Math::GSL::Complexc::gsl_complex_rect;
*gsl_complex_arg = *Math::GSL::Complexc::gsl_complex_arg;
*gsl_complex_abs = *Math::GSL::Complexc::gsl_complex_abs;
*gsl_complex_abs2 = *Math::GSL::Complexc::gsl_complex_abs2;
*gsl_complex_logabs = *Math::GSL::Complexc::gsl_complex_logabs;
*gsl_complex_add = *Math::GSL::Complexc::gsl_complex_add;
*gsl_complex_sub = *Math::GSL::Complexc::gsl_complex_sub;
*gsl_complex_mul = *Math::GSL::Complexc::gsl_complex_mul;
*gsl_complex_div = *Math::GSL::Complexc::gsl_complex_div;
*gsl_complex_add_real = *Math::GSL::Complexc::gsl_complex_add_real;
*gsl_complex_sub_real = *Math::GSL::Complexc::gsl_complex_sub_real;
*gsl_complex_mul_real = *Math::GSL::Complexc::gsl_complex_mul_real;
*gsl_complex_div_real = *Math::GSL::Complexc::gsl_complex_div_real;
*gsl_complex_add_imag = *Math::GSL::Complexc::gsl_complex_add_imag;
*gsl_complex_sub_imag = *Math::GSL::Complexc::gsl_complex_sub_imag;
*gsl_complex_mul_imag = *Math::GSL::Complexc::gsl_complex_mul_imag;
*gsl_complex_div_imag = *Math::GSL::Complexc::gsl_complex_div_imag;
*gsl_complex_conjugate = *Math::GSL::Complexc::gsl_complex_conjugate;
*gsl_complex_inverse = *Math::GSL::Complexc::gsl_complex_inverse;
*gsl_complex_negative = *Math::GSL::Complexc::gsl_complex_negative;
*gsl_complex_sqrt = *Math::GSL::Complexc::gsl_complex_sqrt;
*gsl_complex_sqrt_real = *Math::GSL::Complexc::gsl_complex_sqrt_real;
*gsl_complex_pow = *Math::GSL::Complexc::gsl_complex_pow;
*gsl_complex_pow_real = *Math::GSL::Complexc::gsl_complex_pow_real;
*gsl_complex_exp = *Math::GSL::Complexc::gsl_complex_exp;
*gsl_complex_log = *Math::GSL::Complexc::gsl_complex_log;
*gsl_complex_log10 = *Math::GSL::Complexc::gsl_complex_log10;
*gsl_complex_log_b = *Math::GSL::Complexc::gsl_complex_log_b;
*gsl_complex_sin = *Math::GSL::Complexc::gsl_complex_sin;
*gsl_complex_cos = *Math::GSL::Complexc::gsl_complex_cos;
*gsl_complex_sec = *Math::GSL::Complexc::gsl_complex_sec;
*gsl_complex_csc = *Math::GSL::Complexc::gsl_complex_csc;
*gsl_complex_tan = *Math::GSL::Complexc::gsl_complex_tan;
*gsl_complex_cot = *Math::GSL::Complexc::gsl_complex_cot;
*gsl_complex_arcsin = *Math::GSL::Complexc::gsl_complex_arcsin;
*gsl_complex_arcsin_real = *Math::GSL::Complexc::gsl_complex_arcsin_real;
*gsl_complex_arccos = *Math::GSL::Complexc::gsl_complex_arccos;
*gsl_complex_arccos_real = *Math::GSL::Complexc::gsl_complex_arccos_real;
*gsl_complex_arcsec = *Math::GSL::Complexc::gsl_complex_arcsec;
*gsl_complex_arcsec_real = *Math::GSL::Complexc::gsl_complex_arcsec_real;
*gsl_complex_arccsc = *Math::GSL::Complexc::gsl_complex_arccsc;
*gsl_complex_arccsc_real = *Math::GSL::Complexc::gsl_complex_arccsc_real;
*gsl_complex_arctan = *Math::GSL::Complexc::gsl_complex_arctan;
*gsl_complex_arccot = *Math::GSL::Complexc::gsl_complex_arccot;
*gsl_complex_sinh = *Math::GSL::Complexc::gsl_complex_sinh;
*gsl_complex_cosh = *Math::GSL::Complexc::gsl_complex_cosh;
*gsl_complex_sech = *Math::GSL::Complexc::gsl_complex_sech;
*gsl_complex_csch = *Math::GSL::Complexc::gsl_complex_csch;
*gsl_complex_tanh = *Math::GSL::Complexc::gsl_complex_tanh;
*gsl_complex_coth = *Math::GSL::Complexc::gsl_complex_coth;
*gsl_complex_arcsinh = *Math::GSL::Complexc::gsl_complex_arcsinh;
*gsl_complex_arccosh = *Math::GSL::Complexc::gsl_complex_arccosh;
*gsl_complex_arccosh_real = *Math::GSL::Complexc::gsl_complex_arccosh_real;
*gsl_complex_arcsech = *Math::GSL::Complexc::gsl_complex_arcsech;
*gsl_complex_arccsch = *Math::GSL::Complexc::gsl_complex_arccsch;
*gsl_complex_arctanh = *Math::GSL::Complexc::gsl_complex_arctanh;
*gsl_complex_arctanh_real = *Math::GSL::Complexc::gsl_complex_arctanh_real;
*gsl_complex_arccoth = *Math::GSL::Complexc::gsl_complex_arccoth;
*new_doubleArray = *Math::GSL::Complexc::new_doubleArray;
*delete_doubleArray = *Math::GSL::Complexc::delete_doubleArray;
*doubleArray_getitem = *Math::GSL::Complexc::doubleArray_getitem;
*doubleArray_setitem = *Math::GSL::Complexc::doubleArray_setitem;

############# Class : Math::GSL::Complex::gsl_complex ##############

package Math::GSL::Complex::gsl_complex;
use vars qw(@ISA %OWNER %ITERATORS %BLESSEDMEMBERS);
@ISA = qw( Math::GSL::Complex );
%OWNER = ();
%ITERATORS = ();
*swig_dat_get = *Math::GSL::Complexc::gsl_complex_dat_get;
*swig_dat_set = *Math::GSL::Complexc::gsl_complex_dat_set;
sub new {
    my $pkg = shift;
    my $self = Math::GSL::Complexc::new_gsl_complex(@_);
    bless $self, $pkg if defined($self);
}

sub DESTROY {
    return unless $_[0]->isa('HASH');
    my $self = tied(%{$_[0]});
    return unless defined $self;
    delete $ITERATORS{$self};
    if (exists $OWNER{$self}) {
        Math::GSL::Complexc::delete_gsl_complex($self);
        delete $OWNER{$self};
    }
}

sub DISOWN {
    my $self = shift;
    my $ptr = tied(%$self);
    delete $OWNER{$ptr};
}

sub ACQUIRE {
    my $self = shift;
    my $ptr = tied(%$self);
    $OWNER{$ptr} = 1;
}


############# Class : Math::GSL::Complex::gsl_complex_long_double ##############

package Math::GSL::Complex::gsl_complex_long_double;
use vars qw(@ISA %OWNER %ITERATORS %BLESSEDMEMBERS);
@ISA = qw( Math::GSL::Complex );
%OWNER = ();
%ITERATORS = ();
*swig_dat_get = *Math::GSL::Complexc::gsl_complex_long_double_dat_get;
*swig_dat_set = *Math::GSL::Complexc::gsl_complex_long_double_dat_set;
sub new {
    my $pkg = shift;
    my $self = Math::GSL::Complexc::new_gsl_complex_long_double(@_);
    bless $self, $pkg if defined($self);
}

sub DESTROY {
    return unless $_[0]->isa('HASH');
    my $self = tied(%{$_[0]});
    return unless defined $self;
    delete $ITERATORS{$self};
    if (exists $OWNER{$self}) {
        Math::GSL::Complexc::delete_gsl_complex_long_double($self);
        delete $OWNER{$self};
    }
}

sub DISOWN {
    my $self = shift;
    my $ptr = tied(%$self);
    delete $OWNER{$ptr};
}

sub ACQUIRE {
    my $self = shift;
    my $ptr = tied(%$self);
    $OWNER{$ptr} = 1;
}


############# Class : Math::GSL::Complex::gsl_complex_float ##############

package Math::GSL::Complex::gsl_complex_float;
use vars qw(@ISA %OWNER %ITERATORS %BLESSEDMEMBERS);
@ISA = qw( Math::GSL::Complex );
%OWNER = ();
%ITERATORS = ();
*swig_dat_get = *Math::GSL::Complexc::gsl_complex_float_dat_get;
*swig_dat_set = *Math::GSL::Complexc::gsl_complex_float_dat_set;
sub new {
    my $pkg = shift;
    my $self = Math::GSL::Complexc::new_gsl_complex_float(@_);
    bless $self, $pkg if defined($self);
}

sub DESTROY {
    return unless $_[0]->isa('HASH');
    my $self = tied(%{$_[0]});
    return unless defined $self;
    delete $ITERATORS{$self};
    if (exists $OWNER{$self}) {
        Math::GSL::Complexc::delete_gsl_complex_float($self);
        delete $OWNER{$self};
    }
}

sub DISOWN {
    my $self = shift;
    my $ptr = tied(%$self);
    delete $OWNER{$ptr};
}

sub ACQUIRE {
    my $self = shift;
    my $ptr = tied(%$self);
    $OWNER{$ptr} = 1;
}


# ------- VARIABLE STUBS --------

package Math::GSL::Complex;

*GSL_VERSION = *Math::GSL::Complexc::GSL_VERSION;
*GSL_MAJOR_VERSION = *Math::GSL::Complexc::GSL_MAJOR_VERSION;
*GSL_MINOR_VERSION = *Math::GSL::Complexc::GSL_MINOR_VERSION;
*GSL_POSZERO = *Math::GSL::Complexc::GSL_POSZERO;
*GSL_NEGZERO = *Math::GSL::Complexc::GSL_NEGZERO;
*GSL_SUCCESS = *Math::GSL::Complexc::GSL_SUCCESS;
*GSL_FAILURE = *Math::GSL::Complexc::GSL_FAILURE;
*GSL_CONTINUE = *Math::GSL::Complexc::GSL_CONTINUE;
*GSL_EDOM = *Math::GSL::Complexc::GSL_EDOM;
*GSL_ERANGE = *Math::GSL::Complexc::GSL_ERANGE;
*GSL_EFAULT = *Math::GSL::Complexc::GSL_EFAULT;
*GSL_EINVAL = *Math::GSL::Complexc::GSL_EINVAL;
*GSL_EFAILED = *Math::GSL::Complexc::GSL_EFAILED;
*GSL_EFACTOR = *Math::GSL::Complexc::GSL_EFACTOR;
*GSL_ESANITY = *Math::GSL::Complexc::GSL_ESANITY;
*GSL_ENOMEM = *Math::GSL::Complexc::GSL_ENOMEM;
*GSL_EBADFUNC = *Math::GSL::Complexc::GSL_EBADFUNC;
*GSL_ERUNAWAY = *Math::GSL::Complexc::GSL_ERUNAWAY;
*GSL_EMAXITER = *Math::GSL::Complexc::GSL_EMAXITER;
*GSL_EZERODIV = *Math::GSL::Complexc::GSL_EZERODIV;
*GSL_EBADTOL = *Math::GSL::Complexc::GSL_EBADTOL;
*GSL_ETOL = *Math::GSL::Complexc::GSL_ETOL;
*GSL_EUNDRFLW = *Math::GSL::Complexc::GSL_EUNDRFLW;
*GSL_EOVRFLW = *Math::GSL::Complexc::GSL_EOVRFLW;
*GSL_ELOSS = *Math::GSL::Complexc::GSL_ELOSS;
*GSL_EROUND = *Math::GSL::Complexc::GSL_EROUND;
*GSL_EBADLEN = *Math::GSL::Complexc::GSL_EBADLEN;
*GSL_ENOTSQR = *Math::GSL::Complexc::GSL_ENOTSQR;
*GSL_ESING = *Math::GSL::Complexc::GSL_ESING;
*GSL_EDIVERGE = *Math::GSL::Complexc::GSL_EDIVERGE;
*GSL_EUNSUP = *Math::GSL::Complexc::GSL_EUNSUP;
*GSL_EUNIMPL = *Math::GSL::Complexc::GSL_EUNIMPL;
*GSL_ECACHE = *Math::GSL::Complexc::GSL_ECACHE;
*GSL_ETABLE = *Math::GSL::Complexc::GSL_ETABLE;
*GSL_ENOPROG = *Math::GSL::Complexc::GSL_ENOPROG;
*GSL_ENOPROGJ = *Math::GSL::Complexc::GSL_ENOPROGJ;
*GSL_ETOLF = *Math::GSL::Complexc::GSL_ETOLF;
*GSL_ETOLX = *Math::GSL::Complexc::GSL_ETOLX;
*GSL_ETOLG = *Math::GSL::Complexc::GSL_ETOLG;
*GSL_EOF = *Math::GSL::Complexc::GSL_EOF;

use Scalar::Util 'blessed';
use Math::GSL::Errno qw/$GSL_SUCCESS gsl_strerror/;
use Data::Dumper;

use strict;
use warnings;
use Carp qw/croak/;
use Scalar::Util 'blessed';

use overload
    '*'      => \&_multiplication,
    '/'      => \&_division,
    '+'      => \&_addition,
    '-'      => \&_subtract,
    '=='     => \&_equal,
    '!='     => \&_not_equal,
    fallback => 1;

our @EXPORT_OK = qw(
    gsl_complex_arg gsl_complex_abs gsl_complex_rect gsl_complex_polar doubleArray_getitem
    gsl_complex_rect gsl_complex_polar gsl_complex_arg gsl_complex_abs gsl_complex_abs2
    gsl_complex_logabs gsl_complex_add gsl_complex_sub gsl_complex_mul gsl_complex_div
    gsl_complex_add_real gsl_complex_sub_real gsl_complex_mul_real gsl_complex_div_real
    gsl_complex_add_imag gsl_complex_sub_imag gsl_complex_mul_imag gsl_complex_div_imag
    gsl_complex_conjugate gsl_complex_inverse gsl_complex_negative gsl_complex_sqrt
    gsl_complex_sqrt_real gsl_complex_pow gsl_complex_pow_real gsl_complex_exp
    gsl_complex_log gsl_complex_log10 gsl_complex_log_b gsl_complex_sin
    gsl_complex_cos gsl_complex_sec gsl_complex_csc gsl_complex_tan
    gsl_complex_cot gsl_complex_arcsin gsl_complex_arcsin_real gsl_complex_arccos
    gsl_complex_arccos_real gsl_complex_arcsec gsl_complex_arcsec_real gsl_complex_arccsc
    gsl_complex_arccsc_real gsl_complex_arctan gsl_complex_arccot gsl_complex_sinh
    gsl_complex_cosh gsl_complex_sech gsl_complex_csch gsl_complex_tanh
    gsl_complex_coth gsl_complex_arcsinh gsl_complex_arccosh gsl_complex_arccosh_real
    gsl_complex_arcsech gsl_complex_arccsch gsl_complex_arctanh gsl_complex_arctanh_real
    gsl_complex_arccoth new_doubleArray delete_doubleArray doubleArray_setitem
    gsl_real gsl_imag gsl_parts
    gsl_complex_eq gsl_set_real gsl_set_imag gsl_set_complex
    $GSL_COMPLEX_ONE $GSL_COMPLEX_ZERO $GSL_COMPLEX_NEGONE
);
# macros to implement
# gsl_set_complex gsl_set_complex_packed
our ($GSL_COMPLEX_ONE, $GSL_COMPLEX_ZERO, $GSL_COMPLEX_NEGONE) = map { gsl_complex_rect($_, 0) } qw(1 0 -1);


our %EXPORT_TAGS = ( all => [ @EXPORT_OK ] );

=encoding utf8

=head2 copy()

Returns a copy of the Complex number, which resides at a different location in
memory.

    my $z    = Math::GSL::Complex->new([10,5]);
    my $copy = $z->copy;

=cut


sub copy {
    my $self = shift;
    my $copy = Math::GSL::Complex->new(
            gsl_real($self->raw), gsl_imag($self->raw)
    );

    return $copy;
}

sub _not_equal {
    my ($left, $right) = @_;
    return ! _equal($left, $right);
}

sub _equal {
    my ($left, $right) = @_;

    if ( blessed $right && $right->isa('Math::GSL::Complex') && blessed $left && $left->isa('Math::GSL::Complex') ) {
        return gsl_complex_eq($left->raw, $right->raw);
    } else {
        # If both are not Complex objects, they can't be the same
        return 0;
    }
}

sub _division {
    my ($left, $right) = @_;
    my $raw;

    if ( blessed $right && $right->isa('Math::GSL::Complex') && blessed $left && $left->isa('Math::GSL::Complex') ) {
        my $rcopy = $right->copy;
        $raw = gsl_complex_div($left->raw, $right->raw);
        $rcopy->set_raw( $raw );
        return $rcopy;
    } else {
        my $lcopy = $left->copy;
        $raw = gsl_complex_div_real($lcopy->raw, $right);
        $lcopy->set_raw($raw);
        return $lcopy;
    }
}

sub _multiplication {
    my ($left, $right) = @_;
    my $raw;

    if ( blessed $right && $right->isa('Math::GSL::Complex') && blessed $left && $left->isa('Math::GSL::Complex') ) {
        my $rcopy = $right->copy;
        $raw = gsl_complex_mul($left->raw, $right->raw);
        $rcopy->set_raw( $raw );
        return $rcopy;
    } else {
        my $lcopy = $left->copy;
        $raw = gsl_complex_mul_real($lcopy->raw, $right);
        $lcopy->set_raw($raw);
        return $lcopy;
    }
}

sub _subtract {
    my ($left, $right) = @_;
    my $rcopy = $right->copy;
    my $raw   = gsl_complex_negative($right->raw);

    $rcopy->set_raw($raw);

    return _addition($left, $rcopy);
}

sub _addition {
    my ($left, $right) = @_;

    my $lcopy = $left->copy;
    my $raw;

    if ( blessed $right && $right->isa('Math::GSL::Complex') && blessed $left && $left->isa('Math::GSL::Complex') ) {
        $raw = gsl_complex_add($lcopy->raw, $right->raw);
    } else {
        $raw = gsl_complex_add_constant($lcopy->raw, $right);
    }
    $lcopy->set_raw($raw);
    return $lcopy;
}

sub set_raw {
    my ($self, $raw) = @_;
    $self->{_complex} = $raw;
    return $self;
}

sub new {
    my ($class, @values) = @_;
    my $this = {};
    $this->{_complex} = gsl_complex_rect($values[0], $values[1]);
    bless $this, $class;
}
sub real {
    my ($self) = @_;
    gsl_real($self->raw);
}

sub imag {
    my ($self) = @_;
    gsl_imag($self->raw);
}

sub parts {
    my ($self) = @_;
    gsl_parts($self->raw);
}

sub raw  { (shift)->{_complex} }


### some important macros that are in gsl_complex.h
sub gsl_complex_eq {
    my ($z,$w) = @_;
    gsl_real($z) == gsl_real($w) && gsl_imag($z) == gsl_imag($w) ? 1 : 0;
}

sub gsl_set_real {
    my ($z,$r) = @_;
    doubleArray_setitem($z->{dat}, 0, $r);
}

sub gsl_set_imag {
    my ($z,$i) = @_;
    doubleArray_setitem($z->{dat}, 1, $i);
}

sub gsl_real {
    my $z = shift;
    return doubleArray_getitem($z->{dat}, 0 );
}

sub gsl_imag {
    my $z = shift;
    return doubleArray_getitem($z->{dat}, 1 );
}

sub gsl_parts {
    my $z = shift;
    return (gsl_real($z), gsl_imag($z));
}

sub gsl_set_complex {
    my ($z, $r, $i) = @_;
    gsl_set_real($z, $r);
    gsl_set_imag($z, $i);
}

=head1 NAME

Math::GSL::Complex - Complex Numbers

=head1 SYNOPSIS

    use Math::GSL::Complex qw/:all/;
    my $complex = Math::GSL::Complex->new([3,2]); # creates a complex number 3+2*i
    my $real = $complex->real;                    # returns the real part
    my $imag = $complex->imag;                    # returns the imaginary part
    $complex->gsl_set_real(5);                    # changes the real part to 5
    $complex->gsl_set_imag(4);                    # changes the imaginary part to 4
    $complex->gsl_set_complex(7,6);               # changes it to 7 + 6*i
    ($real, $imag) = $complex->parts;             # get both at once

=head1 DESCRIPTION

Here is a list of all the functions included in this module :

=over 1

=item C<gsl_complex_arg($z)>

Return the argument of the complex number $z

=item C<gsl_complex_abs($z)>

Return |$z|, the magnitude of the complex number $z

=item C<gsl_complex_rect($x,$y)>

Create a complex number in cartesian form $x + $y*i

=item C<gsl_complex_polar($r,$theta)>

Create a complex number in polar form $r*exp(i*$theta)

=item C<gsl_complex_abs2($z)>

Return |$z|^2, the squared magnitude of the complex number $z

=item C<gsl_complex_logabs($z)>

Return log(|$z|), the natural logarithm of the magnitude of the complex number $z

=item C<gsl_complex_add($c1, $c2)>

Return a complex number which is the sum of the complex numbers $c1 and $c2

=item C<gsl_complex_sub($c1, $c2)>

Return a complex number which is the difference between $c1 and $c2 ($c1 - $c2)

=item C<gsl_complex_mul($c1, $c2)>

Return a complex number which is the product of the complex numbers $c1 and $c2

=item C<gsl_complex_div($c1, $c2)>

Return a complex number which is the quotient of the complex numbers $c1 and $c2 ($c1 / $c2)

=item C<gsl_complex_add_real($c, $x)>

Return the sum of the complex number $c and the real number $x

=item C<gsl_complex_sub_real($c, $x)>

Return the difference of the complex number $c and the real number $x

=item C<gsl_complex_mul_real($c, $x)>

Return the product of the complex number $c and the real number $x

=item C<gsl_complex_div_real($c, $x)>

Return the quotient of the complex number $c and the real number $x

=item C<gsl_complex_add_imag($c, $y)>

Return sum of the complex number $c and the imaginary number i*$x

=item C<gsl_complex_sub_imag($c, $y)>

Return the diffrence of the complex number $c and the imaginary number i*$x

=item C<gsl_complex_mul_imag($c, $y)>

Return the product of the complex number $c and the imaginary number i*$x

=item C<gsl_complex_div_imag($c, $y)>

Return the quotient of the complex number $c and the imaginary number i*$x

=item C<gsl_complex_conjugate($c)>

Return the conjugate of the of the complex number $c (x - i*y)

=item C<gsl_complex_inverse($c)>

Return the inverse, or reciprocal of the complex number $c (1/$c)

=item C<gsl_complex_negative($c)>

Return the negative of the complex number $c (-x -i*y)

=item C<gsl_complex_sqrt($c)>

Return the square root of the complex number $c

=item C<gsl_complex_sqrt_real($x)>

Return the complex square root of the real number $x, where $x may be negative

=item C<gsl_complex_pow($c1, $c2)>

Return the complex number $c1 raised to the complex power $c2

=item C<gsl_complex_pow_real($c, $x)>

Return the complex number raised to the real power $x

=item C<gsl_complex_exp($c)>

Return the complex exponential of the complex number $c

=item C<gsl_complex_log($c)>

Return the complex natural logarithm (base e) of the complex number $c

=item C<gsl_complex_log10($c)>

Return the complex base-10 logarithm of the complex number $c

=item C<gsl_complex_log_b($c, $b)>

Return the complex base-$b of the complex number $c

=item C<gsl_complex_sin($c)>

Return the complex sine of the complex number $c

=item C<gsl_complex_cos($c)>

Return the complex cosine of the complex number $c

=item C<gsl_complex_sec($c)>

Return the complex secant of the complex number $c

=item C<gsl_complex_csc($c)>

Return the complex cosecant of the complex number $c

=item C<gsl_complex_tan($c)>

Return the complex tangent of the complex number $c

=item C<gsl_complex_cot($c)>

Return the complex cotangent of the complex number $c

=item C<gsl_complex_arcsin($c)>

Return the complex arcsine of the complex number $c

=item C<gsl_complex_arcsin_real($x)>

Return the complex arcsine of the real number $x

=item C<gsl_complex_arccos($c)>

Return the complex arccosine of the complex number $c

=item C<gsl_complex_arccos_real($x)>

Return the complex arccosine of the real number $x

=item C<gsl_complex_arcsec($c)>

Return the complex arcsecant of the complex number $c

=item C<gsl_complex_arcsec_real($x)>

Return the complex arcsecant of the real number $x

=item C<gsl_complex_arccsc($c)>

Return the complex arccosecant of the complex number $c

=item C<gsl_complex_arccsc_real($x)>

Return the complex arccosecant of the real number $x

=item C<gsl_complex_arctan($c)>

Return the complex arctangent of the complex number $c

=item C<gsl_complex_arccot($c)>

Return the complex arccotangent of the complex number $c

=item C<gsl_complex_sinh($c)>

Return the complex hyperbolic sine of the complex number $c

=item C<gsl_complex_cosh($c)>

Return the complex hyperbolic cosine of the complex number $cy

=item C<gsl_complex_sech($c)>

Return the complex hyperbolic secant of the complex number $c

=item C<gsl_complex_csch($c)>

Return the complex hyperbolic cosecant of the complex number $c

=item C<gsl_complex_tanh($c)>

Return the complex hyperbolic tangent of the complex number $c

=item C<gsl_complex_coth($c)>

Return the complex hyperbolic cotangent of the complex number $c

=item C<gsl_complex_arcsinh($c)>

Return the complex hyperbolic arcsine of the complex number $c

=item C<gsl_complex_arccosh($c)>

Return the complex hyperbolic arccosine of the complex number $c

=item C<gsl_complex_arccosh_real($x)>

Return the complex hyperbolic arccosine of the real number $x

=item C<gsl_complex_arcsech($c)>

Return the complex hyperbolic arcsecant of the complex number $c

=item C<gsl_complex_arccsch($c)>

Return the complex hyperbolic arccosecant of the complex number $c

=item C<gsl_complex_arctanh($c)>

Return the complex hyperbolic arctangent of the complex number $c

=item C<gsl_complex_arctanh_real($x)>

Return the complex hyperbolic arctangent of the real number $x

=item C<gsl_complex_arccoth($c)>

Return the complex hyperbolic arccotangent of the complex number $c

=item C<gsl_real($z)>

Return the real part of $z

=item C<gsl_imag($z)>

Return the imaginary part of $z

=item C<gsl_parts($z)>

Return a list of the real and imaginary parts of $z

=item C<gsl_set_real($z, $x)>

Sets the real part of $z to $x

=item C<gsl_set_imag($z, $y)>

Sets the imaginary part of $z to $y

=item C<gsl_set_complex($z, $x, $h)>

Sets the real part of $z to $x and the imaginary part to $y

=back

=head1 EXAMPLES

This code defines $z as 6 + 4*i, takes the complex conjugate of that number, then prints it out.

=over 1

    my $z = gsl_complex_rect(6,4);
    my $y = gsl_complex_conjugate($z);
    my ($real, $imag) = gsl_parts($y);
    print "z = $real + $imag*i\n";

=back

This code defines $z as 5 + 3*i, multiplies it by 2 and then prints it out.

=over 1

    my $x = gsl_complex_rect(5,3);
    my $z = gsl_complex_mul_real($x, 2);
    my $real = gsl_real($z);
    my $imag = gsl_imag($z);
    print "Re(\$z) = $real\n";

=back

=head1 AUTHORS

Jonathan "Duke" Leto <jonathan@leto.net> and Thierry Moisan <thierry.moisan@gmail.com>

=head1 COPYRIGHT AND LICENSE

Copyright (C) 2008-2024 Jonathan "Duke" Leto and Thierry Moisan

This program is free software; you can redistribute it and/or modify it
under the same terms as Perl itself.

=cut
1;