Provided by: libimager-perl_0.98+dfsg-2_amd64 
NAME
Imager::ImageTypes - image models for Imager
SYNOPSIS
use Imager;
$img = Imager->new(); # Empty image (size is 0 by 0)
$img->open(file=>'lena.png',type=>'png'); # Read image from file
$img = Imager->new(xsize=>400, ysize=>300); # RGB data
$img = Imager->new(xsize=>400, ysize=>300, # Grayscale
channels=>1); #
$img = Imager->new(xsize=>400, ysize=>300, # RGB with alpha
channels=>4); #
$img = Imager->new(xsize=>200, ysize=>200,
type=>'paletted'); # paletted image
$img = Imager->new(xsize=>200, ysize=>200,
bits=>16); # 16 bits/channel rgb
$img = Imager->new(xsize=>200, ysize=>200,
bits=>'double'); # 'double' floating point
# per channel
$img->img_set(xsize=>500, ysize=>500, # reset the image object
channels=>4);
# Example getting information about an Imager object
print "Image information:\n";
print "Width: ", $img->getwidth(), "\n";
print "Height: ", $img->getheight(), "\n";
print "Channels: ", $img->getchannels(), "\n";
print "Bits/Channel: ", $img->bits(), "\n";
print "Virtual: ", $img->virtual() ? "Yes" : "No", "\n";
my $colorcount = $img->getcolorcount(maxcolors=>512);
print "Actual number of colors in image: ";
print defined($colorcount) ? $colorcount : ">512", "\n";
print "Type: ", $img->type(), "\n";
if ($img->type() eq 'direct') {
print "Modifiable Channels: ";
print join " ", map {
($img->getmask() & 1<<$_) ? $_ : ()
} 0..$img->getchannels();
print "\n";
} else {
# palette info
my $count = $img->colorcount;
@colors = $img->getcolors();
print "Palette size: $count\n";
my $mx = @colors > 4 ? 4 : 0+@colors;
print "First $mx entries:\n";
for (@colors[0..$mx-1]) {
my @res = $_->rgba();
print "(", join(", ", @res[0..$img->getchannels()-1]), ")\n";
}
}
my @tags = $img->tags();
if (@tags) {
print "Tags:\n";
for(@tags) {
print shift @$_, ": ", join " ", @$_, "\n";
}
} else {
print "No tags in image\n";
}
DESCRIPTION
Imager supports two basic models of image:
• direct color - all samples are stored for every pixel. eg. for an 8-bit/sample RGB
image, 24 bits are stored for each pixel.
• paletted - an index into a table of colors is stored for each pixel.
Direct color or paletted images can have 1 to 4 samples per color stored. Imager treats
these as follows:
• 1 sample per color - gray scale image.
• 2 samples per color - gray scale image with alpha channel, allowing transparency.
• 3 samples per color - RGB image.
• 4 samples per color - RGB image with alpha channel, allowing transparency.
Direct color images can have sample sizes of 8-bits per sample, 16-bits per sample or a
double precision floating point number per sample (64-bits on many systems).
Paletted images are always 8-bits/sample.
To query an existing image about it's parameters see the "bits()", "type()", "getwidth()",
"getheight()", "getchannels()" and "virtual()" methods.
The coordinate system in Imager has the origin in the upper left corner, see Imager::Draw
for details.
The alpha channel when one is present is considered unassociated - ie the color data has
not been scaled by the alpha channel. Note that not all code follows this (recent) rule,
but will over time.
Creating Imager Objects
new()
$img = Imager->new();
$img->read(file=>"alligator.ppm") or die $img->errstr;
Here "new()" creates an empty image with width and height of zero. It's only useful
for creating an Imager object to call the read() method on later.
%opts = (xsize=>300, ysize=>200);
$img = Imager->new(%opts); # create direct mode RGBA image
$img = Imager->new(%opts, channels=>4); # create direct mode RGBA image
You can also read a file from new():
$img = Imager->new(file => "someimage.png");
The parameters for new are:
• "xsize", "ysize" - Defines the width and height in pixels of the image. These
must be positive.
If not supplied then only placeholder object is created, which can be supplied to
the "read()" or "img_set()" methods.
• "channels" - The number of channels for the image. Default 3. Valid values are
from 1 to 4.
• "bits" - The storage type for samples in the image. Default: 8. Valid values
are:
• 8 - One byte per sample. 256 discrete values.
• 16 - 16-bits per sample, 65536 discrete values.
• "double" - one C double per sample.
Note: you can use any Imager function on any sample size image.
Paletted images always use 8 bits/sample.
• "type" - either 'direct' or 'paletted'. Default: 'direct'.
Direct images store color values for each pixel.
Paletted images keep a table of up to 256 colors called the palette, each pixel is
represented as an index into that table.
In most cases when working with Imager you will want to use the "direct" image
type.
If you draw on a "paletted" image with a color not in the image's palette then
Imager will transparently convert it to a "direct" image.
• "maxcolors" - the maximum number of colors in a paletted image. Default: 256.
This must be in the range 1 through 256.
• "file", "fh", "fd", "callback", "readcb" - specify a file name, filehandle, file
descriptor or callback to read image data from. See Imager::Files for details.
The typical use is:
my $im = Imager->new(file => $filename);
• "filetype" - treated as the file format parameter, as for "type" with the read()
method, eg:
my $im = Imager->new(file => $filename, filetype => "gif");
In most cases Imager will detect the file's format itself.
In the simplest case just supply the width and height of the image:
# 8 bit/sample, RGB image
my $img = Imager->new(xsize => $width, ysize => $height);
or if you want an alpha channel:
# 8 bits/sample, RGBA image
my $img = Imager->new(xsize => $width, ysize => $height, channels=>4);
Note that it is possible for image creation to fail, for example if channels is out of
range, or if the image would take too much memory.
To create paletted images, set the 'type' parameter to 'paletted':
$img = Imager->new(xsize=>200, ysize=>200, type=>'paletted');
which creates an image with a maximum of 256 colors, which you can change by supplying
the "maxcolors" parameter.
For improved color precision you can use the bits parameter to specify 16 bit per
channel:
$img = Imager->new(xsize=>200, ysize=>200,
channels=>3, bits=>16);
or for even more precision:
$img = Imager->new(xsize=>200, ysize=>200,
channels=>3, bits=>'double');
to get an image that uses a double for each channel.
Note that as of this writing all functions should work on images with more than
8-bits/channel, but many will only work at only 8-bit/channel precision.
If you want an empty Imager object to call the read() method on, just call new() with
no parameters:
my $img = Imager->new;
$img->read(file=>$filename)
or die $img->errstr;
Though it's much easier now to just call new() with a "file" parameter:
my $img = Imager->new(file => $filename)
or die Imager->errstr;
img_set()
img_set destroys the image data in the object and creates a new one with the given
dimensions and channels. For a way to convert image data between formats see the
"convert()" method.
$img->img_set(xsize=>500, ysize=>500, channels=>4);
This takes exactly the same parameters as the new() method.
Image Attribute functions
These return basic attributes of an image object.
getwidth()
print "Image width: ", $img->getwidth(), "\n";
The "getwidth()" method returns the width of the image. This value comes either from
"new()" with "xsize", "ysize" parameters or from reading data from a file with
"read()". If called on an image that has no valid data in it like "Imager->new()"
returns, the return value of "getwidth()" is undef.
getheight()
print "Image height: ", $img->getheight(), "\n";
Same details apply as for "getwidth()".
getchannels()
print "Image has ",$img->getchannels(), " channels\n";
To get the number of channels in an image "getchannels()" is used.
bits()
The bits() method retrieves the number of bits used to represent each channel in a
pixel, 8 for a normal image, 16 for 16-bit image and 'double' for a double/channel
image.
if ($img->bits eq 8) {
# fast but limited to 8-bits/sample
}
else {
# slower but more precise
}
type()
The type() method returns either 'direct' for direct color images or 'paletted' for
paletted images.
if ($img->type eq 'paletted') {
# print the palette
for my $color ($img->getcolors) {
print join(",", $color->rgba), "\n";
}
}
virtual()
The virtual() method returns non-zero if the image contains no actual pixels, for
example masked images.
This may also be used for non-native Imager images in the future, for example, for an
Imager object that draws on an SDL surface.
is_bilevel()
Tests if the image will be written as a monochrome or bi-level image for formats that
support that image organization.
In scalar context, returns true if the image is bi-level.
In list context returns a list:
($is_bilevel, $zero_is_white) = $img->is_bilevel;
An image is considered bi-level, if all of the following are true:
• the image is a paletted image
• the image has 1 or 3 channels
• the image has only 2 colors in the palette
• those 2 colors are black and white, in either order.
If a real bi-level organization image is ever added to Imager, this function will
return true for that too.
Direct Type Images
Direct images store the color value directly for each pixel in the image.
getmask()
@rgbanames = qw( red green blue alpha );
my $mask = $img->getmask();
print "Modifiable channels:\n";
for (0..$img->getchannels()-1) {
print $rgbanames[$_],"\n" if $mask & 1<<$_;
}
"getmask()" is used to fetch the current channel mask. The mask determines what
channels are currently modifiable in the image. The channel mask is an integer value,
if the "i-th" least significant bit is set the "i-th" channel is modifiable. eg. a
channel mask of 0x5 means only channels 0 and 2 are writable.
setmask()
$mask = $img->getmask();
$img->setmask(mask=>8); # modify alpha only
...
$img->setmask(mask=>$mask); # restore previous mask
"setmask()" is used to set the channel mask of the image. See "getmask()" for
details.
Palette Type Images
Paletted images keep an array of up to 256 colors, and each pixel is stored as an index
into that array.
In general you can work with paletted images in the same way as RGB images, except that if
you attempt to draw to a paletted image with a color that is not in the image's palette,
the image will be converted to an RGB image. This means that drawing on a paletted image
with anti-aliasing enabled will almost certainly convert the image to RGB.
Palette management takes place through "addcolors()", "setcolors()", "getcolors()" and
"findcolor()":
addcolors()
You can add colors to a paletted image with the addcolors() method:
my @colors = ( Imager::Color->new(255, 0, 0),
Imager::Color->new(0, 255, 0) );
my $index = $img->addcolors(colors=>\@colors);
The return value is the index of the first color added, or undef if adding the colors
would overflow the palette.
The only parameter is "colors" which must be a reference to an array of Imager::Color
objects.
setcolors()
$img->setcolors(start=>$start, colors=>\@colors);
Once you have colors in the palette you can overwrite them with the "setcolors()"
method: "setcolors()" returns true on success.
Parameters:
• start - the first index to be set. Default: 0
• colors - reference to an array of Imager::Color objects.
getcolors()
To retrieve existing colors from the palette use the getcolors() method:
# get the whole palette
my @colors = $img->getcolors();
# get a single color
my $color = $img->getcolors(start=>$index);
# get a range of colors
my @colors = $img->getcolors(start=>$index, count=>$count);
findcolor()
To quickly find a color in the palette use findcolor():
my $index = $img->findcolor(color=>$color);
which returns undef on failure, or the index of the color.
Parameter:
• color - an Imager::Color object.
colorcount()
Returns the number of colors in the image's palette:
my $count = $img->colorcount;
maxcolors()
Returns the maximum size of the image's palette.
my $maxcount = $img->maxcolors;
Color Distribution
getcolorcount()
Calculates the number of colors in an image.
The amount of memory used by this is proportional to the number of colors present in
the image, so to avoid using too much memory you can supply a maxcolors() parameter to
limit the memory used.
Note: getcolorcount() treats the image as an 8-bit per sample image.
• "maxcolors" - the maximum number of colors to return. Default: unlimited.
if (defined($img->getcolorcount(maxcolors=>512)) {
print "Less than 512 colors in image\n";
}
getcolorusagehash()
Calculates a histogram of colors used by the image.
• "maxcolors" - the maximum number of colors to return. Default: unlimited.
Returns a reference to a hash where the keys are the raw color as bytes, and the
values are the counts for that color.
The alpha channel of the image is ignored. If the image is gray scale then the hash
keys will each be a single character.
my $colors = $img->getcolorusagehash;
my $blue_count = $colors->{pack("CCC", 0, 0, 255)} || 0;
print "#0000FF used $blue_count times\n";
getcolorusage()
Calculates color usage counts and returns just the counts.
• "maxcolors" - the maximum number of colors to return. Default: unlimited.
Returns a list of the color frequencies in ascending order.
my @counts = $img->getcolorusage;
print "The most common color is used $counts[0] times\n";
Conversion Between Image Types
Warning: if you draw on a paletted image with colors that aren't in the palette, the image
will be internally converted to a normal image.
to_paletted()
You can create a new paletted image from an existing image using the to_paletted()
method:
$palimg = $img->to_paletted(\%opts)
where %opts contains the options specified under "Quantization options".
# convert to a paletted image using the web palette
# use the closest color to each pixel
my $webimg = $img->to_paletted({ make_colors => 'webmap' });
# convert to a paletted image using a fairly optimal palette
# use an error diffusion dither to try to reduce the average error
my $optimag = $img->to_paletted({ make_colors => 'mediancut',
translate => 'errdiff' });
to_rgb8()
You can convert a paletted image (or any image) to an 8-bit/channel RGB image with:
$rgbimg = $img->to_rgb8;
No parameters.
to_rgb16()
Convert a paletted image (or any image) to a 16-bit/channel RGB image.
$rgbimg = $img->to_rgb16;
No parameters.
to_rgb_double()
Convert a paletted image (or any image) to an double/channel direct color image.
$rgbimg = $img->to_rgb_double;
No parameters.
masked()
Creates a masked image. A masked image lets you create an image proxy object that
protects parts of the underlying target image.
In the discussion below there are 3 image objects involved:
• the masked image - the return value of the masked() method. Any writes to this
image are written to the target image, assuming the mask image allows it.
• the mask image - the image that protects writes to the target image. Supplied as
the "mask" parameter to the masked() method.
• the target image - the image you called the masked() method on. Any writes to the
masked image end up on this image.
Parameters:
• mask - the mask image. If not supplied then all pixels in the target image are
writable. On each write to the masked image, only pixels that have non-zero in
channel 0 of the mask image will be written to the original image. Default: none,
if not supplied then no masking is done, but the other parameters are still
honored.
• left, top - the offset of writes to the target image. eg. if you attempt to set
pixel (x,y) in the masked image, then pixel (x+left, y+top) will be written to in
the original image.
• bottom, right - the bottom right of the area in the target available from the
masked image.
Masked images let you control which pixels are modified in an underlying image. Where
the first channel is completely black in the mask image, writes to the underlying
image are ignored.
For example, given a base image called $img:
my $mask = Imager->new(xsize=>$img->getwidth, ysize=>$img->getheight,
channels=>1);
# ... draw something on the mask
my $maskedimg = $img->masked(mask=>$mask);
# now draw on $maskedimg and it will only draw on areas of $img
# where $mask is non-zero in channel 0.
You can specify the region of the underlying image that is masked using the left, top,
right and bottom options.
If you just want a subset of the image, without masking, just specify the region
without specifying a mask. For example:
# just work with a 100x100 region of $img
my $maskedimg = $img->masked(left => 100, top=>100,
right=>200, bottom=>200);
make_palette()
This doesn't perform an image conversion, but it can be used to construct a common
palette for use in several images:
my @colors = Imager->make_palette(\%opts, @images);
You must supply at least one image, even if the "make_colors" parameter produces a
fixed palette.
On failure returns no colors and you can check "Imager->errstr".
Tags
Image tags contain meta-data about the image, ie. information not stored as pixels of the
image.
At the perl level each tag has a name or code and a value, which is an integer or an
arbitrary string. An image can contain more than one tag with the same name or code, but
having more than one tag with the same name is discouraged.
You can retrieve tags from an image using the tags() method, you can get all of the tags
in an image, as a list of array references, with the code or name of the tag followed by
the value of the tag.
Imager's support for fairly limited, for access to pretty much all image metadata you may
want to try Image::ExifTool.
tags()
Retrieve tags from the image.
With no parameters, retrieves a list array references, each containing a name and
value: all tags in the image:
# get a list of ( [ name1 => value1 ], [ name2 => value2 ] ... )
my @alltags = $img->tags;
print $_->[0], ":", $_->[1], "\n" for @all_tags;
# or put it in a hash, but this will lose duplicates
my %alltags = map @$_, $img->tags;
in scalar context this returns the number of tags:
my $num_tags = $img->tags;
or you can get all tags values for the given name:
my @namedtags = $img->tags(name => $name);
in scalar context this returns the first tag of that name:
my $firstnamed = $img->tags(name => $name);
or a given code:
my @tags = $img->tags(code=>$code);
addtag()
You can add tags using the addtag() method, either by name:
my $index = $img->addtag(name=>$name, value=>$value);
or by code:
my $index = $img->addtag(code=>$code, value=>$value);
deltag()
You can remove tags with the deltag() method, either by index:
$img->deltag(index=>$index);
or by name:
$img->deltag(name=>$name);
or by code:
$img->deltag(code=>$code);
In each case deltag() returns the number of tags deleted.
settag()
settag() replaces any existing tags with a new tag. This is equivalent to calling
deltag() then addtag().
Common Tags
Many tags are only meaningful for one format. GIF looping information is pretty useless
for JPEG for example. Thus, many tags are set by only a single reader or used by a single
writer. For a complete list of format specific tags see Imager::Files.
Since tags are a relatively new addition their use is not wide spread but eventually we
hope to have all the readers for various formats set some standard information.
• "i_xres", "i_yres" - The spatial resolution of the image in pixels per inch. If the
image format uses a different scale, eg. pixels per meter, then this value is
converted. A floating point number stored as a string.
# our image was generated as a 300 dpi image
$img->settag(name => 'i_xres', value => 300);
$img->settag(name => 'i_yres', value => 300);
# 100 pixel/cm for a TIFF image
$img->settag(name => 'tiff_resolutionunit', value => 3); # RESUNIT_CENTIMETER
# convert to pixels per inch, Imager will convert it back
$img->settag(name => 'i_xres', value => 100 * 2.54);
$img->settag(name => 'i_yres', value => 100 * 2.54);
• "i_aspect_only" - If this is non-zero then the values in i_xres and i_yres are treated
as a ratio only. If the image format does not support aspect ratios then this is
scaled so the smaller value is 72 DPI.
• "i_incomplete" - If this tag is present then the whole image could not be read. This
isn't implemented for all images yet, and may not be.
• "i_lines_read" - If "i_incomplete" is set then this tag may be set to the number of
scan lines successfully read from the file. This can be used to decide whether an
image is worth processing.
• i_format - The file format this file was read from.
• i_background - used when writing an image with an alpha channel to a file format that
doesn't support alpha channels. The "write" method will convert a normal color
specification like "#FF0000" into a color object for you, but if you set this as a tag
you will need to format it like "color("red","green","blue")", eg color(255,0,0).
• "i_comment" - used when reading or writing several image formats. If the format has
only one text field it will be read into the "i_comment" tag or written to the file.
Quantization options
These options can be specified when calling "to_paletted()" in Imager::ImageTypes,
write_multi() for GIF files, when writing a single image with the "gifquant" option set to
"gen", or for direct calls to i_writegif_gen() and i_writegif_callback().
• "colors" - An arrayref of colors that are fixed. Note that some color generators will
ignore this. If this is supplied it will be filled with the color table generated for
the image.
• "transp" - The type of transparency processing to perform for images with an alpha
channel where the output format does not have a proper alpha channel (eg. GIF). This
can be any of:
• "none" - No transparency processing is done. (default)
• "threshold" - pixels more transparent than "tr_threshold" are rendered as
transparent.
• "errdiff" - An error diffusion dither is done on the alpha channel. Note that
this is independent of the translation performed on the color channels, so some
combinations may cause undesired artifacts.
• "ordered" - the ordered dither specified by tr_orddith is performed on the alpha
channel.
This will only be used if the image has an alpha channel, and if there is space in the
palette for a transparency color.
• "tr_threshold" - the highest alpha value at which a pixel will be made transparent
when "transp" is 'threshold'. (0-255, default 127)
• "tr_errdiff" - The type of error diffusion to perform on the alpha channel when
"transp" is "errdiff". This can be any defined error diffusion type except for custom
(see "errdiff" below).
• "tr_orddith" - The type of ordered dither to perform on the alpha channel when
"transp" is 'ordered'. Possible values are:
• "random" - A semi-random map is used. The map is the same each time.
• "dot8" - 8x8 dot dither.
• "dot4" - 4x4 dot dither
• "hline" - horizontal line dither.
• "vline" - vertical line dither.
• "/line", "slashline" - diagonal line dither
• "\line", "backline" - diagonal line dither
• "tiny" - dot matrix dither (currently the default). This is probably the best for
displays (like web pages).
• "custom" - A custom dither matrix is used - see "tr_map".
• "tr_map" - When tr_orddith is custom this defines an 8 x 8 matrix of integers
representing the transparency threshold for pixels corresponding to each position.
This should be a 64 element array where the first 8 entries correspond to the first
row of the matrix. Values should be between 0 and 255.
• "make_colors" - Defines how the quantization engine will build the palette(s).
Currently this is ignored if "translate" is "giflib", but that may change. Possible
values are:
• "none" - only colors supplied in 'colors' are used.
• "webmap" - the web color map is used (need URL here.)
• "addi" - The original code for generating the color map (Addi's code) is used.
• "mediancut" - Uses a median-cut algorithm, faster than "addi", but not as good a
result.
• "mono", "monochrome" - a fixed black and white palette, suitable for producing bi-
level images (eg. facsimile)
• "gray", "gray4", "gray16" - make fixed gray palette with 256, 4 or 16 entries
respectively.
Other methods may be added in the future.
• "colors" - an arrayref containing Imager::Color objects, which represents the starting
set of colors to use in translating the images. "webmap" will ignore this. On return
the final colors used are copied back into this array (which is expanded if
necessary.)
• "max_colors" - the maximum number of colors to use in the image.
• "translate" - The method used to translate the RGB values in the source image into the
colors selected by make_colors. Note that make_colors is ignored when "translate" is
"giflib".
Possible values are:
• "giflib" - this is a historical equivalent for "closest" that also forces
"make_colors" to "mediancut".
• "closest" - the closest color available is used.
• "perturb" - the pixel color is modified by "perturb", and the closest color is
chosen.
• "errdiff" - an error diffusion dither is performed. If the supplied (or
generated) palette contains only grays the source colors are converted to gray
before error diffusion is performed.
It's possible other "translate" values will be added.
• "errdiff" - The type of error diffusion dither to perform. These values (except for
custom) can also be used in tr_errdif.
• "floyd" - Floyd-Steinberg dither
• "jarvis" - Jarvis, Judice and Ninke dither
• "stucki" - Stucki dither
• "custom" - custom. If you use this you must also set "errdiff_width",
"errdiff_height" and "errdiff_map".
• "errdiff_width", "errdiff_height", "errdiff_orig", "errdiff_map" - When "translate" is
"errdiff" and "errdiff" is "custom" these define a custom error diffusion map.
"errdiff_width" and "errdiff_height" define the size of the map in the arrayref in
"errdiff_map". "errdiff_orig" is an integer which indicates the current pixel
position in the top row of the map.
• "perturb" - When translate is "perturb" this is the magnitude of the random bias
applied to each channel of the pixel before it is looked up in the color table.
INITIALIZATION
This documents the Imager initialization function, which you will almost never need to
call.
init()
This is a function, not a method.
This function is a mess, it can take the following named parameters:
• "log" - name of a log file to log Imager's actions to. Not all actions are
logged, but the debugging memory allocator does log allocations here. Ignored if
Imager has been built without logging support. Preferably use the open_log()
method instead.
• "loglevel" - the maximum level of message to log. Default: 1.
• "warn_obsolete" - if this is non-zero then Imager will warn when you attempt to
use obsoleted parameters or functionality. This currently only includes the old
GIF output options instead of tags.
• "t1log" - if non-zero then T1lib will be configured to produce a log file. This
will fail if there are any existing T1lib font objects.
Example:
Imager::init(log => 'trace.log', loglevel => 9);
LOGGING METHODS
Imager can open an internal log to send debugging information to. This log is extensively
used in Imager's tests, but you're unlikely to use it otherwise.
If Imager has been built with logging disabled, the methods fail quietly.
open_log()
Open the Imager debugging log file.
• "log" - the file name to log to. If this is undef logging information is sent to
the standard error stream.
• "loglevel" the level of logging to produce. Default: 1.
Returns a true value if the log file was opened successfully.
# send debug output to test.log
Imager->open_log(log => "test.log");
# send debug output to stderr
Imager->open_log();
close_log()
Close the Imager debugging log file and disable debug logging.
No parameters.
Imager->close_log();
log()
Imager->log($message)
Imager->log($message, $level)
This method does not use named parameters.
The default for $level is 1.
Send a message to the debug log.
Imager->log("My code got here!");
is_logging()
Returns a true value if logging is enabled.
AUTHOR
Tony Cook <tonyc@cpan.org>, Arnar M. Hrafnkelsson
SEE ALSO
Imager(3), Imager::Files(3), Imager::Draw(3), Imager::Color(3), Imager::Fill(3),
Imager::Font(3), Imager::Transformations(3), Imager::Engines(3), Imager::Filters(3),
Imager::Expr(3), Imager::Matrix2d(3), Imager::Fountain(3)