3DPrinting/PrusaSlicer-NonPlainar
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Merge branch 'master' into grow-narrow

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Conflicts:
	lib/Slic3r/Fill.pm
	lib/Slic3r/Print/Object.pm
This commit is contained in:
Alessandro Ranellucci 2013-03-17 02:30:20 +01:00
commit 1064c9bb2a
25 changed files with 280 additions and 163 deletions
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4
README.markdown
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@ -197,6 +197,7 @@ The author of the Silk icon set is Mark James.
--extra-perimeters Add more perimeters when needed (default: yes)
--randomize-start Randomize starting point across layers (default: yes)
--avoid-crossing-perimeters Optimize travel moves so that no perimeters are crossed (default: no)
--external-perimeters-first Reverse perimeter order. (default: no)
--only-retract-when-crossing-perimeters
Disable retraction when travelling between infill paths inside the same island.
(default: yes)
@ -288,6 +289,7 @@ The author of the Silk icon set is Mark James.
Miscellaneous options:
--notes Notes to be added as comments to the output file
--resolution Minimum detail resolution (mm, set zero for full resolution, default: 0)
Flow options (advanced):
--extrusion-width Set extrusion width manually; it accepts either an absolute value in mm
@ -298,6 +300,8 @@ The author of the Silk icon set is Mark James.
Set a different extrusion width for perimeters
--infill-extrusion-width
Set a different extrusion width for infill
--solid-infill-extrusion-width
Set a different extrusion width for solid infill
--top-infill-extrusion-width
Set a different extrusion width for top infill
--support-material-extrusion-width

2
lib/Slic3r.pm
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@ -67,7 +67,7 @@ use constant SCALED_RESOLUTION => RESOLUTION / SCALING_FACTOR;
use constant OVERLAP_FACTOR => 1;
use constant SMALL_PERIMETER_LENGTH => (6.5 / SCALING_FACTOR) * 2 * PI;
use constant LOOP_CLIPPING_LENGTH_OVER_SPACING => 0.15;
use constant PERIMETER_INFILL_OVERLAP_OVER_SPACING => 0.45;
use constant INFILL_OVERLAP_OVER_SPACING => 0.45;
our $Config;

30
lib/Slic3r/Config.pm
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@ -37,6 +37,15 @@ our $Options = {
default => $Slic3r::have_threads ? 2 : 1,
readonly => !$Slic3r::have_threads,
},
'resolution' => {
label => 'Resolution',
tooltip => 'Minimum detail resolution, used to simplify the input file for speeding up the slicing job and reducing memory usage. High-resolution models often carry more detail than printers can render. Set to zero to disable any simplification and use full resolution from input.',
sidetext => 'mm',
cli => 'resolution=f',
type => 'f',
min => 0,
default => 0,
},
# output options
'output_filename_format' => {
@ -368,7 +377,7 @@ our $Options = {
cli => 'first-layer-height=s',
type => 'f',
ratio_over => 'layer_height',
default => '100%',
default => 0.35,
},
'infill_every_layers' => {
label => 'Infill every',
@ -437,8 +446,16 @@ our $Options = {
type => 'f',
default => 0,
},
'solid_infill_extrusion_width' => {
label => 'Solid infill',
tooltip => 'Set this to a non-zero value to set a manual extrusion width for infill for solid surfaces. If expressed as percentage (for example 90%) if will be computed over layer height.',
sidetext => 'mm or % (leave 0 for default)',
cli => 'solid-infill-extrusion-width=s',
type => 'f',
default => 0,
},
'top_infill_extrusion_width' => {
label => 'Top infill',
label => 'Top solid infill',
tooltip => 'Set this to a non-zero value to set a manual extrusion width for infill for top surfaces. You may want to use thinner extrudates to fill all narrow regions and get a smoother finish. If expressed as percentage (for example 90%) if will be computed over layer height.',
sidetext => 'mm or % (leave 0 for default)',
cli => 'top-infill-extrusion-width=s',
@ -506,7 +523,7 @@ our $Options = {
type => 'select',
values => [qw(rectilinear line concentric honeycomb hilbertcurve archimedeanchords octagramspiral)],
labels => [qw(rectilinear line concentric honeycomb), 'hilbertcurve (slow)', 'archimedeanchords (slow)', 'octagramspiral (slow)'],
default => 'rectilinear',
default => 'honeycomb',
},
'solid_fill_pattern' => {
label => 'Top/bottom fill pattern',
@ -562,6 +579,13 @@ our $Options = {
type => 'bool',
default => 0,
},
'external_perimeters_first' => {
label => 'External perimeters first',
tooltip => 'Print contour perimeters from the outermost one to the innermost one instead of the default inverse order.',
cli => 'external-perimeters-first!',
type => 'bool',
default => 0,
},
'only_retract_when_crossing_perimeters' => {
label => 'Only retract when crossing perimeters',
tooltip => 'Disables retraction when travelling between infill paths inside the same island.',

9
lib/Slic3r/ExPolygon.pm
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@ -172,8 +172,13 @@ sub clip_line {
sub simplify {
my $self = shift;
$_->simplify(@_) for @$self;
$self;
my ($tolerance) = @_;
# it would be nice to have a multilinestring_simplify method in B::G::U
my @simplified = Slic3r::Geometry::Clipper::simplify_polygons(
[ map Boost::Geometry::Utils::linestring_simplify($_, $tolerance), @$self ],
);
return @{ Slic3r::Geometry::Clipper::union_ex([ @simplified ]) };
}
sub scale {

16
lib/Slic3r/ExtrusionPath.pm
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@ -5,8 +5,8 @@ require Exporter;
our @ISA = qw(Exporter);
our @EXPORT_OK = qw(EXTR_ROLE_PERIMETER EXTR_ROLE_EXTERNAL_PERIMETER
EXTR_ROLE_CONTOUR_INTERNAL_PERIMETER
EXTR_ROLE_FILL EXTR_ROLE_SOLIDFILL EXTR_ROLE_TOPSOLIDFILL EXTR_ROLE_BRIDGE EXTR_ROLE_SKIRT
EXTR_ROLE_SUPPORTMATERIAL EXTR_ROLE_GAPFILL);
EXTR_ROLE_FILL EXTR_ROLE_SOLIDFILL EXTR_ROLE_TOPSOLIDFILL EXTR_ROLE_BRIDGE
EXTR_ROLE_INTERNALBRIDGE EXTR_ROLE_SKIRT EXTR_ROLE_SUPPORTMATERIAL EXTR_ROLE_GAPFILL);
our %EXPORT_TAGS = (roles => \@EXPORT_OK);
use Slic3r::Geometry qw(PI X Y epsilon deg2rad rotate_points);
@ -30,9 +30,10 @@ use constant EXTR_ROLE_FILL => 4;
use constant EXTR_ROLE_SOLIDFILL => 5;
use constant EXTR_ROLE_TOPSOLIDFILL => 6;
use constant EXTR_ROLE_BRIDGE => 7;
use constant EXTR_ROLE_SKIRT => 8;
use constant EXTR_ROLE_SUPPORTMATERIAL => 9;
use constant EXTR_ROLE_GAPFILL => 10;
use constant EXTR_ROLE_INTERNALBRIDGE => 8;
use constant EXTR_ROLE_SKIRT => 9;
use constant EXTR_ROLE_SUPPORTMATERIAL => 10;
use constant EXTR_ROLE_GAPFILL => 11;
use constant PACK_FMT => 'ffca*';
@ -81,6 +82,11 @@ sub clip_with_expolygon {
return @paths;
}
sub simplify {
my $self = shift;
$self->polyline($self->polyline->simplify(@_));
}
sub points {
my $self = shift;
return $self->polyline;

36
lib/Slic3r/Fill.pm
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@ -90,10 +90,11 @@ sub make_fill {
);
push @surfaces, map Slic3r::Surface->new(
expolygon => $_,
surface_type => $group->[0]->surface_type,
bridge_angle => $group->[0]->bridge_angle,
depth_layers => $group->[0]->depth_layers,
expolygon => $_,
surface_type => $group->[0]->surface_type,
bridge_angle => $group->[0]->bridge_angle,
thickness => $group->[0]->thickness,
thickness_layers => $group->[0]->thickness_layers,
), @$union;
}
}
@ -107,7 +108,7 @@ sub make_fill {
# we are going to grow such regions by overlapping them with the void (if any)
# TODO: detect and investigate whether there could be narrow regions without
# any void neighbors
my $distance_between_surfaces = $layerm->infill_flow->scaled_spacing;
my $distance_between_surfaces = $layerm->solid_infill_flow->scaled_spacing;
{
my $collapsed = diff(
[ map @{$_->expolygon}, @surfaces ],
@ -132,7 +133,7 @@ sub make_fill {
}
# add spacing between surfaces
@surfaces = map $_->offset(-$distance_between_surfaces/2), @surfaces;
@surfaces = map $_->offset(-$distance_between_surfaces / 2 * &Slic3r::INFILL_OVERLAP_OVER_SPACING), @surfaces;
my @fills = ();
my @fills_ordering_points = ();
@ -140,9 +141,12 @@ sub make_fill {
next if $surface->surface_type == S_TYPE_INTERNALVOID;
my $filler = $Slic3r::Config->fill_pattern;
my $density = $Slic3r::Config->fill_density;
my $flow_spacing = ($surface->surface_type == S_TYPE_TOP)
? $layerm->top_infill_flow->spacing
: $layerm->infill_flow->spacing;
my $flow = ($surface->surface_type == S_TYPE_TOP)
? $layerm->top_infill_flow
: $surface->is_solid
? $layerm->solid_infill_flow
: $layerm->infill_flow;
my $flow_spacing = $flow->spacing;
my $is_bridge = $layerm->id > 0 && $surface->is_bridge;
my $is_solid = $surface->is_solid;
@ -184,12 +188,14 @@ sub make_fill {
paths => [
map Slic3r::ExtrusionPath->pack(
polyline => Slic3r::Polyline->new(@$_),
role => ($is_bridge
? EXTR_ROLE_BRIDGE
: $is_solid
? ($surface->surface_type == S_TYPE_TOP ? EXTR_ROLE_TOPSOLIDFILL : EXTR_ROLE_SOLIDFILL)
: EXTR_ROLE_FILL),
height => $surface->depth_layers * $layerm->height,
role => ($surface->surface_type == S_TYPE_INTERNALBRIDGE
? EXTR_ROLE_INTERNALBRIDGE
: $is_bridge
? EXTR_ROLE_BRIDGE
: $is_solid
? ($surface->surface_type == S_TYPE_TOP ? EXTR_ROLE_TOPSOLIDFILL : EXTR_ROLE_SOLIDFILL)
: EXTR_ROLE_FILL),
height => $surface->thickness,
flow_spacing => $params->{flow_spacing} || (warn "Warning: no flow_spacing was returned by the infill engine, please report this to the developer\n"),
), @paths,
],

2
lib/Slic3r/Fill/Base.pm
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@ -20,7 +20,7 @@ sub infill_direction {
if (defined $self->layer_id) {
# alternate fill direction
my $layer_num = $self->layer_id / $surface->depth_layers;
my $layer_num = $self->layer_id / $surface->thickness_layers;
my $angle = $self->angles->[$layer_num % @{$self->angles}];
$rotate[0] = Slic3r::Geometry::deg2rad($self->angle) + $angle if $angle;
}

16
lib/Slic3r/Fill/Honeycomb.pm
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@ -22,11 +22,10 @@ sub fill_surface {
# infill math
my $min_spacing = scale $params{flow_spacing};
my $distance = $min_spacing / $params{density};
my $overlap_distance = scale $params{flow_spacing} * &Slic3r::PERIMETER_INFILL_OVERLAP_OVER_SPACING;
my $cache_id = sprintf "d%s_s%s_a%s",
$params{density}, $params{flow_spacing}, $rotate_vector->[0][0];
if (!$self->cache->{$cache_id}) {
if (!$self->cache->{$cache_id} || !defined $self->bounding_box) {
# hexagons math
my $hex_side = $distance / (sqrt(3)/2);
@ -40,15 +39,10 @@ sub fill_surface {
# adjust actual bounding box to the nearest multiple of our hex pattern
# and align it so that it matches across layers
$self->bounding_box([ $expolygon->bounding_box ]) if !defined $self->bounding_box;
my $bounding_box = [ 0, 0, $self->bounding_box->[X2], $self->bounding_box->[Y2] ];
my $bounding_box = [ $self->bounding_box ? @{$self->bounding_box} : $expolygon->bounding_box ];
$bounding_box->[$_] = 0 for X1, Y1;
{
my $bb_polygon = Slic3r::Polygon->new([
[ $bounding_box->[X1], $bounding_box->[Y1] ],
[ $bounding_box->[X2], $bounding_box->[Y1] ],
[ $bounding_box->[X2], $bounding_box->[Y2] ],
[ $bounding_box->[X1], $bounding_box->[Y2] ],
]);
my $bb_polygon = Slic3r::Polygon->new_from_bounding_box($bounding_box);
$bb_polygon->rotate($rotate_vector->[0][0], $hex_center);
$bounding_box = [ Slic3r::Geometry::bounding_box($bb_polygon) ];
# $bounding_box->[X1] and [Y1] represent the displacement between new bounding box offset and old one
@ -89,7 +83,7 @@ sub fill_surface {
# path is more straight
my @paths = map Slic3r::Polyline->new(@$_), map @$_, @{intersection_ex(
$self->cache->{$cache_id},
[ map @$_, $expolygon->offset_ex($overlap_distance) ],
$expolygon,
)};
return { flow_spacing => $params{flow_spacing} },

6
lib/Slic3r/Fill/Rectilinear.pm
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@ -31,8 +31,6 @@ sub fill_surface {
$flow_spacing = unscale $distance_between_lines;
}
my $overlap_distance = scale $params{flow_spacing} * &Slic3r::PERIMETER_INFILL_OVERLAP_OVER_SPACING;
my $x = $bounding_box->[X1];
my $is_line_pattern = $self->isa('Slic3r::Fill::Line');
my @vertical_lines = ();
@ -52,10 +50,6 @@ sub fill_surface {
+($expolygon->offset_ex(scaled_epsilon))[0], # TODO: we should use all the resulting expolygons and clip the linestrings to a multipolygon object
[ @vertical_lines ],
) };
for (@paths) {
$_->[0][Y] += $overlap_distance;
$_->[-1][Y] -= $overlap_distance;
}
# connect lines
unless ($params{dont_connect}) {

15
lib/Slic3r/Flow.pm
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@ -1,11 +1,11 @@
package Slic3r::Flow;
use Moo;
use List::Util qw(max);
use Slic3r::Geometry qw(PI scale);
has 'nozzle_diameter' => (is => 'ro', required => 1);
has 'layer_height' => (is => 'ro', default => sub { $Slic3r::Config->layer_height });
has 'role' => (is => 'ro', default => sub { '' });
has 'width' => (is => 'rwp', builder => 1);
has 'spacing' => (is => 'lazy');
@ -36,12 +36,13 @@ sub _build_width {
$width = $self->nozzle_diameter * ($self->nozzle_diameter/$self->layer_height - 4/PI + 1);
}
my $min = max(
($volume / $self->layer_height),
($self->nozzle_diameter * 1.05),
);
my $max = $self->nozzle_diameter * 2;
$width = $max if $width > $max;
my $min = $self->nozzle_diameter * 1.05;
my $max;
if ($self->role ne 'infill') {
# do not limit width for sparse infill so that we use full native flow for it
$max = $self->nozzle_diameter * 1.7;
}
$width = $max if defined($max) && $width > $max;
$width = $min if $width < $min;
return $width;

5
lib/Slic3r/GCode.pm
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@ -53,6 +53,7 @@ my %role_speeds = (
&EXTR_ROLE_SOLIDFILL => 'solid_infill',
&EXTR_ROLE_TOPSOLIDFILL => 'top_solid_infill',
&EXTR_ROLE_BRIDGE => 'bridge',
&EXTR_ROLE_INTERNALBRIDGE => 'solid_infill',
&EXTR_ROLE_SKIRT => 'perimeter',
&EXTR_ROLE_SUPPORTMATERIAL => 'support_material',
&EXTR_ROLE_GAPFILL => 'gap_fill',
@ -203,13 +204,13 @@ sub extrude_path {
$acceleration = $Slic3r::Config->perimeter_acceleration;
} elsif ($Slic3r::Config->infill_acceleration && $path->is_fill) {
$acceleration = $Slic3r::Config->infill_acceleration;
} elsif ($Slic3r::Config->infill_acceleration && $path->role == EXTR_ROLE_BRIDGE) {
} elsif ($Slic3r::Config->infill_acceleration && ($path->role == EXTR_ROLE_BRIDGE || $path->role == EXTR_ROLE_INTERNALBRIDGE)) {
$acceleration = $Slic3r::Config->bridge_acceleration;
}
$gcode .= $self->set_acceleration($acceleration) if $acceleration;
my $area; # mm^3 of extrudate per mm of tool movement
if ($path->role == EXTR_ROLE_BRIDGE) {
if ($path->role == EXTR_ROLE_BRIDGE || $path->role == EXTR_ROLE_INTERNALBRIDGE) {
my $s = $path->flow_spacing;
$area = ($s**2) * PI/4;
} else {

14
lib/Slic3r/GCode/MotionPlanner.pm
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@ -56,22 +56,20 @@ sub BUILD {
}
};
# simplify islands
@{$self->islands} = map $_->simplify($self->_inner_margin), @{$self->islands};
# process individual islands
for my $i (0 .. $#{$self->islands}) {
# simplify the island's contours
$self->islands->[$i]->simplify($self->_inner_margin);
# offset the island inwards to make the boundaries for internal movements
# so that no motion along external perimeters happens
$self->_inner->[$i] = [ $self->islands->[$i]->offset_ex(-$self->_inner_margin) ]
if !$self->no_internal;
$self->_inner->[$i] = $self->no_internal
? []
: [ $self->islands->[$i]->offset_ex(-$self->_inner_margin) ];
# offset the island outwards to make the boundaries for external movements
$self->_outer->[$i] = [ $self->islands->[$i]->contour->offset($self->_outer_margin) ];
# further simplification (isn't this a duplication of the one above?)
$_->simplify($self->_inner_margin) for @{$self->_inner->[$i]}, @{$self->_outer->[$i]};
# if internal motion is enabled, build a set of utility expolygons representing
# the outer boundaries (as contours) and the inner boundaries (as holes). whenever
# we jump from a hole to a contour or viceversa, we know we're crossing a perimeter

3
lib/Slic3r/GUI/Plater.pm
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@ -1137,9 +1137,8 @@ sub make_thumbnail {
for (map @$_, map @$_, @{$thumbnail->expolygons}) {
@$_ = map $_ * $self->thumbnail_scaling_factor, @$_;
}
@{$thumbnail->expolygons} = map $_->simplify(0.5), grep $_->area >= 1, @{$thumbnail->expolygons};
foreach my $expolygon (@{$thumbnail->expolygons}) {
@$expolygon = grep $_->area >= 1, @$expolygon;
$expolygon->simplify(0.5);
$expolygon->rotate(Slic3r::Geometry::deg2rad($self->rotate));
$expolygon->scale($self->scale);
}

10
lib/Slic3r/GUI/Tab.pm
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@ -407,7 +407,7 @@ sub build {
},
{
title => 'Advanced',
options => [qw(avoid_crossing_perimeters)],
options => [qw(avoid_crossing_perimeters external_perimeters_first)],
},
]);
@ -511,16 +511,16 @@ sub build {
{
title => 'Extrusion width',
label_width => 180,
options => [qw(extrusion_width first_layer_extrusion_width perimeter_extrusion_width infill_extrusion_width top_infill_extrusion_width support_material_extrusion_width)],
options => [qw(extrusion_width first_layer_extrusion_width perimeter_extrusion_width infill_extrusion_width solid_infill_extrusion_width top_infill_extrusion_width support_material_extrusion_width)],
},
{
title => 'Flow',
options => [qw(bridge_flow_ratio)],
},
$Slic3r::have_threads ? {
{
title => 'Other',
options => [qw(threads)],
} : (),
options => [($Slic3r::have_threads ? qw(threads) : ()), qw(resolution)],
},
]);
}

11
lib/Slic3r/Geometry.pm
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@ -12,7 +12,7 @@ our @EXPORT_OK = qw(
point_is_on_left_of_segment polyline_lines polygon_lines nearest_point
point_along_segment polygon_segment_having_point polygon_has_subsegment
polygon_has_vertex polyline_length can_connect_points deg2rad rad2deg
rotate_points move_points remove_coinciding_points clip_segment_polygon
rotate_points move_points clip_segment_polygon
sum_vectors multiply_vector subtract_vectors dot perp polygon_points_visibility
line_intersection bounding_box bounding_box_intersect same_point same_line
longest_segment angle3points three_points_aligned line_direction
@ -375,15 +375,6 @@ sub move_points {
return map Slic3r::Point->new($shift->[X] + $_->[X], $shift->[Y] + $_->[Y]), @points;
}
# preserves order
sub remove_coinciding_points {
my ($points) = @_;
my %p = map { sprintf('%f,%f', @$_) => "$_" } @$points;
%p = reverse %p;
@$points = grep $p{"$_"}, @$points;
}
# implementation of Liang-Barsky algorithm
# polygon must be convex and ccw
sub clip_segment_polygon {

10
lib/Slic3r/Geometry/Clipper.pm
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@ -100,4 +100,14 @@ sub collapse_ex {
return union_ex([@result]);
}
sub simplify_polygon {
my ($polygon, $pft) = @_;
return @{ Math::Clipper::simplify_polygon($polygon, $pft // PFT_NONZERO) };
}
sub simplify_polygons {
my ($polygons, $pft) = @_;
return @{ Math::Clipper::simplify_polygons($polygons, $pft // PFT_NONZERO) };
}
1;

41
lib/Slic3r/Layer/Region.pm
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@ -16,6 +16,7 @@ has 'layer' => (
has 'region' => (is => 'ro', required => 1, handles => [qw(extruders)]);
has 'perimeter_flow' => (is => 'rw');
has 'infill_flow' => (is => 'rw');
has 'solid_infill_flow' => (is => 'rw');
has 'top_infill_flow' => (is => 'rw');
has 'infill_area_threshold' => (is => 'lazy');
has 'overhang_width' => (is => 'lazy');
@ -59,15 +60,15 @@ sub _update_flows {
return if !$self->region;
if ($self->id == 0) {
$self->perimeter_flow
($self->region->first_layer_flows->{perimeter} || $self->region->flows->{perimeter});
$self->infill_flow
($self->region->first_layer_flows->{infill} || $self->region->flows->{infill});
$self->top_infill_flow
($self->region->first_layer_flows->{top_infill} || $self->region->flows->{top_infill});
for (qw(perimeter infill solid_infill top_infill)) {
my $method = "${_}_flow";
$self->$method
($self->region->first_layer_flows->{$_} || $self->region->flows->{$_});
}
} else {
$self->perimeter_flow($self->region->flows->{perimeter});
$self->infill_flow($self->region->flows->{infill});
$self->solid_infill_flow($self->region->flows->{solid_infill});
$self->top_infill_flow($self->region->flows->{top_infill});
}
}
@ -80,7 +81,7 @@ sub _build_overhang_width {
sub _build_infill_area_threshold {
my $self = shift;
return $self->infill_flow->scaled_spacing ** 2;
return $self->solid_infill_flow->scaled_spacing ** 2;
}
# build polylines from lines
@ -160,7 +161,7 @@ sub make_perimeters {
my $self = shift;
my $perimeter_spacing = $self->perimeter_flow->scaled_spacing;
my $infill_spacing = $self->infill_flow->scaled_spacing;
my $infill_spacing = $self->solid_infill_flow->scaled_spacing;
my $gap_area_threshold = $self->perimeter_flow->scaled_width ** 2;
# this array will hold one arrayref per original surface (island);
@ -263,14 +264,14 @@ sub make_perimeters {
# we offset by half the perimeter spacing (to get to the actual infill boundary)
# and then we offset back and forth by the infill spacing to only consider the
# non-collapsing regions
my @fill_boundaries = @{union_ex([
Slic3r::Geometry::Clipper::offset(
[Slic3r::Geometry::Clipper::offset([ map @$_, @last_offsets ], -($perimeter_spacing/2 + $infill_spacing))],
+$infill_spacing,
),
])};
$_->simplify(&Slic3r::SCALED_RESOLUTION) for @fill_boundaries;
push @{ $self->fill_surfaces }, @fill_boundaries;
push @{ $self->fill_surfaces },
map $_->simplify(&Slic3r::SCALED_RESOLUTION),
@{union_ex([
Slic3r::Geometry::Clipper::offset(
[Slic3r::Geometry::Clipper::offset([ map @$_, @last_offsets ], -($perimeter_spacing/2 + $infill_spacing))],
+$infill_spacing,
),
])};
}
# fill gaps
@ -404,10 +405,14 @@ sub make_perimeters {
}
}
# do holes, then contours starting from innermost one
# first do holes
$self->_add_perimeter($holes[$_], $is_external{$_} ? EXTR_ROLE_EXTERNAL_PERIMETER : undef)
for reverse 0 .. $#holes;
for my $depth (reverse 0 .. $#$island) {
# then do contours according to the user settings
my @contour_order = 0 .. $#$island;
@contour_order = reverse @contour_order if !$Slic3r::Config->external_perimeters_first;
for my $depth (@contour_order) {
my $role = $depth == $#$island ? EXTR_ROLE_CONTOUR_INTERNAL_PERIMETER
: $depth == 0 ? EXTR_ROLE_EXTERNAL_PERIMETER
: EXTR_ROLE_PERIMETER;

20
lib/Slic3r/Polygon.pm
View File

@ -6,9 +6,22 @@ use warnings;
use parent 'Slic3r::Polyline';
use Slic3r::Geometry qw(polygon_lines polygon_remove_parallel_continuous_edges
polygon_remove_acute_vertices polygon_segment_having_point point_in_polygon);
polygon_remove_acute_vertices polygon_segment_having_point point_in_polygon
X1 X2 Y1 Y2);
use Slic3r::Geometry::Clipper qw(JT_MITER);
sub new_from_bounding_box {
my $class = shift;
my ($bounding_box) = @_;
return $class->new([
[ $bounding_box->[X1], $bounding_box->[Y1] ],
[ $bounding_box->[X2], $bounding_box->[Y1] ],
[ $bounding_box->[X2], $bounding_box->[Y2] ],
[ $bounding_box->[X1], $bounding_box->[Y2] ],
]);
}
sub lines {
my $self = shift;
return polygon_lines($self);
@ -97,6 +110,11 @@ sub grow {
return $self->split_at_first_point->grow(@_);
}
sub simplify {
my $self = shift;
return Slic3r::Geometry::Clipper::simplify_polygon( $self->SUPER::simplify(@_) );
}
# this method subdivides the polygon segments to that no one of them
# is longer than the length provided
sub subdivide {

4
lib/Slic3r/Polyline.pm
View File

@ -68,8 +68,8 @@ sub simplify {
my $self = shift;
my $tolerance = shift || 10;
@$self = @{ Boost::Geometry::Utils::linestring_simplify($self, $tolerance) };
bless $_, 'Slic3r::Point' for @$self;
my $simplified = Boost::Geometry::Utils::linestring_simplify($self, $tolerance);
return (ref $self)->new($simplified);
}
sub reverse {

37
lib/Slic3r/Print.pm
View File

@ -134,7 +134,7 @@ sub add_model {
if ($object->instances) {
# replace the default [0,0] instance with the custom ones
@{$print_object->copies} = map [ scale $_->offset->[X], scale $_->offset->[Y] ], @{$object->instances};
$print_object->copies([ map [ scale $_->offset->[X], scale $_->offset->[Y] ], @{$object->instances} ]);
}
}
}
@ -201,17 +201,20 @@ sub init_extruders {
my $region = $self->regions->[$region_id];
# per-role extruders and flows
for (qw(perimeter infill top_infill)) {
my $extruder_name = $_ eq 'top_infill' ? 'infill' : $_;
for (qw(perimeter infill solid_infill top_infill)) {
my $extruder_name = $_;
$extruder_name =~ s/^(?:solid|top)_//;
$region->extruders->{$_} = ($self->regions_count > 1)
? $self->extruders->[$extruder_mapping{$region_id}]
: $self->extruders->[$self->config->get("${extruder_name}_extruder")-1];
$region->flows->{$_} = $region->extruders->{$_}->make_flow(
width => $self->config->get("${_}_extrusion_width") || $self->config->extrusion_width,
role => $_,
);
$region->first_layer_flows->{$_} = $region->extruders->{$_}->make_flow(
layer_height => $self->config->get_value('first_layer_height'),
width => $self->config->first_layer_extrusion_width,
role => $_,
) if $self->config->first_layer_extrusion_width;
}
}
@ -221,10 +224,12 @@ sub init_extruders {
my $extruder = $self->extruders->[$self->config->support_material_extruder-1];
$self->support_material_flow($extruder->make_flow(
width => $self->config->support_material_extrusion_width || $self->config->extrusion_width,
role => 'support_material',
));
$self->first_layer_support_material_flow($extruder->make_flow(
layer_height => $self->config->get_value('first_layer_height'),
width => $self->config->first_layer_extrusion_width,
role => 'support_material',
));
}
}
@ -313,6 +318,16 @@ sub size {
return [ $bb[X2] - $bb[X1], $bb[Y2] - $bb[Y1] ];
}
sub _simplify_slices {
my $self = shift;
my ($distance) = @_;
foreach my $layer (map @{$_->layers}, @{$self->objects}) {
@$_ = map $_->simplify($distance), @$_
for $layer->slices, (map $_->slices, @{$layer->regions});
}
}
sub export_gcode {
my $self = shift;
my %params = @_;
@ -324,7 +339,12 @@ sub export_gcode {
# skein the STL into layers
# each layer has surfaces with holes
$status_cb->(10, "Processing triangulated mesh");
$_->slice(keep_meshes => $params{keep_meshes}) for @{$self->objects};
$_->slice for @{$self->objects};
if ($Slic3r::Config->resolution) {
$status_cb->(15, "Simplifying input");
$self->_simplify_slices(scale $Slic3r::Config->resolution);
}
# make perimeters
# this will add a set of extrusion loops to each layer
@ -334,10 +354,7 @@ sub export_gcode {
# simplify slices (both layer and region slices),
# we only need the max resolution for perimeters
foreach my $layer (map @{$_->layers}, @{$self->objects}) {
$_->simplify(&Slic3r::SCALED_RESOLUTION)
for @{$layer->slices}, (map $_->expolygon, map @{$_->slices}, @{$layer->regions});
}
$self->_simplify_slices(&Slic3r::SCALED_RESOLUTION);
# this will assign a type (top/bottom/internal) to $layerm->slices
# and transform $layerm->fill_surfaces from expolygon
@ -477,7 +494,7 @@ sub export_svg {
# calls ->perimeter_flow
$self->init_extruders;
$_->slice(keep_meshes => $params{keep_meshes}) for @{$self->objects};
$_->slice for @{$self->objects};
$self->arrange_objects;
my $output_file = $self->expanded_output_filepath($params{output_file});
@ -684,6 +701,8 @@ sub write_gcode {
}
printf $fh "; perimeters extrusion width = %.2fmm\n", $self->regions->[0]->flows->{perimeter}->width;
printf $fh "; infill extrusion width = %.2fmm\n", $self->regions->[0]->flows->{infill}->width;
printf $fh "; solid infill extrusion width = %.2fmm\n", $self->regions->[0]->flows->{solid_infill}->width;
printf $fh "; top infill extrusion width = %.2fmm\n", $self->regions->[0]->flows->{top_infill}->width;
printf $fh "; support material extrusion width = %.2fmm\n", $self->support_material_flow->width
if $self->support_material_flow;
printf $fh "; first layer extrusion width = %.2fmm\n", $self->regions->[0]->first_layer_flows->{perimeter}->width

72
lib/Slic3r/Print/Object.pm
View File

@ -3,7 +3,7 @@ use Moo;
use List::Util qw(min sum first);
use Slic3r::ExtrusionPath ':roles';
use Slic3r::Geometry qw(Z PI scale unscale deg2rad rad2deg scaled_epsilon);
use Slic3r::Geometry qw(Z PI scale unscale deg2rad rad2deg scaled_epsilon chained_path_points);
use Slic3r::Geometry::Clipper qw(diff_ex intersection_ex union_ex offset collapse_ex);
use Slic3r::Surface ':types';
@ -11,7 +11,7 @@ has 'print' => (is => 'ro', weak_ref => 1, required => 1);
has 'input_file' => (is => 'rw', required => 0);
has 'meshes' => (is => 'rw', default => sub { [] }); # by region_id
has 'size' => (is => 'rw', required => 1);
has 'copies' => (is => 'rw', default => sub {[ [0,0] ]});
has 'copies' => (is => 'rw', default => sub {[ [0,0] ]}, trigger => 1);
has 'layers' => (is => 'rw', default => sub { [] });
has 'layer_height_ranges' => (is => 'rw', default => sub { [] }); # [ z_min, z_max, layer_height ]
@ -50,6 +50,14 @@ sub BUILD {
}
}
sub _trigger_copies {
my $self = shift;
return unless @{$self->copies} > 1;
# order copies with a nearest neighbor search
@{$self->copies} = @{chained_path_points($self->copies)}
}
sub layer_count {
my $self = shift;
return scalar @{ $self->layers };
@ -121,7 +129,7 @@ sub slice {
die "Invalid input file\n" if !@{$self->layers};
# free memory
$self->meshes(undef) unless $params{keep_meshes};
$self->meshes(undef);
# remove last layer if empty
# (we might have created it because of the $max_layer = ... + 1 code in TriangleMesh)
@ -580,7 +588,7 @@ sub discover_horizontal_shells {
# make sure the new internal solid is wide enough, as it might get collapsed when
# spacing is added in Fill.pm
{
my $margin = 3 * $layerm->infill_flow->scaled_width; # require at least this size
my $margin = 3 * $layerm->solid_infill_flow->scaled_width; # require at least this size
my $too_narrow = diff_ex(
[ map @$_, @$new_internal_solid ],
[ offset([ offset([ map @$_, @$new_internal_solid ], -$margin) ], +$margin) ],
@ -658,7 +666,7 @@ sub combine_infill {
my $nozzle_diameter = $self->print->regions->[$region_id]->extruders->{infill}->nozzle_diameter;
# define the combinations
my @combine = (); # layer_id => depth
my @combine = (); # layer_id => thickness in layers
{
my $current_height = my $layers = 0;
for my $layer_id (1 .. $#layer_heights) {
@ -706,15 +714,16 @@ sub combine_infill {
# $intersection now contains the regions that can be combined across the full amount of layers
# so let's remove those areas from all layers
my @intersection_with_clearance = map $_->offset(
$layerms[-1]->infill_flow->scaled_width / 2
+ $layerms[-1]->perimeter_flow->scaled_width / 2
# Because fill areas for rectilinear and honeycomb are grown
# later to overlap perimeters, we need to counteract that too.
+ (($type == S_TYPE_INTERNALSOLID || $Slic3r::Config->fill_pattern =~ /(rectilinear|honeycomb)/)
? $layerms[-1]->infill_flow->scaled_width * &Slic3r::PERIMETER_INFILL_OVERLAP_OVER_SPACING
: 0)
), @$intersection;
my @intersection_with_clearance = map $_->offset(
$layerms[-1]->solid_infill_flow->scaled_width / 2
+ $layerms[-1]->perimeter_flow->scaled_width / 2
# Because fill areas for rectilinear and honeycomb are grown
# later to overlap perimeters, we need to counteract that too.
+ (($type == S_TYPE_INTERNALSOLID || $Slic3r::Config->fill_pattern =~ /(rectilinear|honeycomb)/)
? $layerms[-1]->solid_infill_flow->scaled_width * &Slic3r::INFILL_OVERLAP_OVER_SPACING
: 0)
), @$intersection;
foreach my $layerm (@layerms) {
my @this_type = grep $_->surface_type == $type, @{$layerm->fill_surfaces};
@ -729,7 +738,12 @@ sub combine_infill {
# apply surfaces back with adjusted depth to the uppermost layer
if ($layerm->id == $layer_id) {
push @new_this_type,
map Slic3r::Surface->new(expolygon => $_, surface_type => $type, depth_layers => $every),
map Slic3r::Surface->new(
expolygon => $_,
surface_type => $type,
thickness => sum(map $_->height, @layerms),
thickness_layers => scalar(@layerms),
),
@$intersection;
} else {
# save void surfaces
@ -789,8 +803,10 @@ sub generate_support_material {
[ map @$_, @{ $upper_layers_overhangs[-1] || [] } ],
[ map @$_, @current_layer_offsetted_slices ],
);
$layers_contact_areas{$i} = collapse_ex([ map @$_, @{$layers_contact_areas{$i}} ], $flow->scaled_width);
$_->simplify($flow->scaled_spacing) for @{$layers_contact_areas{$i}};
$layers_contact_areas{$i} = [
map $_->simplify($flow->scaled_spacing),
@{collapse_ex([ map @$_, @{$layers_contact_areas{$i}} ], $flow->scaled_width)},
];
# to define interface regions of this layer we consider the overhangs of all the upper layers
# minus the first one
@ -801,8 +817,10 @@ sub generate_support_material {
(map @$_, @{ $layers_contact_areas{$i} }),
],
);
$layers_interfaces{$i} = collapse_ex([ map @$_, @{$layers_interfaces{$i}} ], $flow->scaled_width);
$_->simplify($flow->scaled_spacing) for @{$layers_interfaces{$i}};
$layers_interfaces{$i} = [
map $_->simplify($flow->scaled_spacing),
@{collapse_ex([ map @$_, @{$layers_interfaces{$i}} ], $flow->scaled_width)},
];
# generate support material in current layer (for upper layers)
@current_support_regions = @{diff_ex(
@ -821,8 +839,10 @@ sub generate_support_material {
(map @$_, @{ $layers_interfaces{$i} }),
],
);
$layers{$i} = collapse_ex([ map @$_, @{$layers{$i}} ], $flow->scaled_width);
$_->simplify($flow->scaled_spacing) for @{$layers{$i}};
$layers{$i} = [
map $_->simplify($flow->scaled_spacing),
@{collapse_ex([ map @$_, @{$layers{$i}} ], $flow->scaled_width)},
];
# get layer overhangs and put them into queue for adding support inside lower layers;
# we need an angle threshold for this
@ -835,8 +855,8 @@ sub generate_support_material {
? scale $lower_layer->height * ((cos $threshold_rad) / (sin $threshold_rad))
: $self->layers->[1]->regions->[0]->overhang_width;
@overhangs = map $_->offset_ex(2 * $distance), @{diff_ex(
[ map @$_, map $_->offset_ex(-$distance), @{$layer->slices} ],
@overhangs = map $_->offset_ex(+$distance), @{diff_ex(
[ map @$_, @{$layer->slices} ],
[ map @$_, @{$lower_layer->slices} ],
1,
)};
@ -858,7 +878,7 @@ sub generate_support_material {
{
# 0.5 ensures the paths don't get clipped externally when applying them to layers
my @areas = map $_->offset_ex(- 0.5 * $flow->scaled_width),
@{union_ex([ map $_->contour, map @$_, values %layers ])};
@{union_ex([ map $_->contour, map @$_, values %layers, values %layers_interfaces, values %layers_contact_areas ])};
my $pattern = $Slic3r::Config->support_material_pattern;
my @angles = ($Slic3r::Config->support_material_angle);
@ -866,7 +886,11 @@ sub generate_support_material {
$pattern = 'rectilinear';
push @angles, $angles[0] + 90;
}
my $filler = Slic3r::Fill->filler($pattern);
$filler->bounding_box([ Slic3r::Geometry::bounding_box([ map @$_, map @$_, @areas ]) ])
if $filler->can('bounding_box');
my $make_pattern = sub {
my ($expolygon, $density) = @_;

55
lib/Slic3r/Surface.pm
View File

@ -7,11 +7,12 @@ our @ISA = qw(Exporter);
our @EXPORT_OK = qw(S_TYPE_TOP S_TYPE_BOTTOM S_TYPE_INTERNAL S_TYPE_INTERNALSOLID S_TYPE_INTERNALBRIDGE S_TYPE_INTERNALVOID);
our %EXPORT_TAGS = (types => \@EXPORT_OK);
use constant S_EXPOLYGON => 0;
use constant S_SURFACE_TYPE => 1;
use constant S_DEPTH_LAYERS => 2;
use constant S_BRIDGE_ANGLE => 3;
use constant S_EXTRA_PERIMETERS => 4;
use constant S_EXPOLYGON => 0;
use constant S_SURFACE_TYPE => 1;
use constant S_THICKNESS => 2; # in mm
use constant S_THICKNESS_LAYERS => 3; # in layers
use constant S_BRIDGE_ANGLE => 4;
use constant S_EXTRA_PERIMETERS => 5;
use constant S_TYPE_TOP => 0;
use constant S_TYPE_BOTTOM => 1;
@ -25,9 +26,9 @@ sub new {
my %args = @_;
my $self = [
map delete $args{$_}, qw(expolygon surface_type depth_layers bridge_angle extra_perimeters),
map delete $args{$_}, qw(expolygon surface_type thickness thickness_layers bridge_angle extra_perimeters),
];
$self->[S_DEPTH_LAYERS] //= 1; #/
$self->[$_] //= 1 for S_THICKNESS, S_THICKNESS_LAYERS;
bless $self, $class;
$self;
@ -35,7 +36,8 @@ sub new {
sub expolygon { $_[0][S_EXPOLYGON] }
sub surface_type { $_[0][S_SURFACE_TYPE] = $_[1] if defined $_[1]; $_[0][S_SURFACE_TYPE] }
sub depth_layers { $_[0][S_DEPTH_LAYERS] } # this integer represents the thickness of the surface expressed in layers
sub thickness { $_[0][S_THICKNESS] }
sub thickness_layers { $_[0][S_THICKNESS_LAYERS] }
sub bridge_angle { $_[0][S_BRIDGE_ANGLE] = $_[1] if defined $_[1]; $_[0][S_BRIDGE_ANGLE] }
sub extra_perimeters { $_[0][S_EXTRA_PERIMETERS] = $_[1] if defined $_[1]; $_[0][S_EXTRA_PERIMETERS] }
@ -46,7 +48,8 @@ if (eval "use Class::XSAccessor::Array; 1") {
},
accessors => {
surface_type => S_SURFACE_TYPE,
depth_layers => S_DEPTH_LAYERS,
thickness => S_THICKNESS,
thickness_layers => S_THICKNESS_LAYERS,
bridge_angle => S_BRIDGE_ANGLE,
extra_perimeters => S_EXTRA_PERIMETERS,
},
@ -60,7 +63,7 @@ sub lines { $_[0]->expolygon->lines }
sub contour { $_[0]->expolygon->contour }
sub holes { $_[0]->expolygon->holes }
# static method to group surfaces having same surface_type, bridge_angle and depth_layers
# static method to group surfaces having same surface_type, bridge_angle and thickness*
sub group {
my $class = shift;
my $params = ref $_[0] eq 'HASH' ? shift(@_) : {};
@ -68,11 +71,11 @@ sub group {
my %unique_types = ();
foreach my $surface (@surfaces) {
my $type = ($params->{merge_solid} && $surface->is_solid)
? 'solid'
: $surface->surface_type;
$type .= "_" . ($surface->bridge_angle // ''); #/
$type .= "_" . $surface->depth_layers;
my $type = join '_',
($params->{merge_solid} && $surface->is_solid) ? 'solid' : $surface->surface_type,
($surface->bridge_angle // ''),
$surface->thickness,
$surface->thickness_layers;
$unique_types{$type} ||= [];
push @{ $unique_types{$type} }, $surface;
}
@ -82,12 +85,22 @@ sub group {
sub offset {
my $self = shift;
return map {
(ref $self)->new(
expolygon => $_,
map { $_ => $self->$_ } qw(surface_type depth_layers bridge_angle),
)
} $self->expolygon->offset_ex(@_);
return map $self->_inflate_expolygon($_), $self->expolygon->offset_ex(@_);
}
sub simplify {
my $self = shift;
return map $self->_inflate_expolygon($_), $self->expolygon->simplify(@_);
}
sub _inflate_expolygon {
my $self = shift;
my ($expolygon) = @_;
return (ref $self)->new(
expolygon => $expolygon,
map { $_ => $self->$_ } qw(surface_type thickness thickness_layers bridge_angle),
);
}
sub p {

4
slic3r.pl
View File

@ -250,6 +250,7 @@ $j
--extra-perimeters Add more perimeters when needed (default: yes)
--randomize-start Randomize starting point across layers (default: yes)
--avoid-crossing-perimeters Optimize travel moves so that no perimeters are crossed (default: no)
--external-perimeters-first Reverse perimeter order. (default: no)
--only-retract-when-crossing-perimeters
Disable retraction when travelling between infill paths inside the same island.
(default: no)
@ -341,6 +342,7 @@ $j
Miscellaneous options:
--notes Notes to be added as comments to the output file
--resolution Minimum detail resolution (mm, set zero for full resolution, default: $config->{resolution})
Flow options (advanced):
--extrusion-width Set extrusion width manually; it accepts either an absolute value in mm
@ -351,6 +353,8 @@ $j
Set a different extrusion width for perimeters
--infill-extrusion-width
Set a different extrusion width for infill
--solid-infill-extrusion-width
Set a different extrusion width for solid infill
--top-infill-extrusion-width
Set a different extrusion width for top infill
--support-material-extrusion-width

13
t/clean_polylines.t
View File

@ -2,7 +2,7 @@ use Test::More;
use strict;
use warnings;
plan tests => 6;
plan tests => 7;
BEGIN {
use FindBin;
@ -24,7 +24,7 @@ use Slic3r;
my $polyline = Slic3r::Polyline->new([
[0,0],[1,0],[2,0],[2,1],[2,2],[1,2],[0,2],[0,1],[0,0],
]);
$polyline->simplify(1);
$polyline = $polyline->simplify(1);
is_deeply $polyline, [ [0, 0], [2, 0], [2, 2], [0, 2], [0, 0] ], 'Douglas-Peucker';
}
@ -33,7 +33,7 @@ use Slic3r;
[0,0],[0.5,0.5],[1,0],[1.25,-0.25],[1.5,.5],
]);
$polyline->scale(100);
$polyline->simplify(25);
$polyline = $polyline->simplify(25);
is_deeply $polyline, [ [0, 0], [50, 50], [125, -25], [150, 50] ], 'Douglas-Peucker';
}
@ -75,9 +75,10 @@ use Slic3r;
ok @$polygon < @$gear, 'gear was simplified using merge_continuous_lines';
my $num_points = scalar @$polygon;
$polygon->simplify;
note sprintf "original points: %d\nnew points: %d", $num_points, scalar(@$polygon);
ok @$polygon < $num_points, 'gear was further simplified using Douglas-Peucker';
my @simplified = $polygon->simplify;
ok @simplified == 1, 'gear simplified to a single polygon';
note sprintf "original points: %d\nnew points: %d", $num_points, scalar(@{$simplified[0]});
ok @{$simplified[0]} < $num_points, 'gear was further simplified using Douglas-Peucker';
}
{

6
t/combineinfill.t
View File

@ -40,11 +40,11 @@ use Slic3r::Test;
# copy of Print::export_gcode() up to the point
# after fill surfaces are combined
$self->init_extruders;
$_->slice(keep_meshes => 1) for @{$self->objects};
$_->slice for @{$self->objects};
$_->make_perimeters for @{$self->objects};
foreach my $layer (map @{$_->layers}, @{$self->objects}) {
$_->simplify(&Slic3r::SCALED_RESOLUTION)
for @{$layer->slices}, (map $_->expolygon, map @{$_->slices}, @{$layer->regions});
@$_ = map $_->simplify(&Slic3r::SCALED_RESOLUTION), @$_
for $layer->slices, (map $_->slices, @{$layer->regions});
}
$_->detect_surfaces_type for @{$self->objects};
$_->prepare_fill_surfaces for map @{$_->regions}, map @{$_->layers}, @{$self->objects};