/**
* @file
* Filter Effects dialog.
*/
/* Authors:
* Nicholas Bishop <nicholasbishop@gmail.org>
* Rodrigo Kumpera <kumpera@gmail.com>
* Felipe C. da S. Sanches <juca@members.fsf.org>
* Jon A. Cruz <jon@joncruz.org>
* Abhishek Sharma
* insaner
*
* Copyright (C) 2007 Authors
*
* Released under GNU GPL. Read the file 'COPYING' for more information.
*/
#ifdef HAVE_CONFIG_H
# include <config.h>
#endif
#include "dialog-manager.h"
#include <gtkmm/imagemenuitem.h>
#if GTK_CHECK_VERSION(3,0,0)
# include <gdkmm/devicemanager.h>
#endif
#include "ui/widget/spinbutton.h"
#include <glibmm/convert.h>
#include <glibmm/i18n.h>
#include <glibmm/main.h>
#include <glibmm/stringutils.h>
#include "desktop.h"
#include "dir-util.h"
#include "document.h"
#include "document-undo.h"
#include "filter-chemistry.h"
#include "filter-effects-dialog.h"
#include "filter-enums.h"
#include "inkscape.h"
#include "path-prefix.h"
#include "preferences.h"
#include "selection.h"
#include "filters/blend.h"
#include "filters/colormatrix.h"
#include "filters/componenttransfer.h"
#include "filters/componenttransfer-funcnode.h"
#include "filters/composite.h"
#include "filters/convolvematrix.h"
#include "filters/displacementmap.h"
#include "filters/distantlight.h"
#include "filters/gaussian-blur.h"
#include "filters/merge.h"
#include "filters/mergenode.h"
#include "filters/offset.h"
#include "filters/pointlight.h"
#include "filters/spotlight.h"
#include "sp-filter-primitive.h"
#include "style.h"
#include "svg/svg-color.h"
#include "svg/stringstream.h"
#include "ui/dialog/filedialog.h"
#include "verbs.h"
#include "xml/node.h"
#include "xml/node-observer.h"
#include "xml/repr.h"
#include <sstream>
#include "io/sys.h"
#include <iostream>
#include "selection-chemistry.h"
#include <gtkmm/checkbutton.h>
#include <gtkmm/colorbutton.h>
#include <gtkmm/paned.h>
#include <gtkmm/scrolledwindow.h>
#include <gtkmm/stock.h>
#include <gdkmm/general.h>
using namespace Inkscape::Filters;
namespace Inkscape {
namespace UI {
namespace Dialog {
using Inkscape::UI::Widget::AttrWidget;
using Inkscape::UI::Widget::ComboBoxEnum;
using Inkscape::UI::Widget::DualSpinScale;
using Inkscape::UI::Widget::SpinScale;
// Returns the number of inputs available for the filter primitive type
static int input_count(const SPFilterPrimitive* prim)
{
if(!prim)
return 0;
else if(SP_IS_FEBLEND(prim) || SP_IS_FECOMPOSITE(prim) || SP_IS_FEDISPLACEMENTMAP(prim))
return 2;
else if(SP_IS_FEMERGE(prim)) {
// Return the number of feMergeNode connections plus an extra
int count = 1;
for(const SPObject* o = prim->firstChild(); o; o = o->next, ++count){};
return count;
}
else
return 1;
}
class CheckButtonAttr : public Gtk::CheckButton, public AttrWidget
{
public:
CheckButtonAttr(bool def, const Glib::ustring& label,
const Glib::ustring& tv, const Glib::ustring& fv,
const SPAttributeEnum a, char* tip_text)
: Gtk::CheckButton(label),
AttrWidget(a, def),
_true_val(tv), _false_val(fv)
{
signal_toggled().connect(signal_attr_changed().make_slot());
if (tip_text) {
set_tooltip_text(tip_text);
}
}
Glib::ustring get_as_attribute() const
{
return get_active() ? _true_val : _false_val;
}
void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
if(val) {
if(_true_val == val)
set_active(true);
else if(_false_val == val)
set_active(false);
} else {
set_active(get_default()->as_bool());
}
}
private:
const Glib::ustring _true_val, _false_val;
};
class SpinButtonAttr : public Inkscape::UI::Widget::SpinButton, public AttrWidget
{
public:
SpinButtonAttr(double lower, double upper, double step_inc,
double climb_rate, int digits, const SPAttributeEnum a, double def, char* tip_text)
: Inkscape::UI::Widget::SpinButton(climb_rate, digits),
AttrWidget(a, def)
{
if (tip_text) {
set_tooltip_text(tip_text);
}
set_range(lower, upper);
set_increments(step_inc, 0);
signal_value_changed().connect(signal_attr_changed().make_slot());
}
Glib::ustring get_as_attribute() const
{
const double val = get_value();
if(get_digits() == 0)
return Glib::Ascii::dtostr((int)val);
else
return Glib::Ascii::dtostr(val);
}
void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
if(val){
set_value(Glib::Ascii::strtod(val));
} else {
set_value(get_default()->as_double());
}
}
};
template< typename T> class ComboWithTooltip : public Gtk::EventBox
{
public:
ComboWithTooltip<T>(T default_value, const Util::EnumDataConverter<T>& c, const SPAttributeEnum a = SP_ATTR_INVALID, char* tip_text = NULL)
{
if (tip_text) {
set_tooltip_text(tip_text);
}
combo = new ComboBoxEnum<T>(default_value, c, a, false);
add(*combo);
show_all();
}
~ComboWithTooltip()
{
delete combo;
}
ComboBoxEnum<T>* get_attrwidget()
{
return combo;
}
private:
ComboBoxEnum<T>* combo;
};
// Contains an arbitrary number of spin buttons that use separate attributes
class MultiSpinButton : public Gtk::HBox
{
public:
MultiSpinButton(double lower, double upper, double step_inc,
double climb_rate, int digits, std::vector<SPAttributeEnum> attrs, std::vector<double> default_values, std::vector<char*> tip_text)
{
g_assert(attrs.size()==default_values.size());
g_assert(attrs.size()==tip_text.size());
for(unsigned i = 0; i < attrs.size(); ++i) {
_spins.push_back(new SpinButtonAttr(lower, upper, step_inc, climb_rate, digits, attrs[i], default_values[i], tip_text[i]));
pack_start(*_spins.back(), false, false);
}
}
~MultiSpinButton()
{
for(unsigned i = 0; i < _spins.size(); ++i)
delete _spins[i];
}
std::vector<SpinButtonAttr*>& get_spinbuttons()
{
return _spins;
}
private:
std::vector<SpinButtonAttr*> _spins;
};
// Contains two spinbuttons that describe a NumberOptNumber
class DualSpinButton : public Gtk::HBox, public AttrWidget
{
public:
DualSpinButton(char* def, double lower, double upper, double step_inc,
double climb_rate, int digits, const SPAttributeEnum a, char* tt1, char* tt2)
: AttrWidget(a, def), //TO-DO: receive default num-opt-num as parameter in the constructor
_s1(climb_rate, digits), _s2(climb_rate, digits)
{
if (tt1) {
_s1.set_tooltip_text(tt1);
}
if (tt2) {
_s2.set_tooltip_text(tt2);
}
_s1.set_range(lower, upper);
_s2.set_range(lower, upper);
_s1.set_increments(step_inc, 0);
_s2.set_increments(step_inc, 0);
_s1.signal_value_changed().connect(signal_attr_changed().make_slot());
_s2.signal_value_changed().connect(signal_attr_changed().make_slot());
pack_start(_s1, false, false);
pack_start(_s2, false, false);
}
Inkscape::UI::Widget::SpinButton& get_spinbutton1()
{
return _s1;
}
Inkscape::UI::Widget::SpinButton& get_spinbutton2()
{
return _s2;
}
virtual Glib::ustring get_as_attribute() const
{
double v1 = _s1.get_value();
double v2 = _s2.get_value();
if(_s1.get_digits() == 0) {
v1 = (int)v1;
v2 = (int)v2;
}
return Glib::Ascii::dtostr(v1) + " " + Glib::Ascii::dtostr(v2);
}
virtual void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
NumberOptNumber n;
if(val) {
n.set(val);
} else {
n.set(get_default()->as_charptr());
}
_s1.set_value(n.getNumber());
_s2.set_value(n.getOptNumber());
}
private:
Inkscape::UI::Widget::SpinButton _s1, _s2;
};
class ColorButton : public Gtk::ColorButton, public AttrWidget
{
public:
ColorButton(unsigned int def, const SPAttributeEnum a, char* tip_text)
: AttrWidget(a, def)
{
signal_color_set().connect(signal_attr_changed().make_slot());
if (tip_text) {
set_tooltip_text(tip_text);
}
#if WITH_GTKMM_3_0
Gdk::RGBA col;
col.set_rgba_u(65535, 65535, 65535);
set_rgba(col);
#else
Gdk::Color col;
col.set_rgb(65535, 65535, 65535);
set_color(col);
#endif
}
// Returns the color in 'rgb(r,g,b)' form.
Glib::ustring get_as_attribute() const
{
// no doubles here, so we can use the standard string stream.
std::ostringstream os;
#if WITH_GTKMM_3_0
const Gdk::RGBA c = get_rgba();
const int r = c.get_red_u() / 257, g = c.get_green_u() / 257, b = c.get_blue_u() / 257;//TO-DO: verify this. This sounds a lot strange! shouldn't it be 256?
#else
const Gdk::Color c = get_color();
const int r = c.get_red() / 257, g = c.get_green() / 257, b = c.get_blue() / 257;//TO-DO: verify this. This sounds a lot strange! shouldn't it be 256?
#endif
os << "rgb(" << r << "," << g << "," << b << ")";
return os.str();
}
void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
guint32 i = 0;
if(val) {
i = sp_svg_read_color(val, 0xFFFFFFFF);
} else {
i = (guint32) get_default()->as_uint();
}
const int r = SP_RGBA32_R_U(i), g = SP_RGBA32_G_U(i), b = SP_RGBA32_B_U(i);
#if WITH_GTKMM_3_0
Gdk::RGBA col;
col.set_rgba_u(r * 256, g * 256, b * 256);
set_rgba(col);
#else
Gdk::Color col;
col.set_rgb(r * 256, g * 256, b * 256);
set_color(col);
#endif
}
};
// Used for tableValue in feComponentTransfer
class EntryAttr : public Gtk::Entry, public AttrWidget
{
public:
EntryAttr(const SPAttributeEnum a, char* tip_text)
: AttrWidget(a)
{
signal_changed().connect(signal_attr_changed().make_slot());
if (tip_text) {
set_tooltip_text(tip_text);
}
}
// No validity checking is done
Glib::ustring get_as_attribute() const
{
return get_text();
}
void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
if(val) {
set_text( val );
} else {
set_text( "" );
}
}
};
/* Displays/Edits the matrix for feConvolveMatrix or feColorMatrix */
class FilterEffectsDialog::MatrixAttr : public Gtk::Frame, public AttrWidget
{
public:
MatrixAttr(const SPAttributeEnum a, char* tip_text = NULL)
: AttrWidget(a), _locked(false)
{
_model = Gtk::ListStore::create(_columns);
_tree.set_model(_model);
_tree.set_headers_visible(false);
_tree.show();
add(_tree);
set_shadow_type(Gtk::SHADOW_IN);
if (tip_text) {
_tree.set_tooltip_text(tip_text);
}
}
std::vector<double> get_values() const
{
std::vector<double> vec;
for(Gtk::TreeIter iter = _model->children().begin();
iter != _model->children().end(); ++iter) {
for(unsigned c = 0; c < _tree.get_columns().size(); ++c)
vec.push_back((*iter)[_columns.cols[c]]);
}
return vec;
}
void set_values(const std::vector<double>& v)
{
unsigned i = 0;
for(Gtk::TreeIter iter = _model->children().begin();
iter != _model->children().end(); ++iter) {
for(unsigned c = 0; c < _tree.get_columns().size(); ++c) {
if(i >= v.size())
return;
(*iter)[_columns.cols[c]] = v[i];
++i;
}
}
}
Glib::ustring get_as_attribute() const
{
// use SVGOStringStream to output SVG-compatible doubles
Inkscape::SVGOStringStream os;
for(Gtk::TreeIter iter = _model->children().begin();
iter != _model->children().end(); ++iter) {
for(unsigned c = 0; c < _tree.get_columns().size(); ++c) {
os << (*iter)[_columns.cols[c]] << " ";
}
}
return os.str();
}
void set_from_attribute(SPObject* o)
{
if(o) {
if(SP_IS_FECONVOLVEMATRIX(o)) {
SPFeConvolveMatrix* conv = SP_FECONVOLVEMATRIX(o);
int cols, rows;
cols = (int)conv->order.getNumber();
if(cols > 5)
cols = 5;
rows = conv->order.optNumber_set ? (int)conv->order.getOptNumber() : cols;
update(o, rows, cols);
}
else if(SP_IS_FECOLORMATRIX(o))
update(o, 4, 5);
}
}
private:
class MatrixColumns : public Gtk::TreeModel::ColumnRecord
{
public:
MatrixColumns()
{
cols.resize(5);
for(unsigned i = 0; i < cols.size(); ++i)
add(cols[i]);
}
std::vector<Gtk::TreeModelColumn<double> > cols;
};
void update(SPObject* o, const int rows, const int cols)
{
if(_locked)
return;
_model->clear();
_tree.remove_all_columns();
std::vector<gdouble>* values = NULL;
if(SP_IS_FECOLORMATRIX(o))
values = &SP_FECOLORMATRIX(o)->values;
else if(SP_IS_FECONVOLVEMATRIX(o))
values = &SP_FECONVOLVEMATRIX(o)->kernelMatrix;
else
return;
if(o) {
int ndx = 0;
for(int i = 0; i < cols; ++i) {
_tree.append_column_numeric_editable("", _columns.cols[i], "%.2f");
dynamic_cast<Gtk::CellRendererText*>(
_tree.get_column_cell_renderer(i))->signal_edited().connect(
sigc::mem_fun(*this, &MatrixAttr::rebind));
}
for(int r = 0; r < rows; ++r) {
Gtk::TreeRow row = *(_model->append());
// Default to identity matrix
for(int c = 0; c < cols; ++c, ++ndx)
row[_columns.cols[c]] = ndx < (int)values->size() ? (*values)[ndx] : (r == c ? 1 : 0);
}
}
}
void rebind(const Glib::ustring&, const Glib::ustring&)
{
_locked = true;
signal_attr_changed()();
_locked = false;
}
bool _locked;
Gtk::TreeView _tree;
Glib::RefPtr<Gtk::ListStore> _model;
MatrixColumns _columns;
};
// Displays a matrix or a slider for feColorMatrix
class FilterEffectsDialog::ColorMatrixValues : public Gtk::Frame, public AttrWidget
{
public:
ColorMatrixValues()
: AttrWidget(SP_ATTR_VALUES),
// TRANSLATORS: this dialog is accessible via menu Filters - Filter editor
_matrix(SP_ATTR_VALUES, _("This matrix determines a linear transform on color space. Each line affects one of the color components. Each column determines how much of each color component from the input is passed to the output. The last column does not depend on input colors, so can be used to adjust a constant component value.")),
_saturation("", 0, 0, 1, 0.1, 0.01, 2, SP_ATTR_VALUES),
_angle("", 0, 0, 360, 0.1, 0.01, 1, SP_ATTR_VALUES),
_label(C_("Label", "None"), Gtk::ALIGN_START),
_use_stored(false),
_saturation_store(0),
_angle_store(0)
{
_matrix.signal_attr_changed().connect(signal_attr_changed().make_slot());
_saturation.signal_attr_changed().connect(signal_attr_changed().make_slot());
_angle.signal_attr_changed().connect(signal_attr_changed().make_slot());
signal_attr_changed().connect(sigc::mem_fun(*this, &ColorMatrixValues::update_store));
_matrix.show();
_saturation.show();
_angle.show();
_label.show();
_label.set_sensitive(false);
set_shadow_type(Gtk::SHADOW_NONE);
}
virtual void set_from_attribute(SPObject* o)
{
if(SP_IS_FECOLORMATRIX(o)) {
SPFeColorMatrix* col = SP_FECOLORMATRIX(o);
remove();
switch(col->type) {
case COLORMATRIX_SATURATE:
add(_saturation);
if(_use_stored)
_saturation.set_value(_saturation_store);
else
_saturation.set_from_attribute(o);
break;
case COLORMATRIX_HUEROTATE:
add(_angle);
if(_use_stored)
_angle.set_value(_angle_store);
else
_angle.set_from_attribute(o);
break;
case COLORMATRIX_LUMINANCETOALPHA:
add(_label);
break;
case COLORMATRIX_MATRIX:
default:
add(_matrix);
if(_use_stored)
_matrix.set_values(_matrix_store);
else
_matrix.set_from_attribute(o);
break;
}
_use_stored = true;
}
}
virtual Glib::ustring get_as_attribute() const
{
const Widget* w = get_child();
if(w == &_label)
return "";
else
return dynamic_cast<const AttrWidget*>(w)->get_as_attribute();
}
void clear_store()
{
_use_stored = false;
}
private:
void update_store()
{
const Widget* w = get_child();
if(w == &_matrix)
_matrix_store = _matrix.get_values();
else if(w == &_saturation)
_saturation_store = _saturation.get_value();
else if(w == &_angle)
_angle_store = _angle.get_value();
}
MatrixAttr _matrix;
SpinScale _saturation;
SpinScale _angle;
Gtk::Label _label;
// Store separate values for the different color modes
bool _use_stored;
std::vector<double> _matrix_store;
double _saturation_store;
double _angle_store;
};
static Inkscape::UI::Dialog::FileOpenDialog * selectFeImageFileInstance = NULL;
//Displays a chooser for feImage input
//It may be a filename or the id for an SVG Element
//described in xlink:href syntax
class FileOrElementChooser : public Gtk::HBox, public AttrWidget
{
public:
FileOrElementChooser(const SPAttributeEnum a)
: AttrWidget(a)
{
pack_start(_entry, false, false);
pack_start(_fromFile, false, false);
pack_start(_fromSVGElement, false, false);
_fromFile.set_label(_("Image File"));
_fromFile.signal_clicked().connect(sigc::mem_fun(*this, &FileOrElementChooser::select_file));
_fromSVGElement.set_label(_("Selected SVG Element"));
_fromSVGElement.signal_clicked().connect(sigc::mem_fun(*this, &FileOrElementChooser::select_svg_element));
_entry.signal_changed().connect(signal_attr_changed().make_slot());
show_all();
}
// Returns the element in xlink:href form.
Glib::ustring get_as_attribute() const
{
return _entry.get_text();
}
void set_from_attribute(SPObject* o)
{
const gchar* val = attribute_value(o);
if(val) {
_entry.set_text(val);
} else {
_entry.set_text("");
}
}
void set_desktop(SPDesktop* d){
_desktop = d;
}
private:
void select_svg_element(){
Inkscape::Selection* sel = _desktop->getSelection();
if (sel->isEmpty()) return;
Inkscape::XML::Node* node = sel->reprList()[0];
if (!node || !node->matchAttributeName("id")) return;
std::ostringstream xlikhref;
xlikhref << "#" << node->attribute("id");
_entry.set_text(xlikhref.str());
}
void select_file(){
//# Get the current directory for finding files
Inkscape::Preferences *prefs = Inkscape::Preferences::get();
Glib::ustring open_path;
Glib::ustring attr = prefs->getString("/dialogs/open/path");
if (!attr.empty())
open_path = attr;
//# Test if the open_path directory exists
if (!Inkscape::IO::file_test(open_path.c_str(),
(GFileTest)(G_FILE_TEST_EXISTS | G_FILE_TEST_IS_DIR)))
open_path = "";
//# If no open path, default to our home directory
if (open_path.size() < 1)
{
open_path = g_get_home_dir();
open_path.append(G_DIR_SEPARATOR_S);
}
//# Create a dialog if we don't already have one
if (!selectFeImageFileInstance) {
selectFeImageFileInstance =
Inkscape::UI::Dialog::FileOpenDialog::create(
*_desktop->getToplevel(),
open_path,
Inkscape::UI::Dialog::SVG_TYPES,/*TODO: any image, not just svg*/
(char const *)_("Select an image to be used as feImage input"));
}
//# Show the dialog
bool const success = selectFeImageFileInstance->show();
if (!success)
return;
//# User selected something. Get name and type
Glib::ustring fileName = selectFeImageFileInstance->getFilename();
if (fileName.size() > 0) {
Glib::ustring newFileName = Glib::filename_to_utf8(fileName);
if ( newFileName.size() > 0)
fileName = newFileName;
else
g_warning( "ERROR CONVERTING OPEN FILENAME TO UTF-8" );
open_path = fileName;
open_path.append(G_DIR_SEPARATOR_S);
prefs->setString("/dialogs/open/path", open_path);
_entry.set_text(fileName);
}
return;
}
Gtk::Entry _entry;
Gtk::Button _fromFile;
Gtk::Button _fromSVGElement;
SPDesktop* _desktop;
};
class FilterEffectsDialog::Settings
{
public:
typedef sigc::slot<void, const AttrWidget*> SetAttrSlot;
Settings(FilterEffectsDialog& d, Gtk::Box& b, SetAttrSlot slot, const int maxtypes)
: _dialog(d), _set_attr_slot(slot), _current_type(-1), _max_types(maxtypes)
{
_groups.resize(_max_types);
_attrwidgets.resize(_max_types);
_size_group = Gtk::SizeGroup::create(Gtk::SIZE_GROUP_HORIZONTAL);
for(int i = 0; i < _max_types; ++i) {
_groups[i] = new Gtk::VBox;
b.pack_start(*_groups[i], false, false);
}
//_current_type = 0; If set to 0 then update_and_show() fails to update properly.
}
~Settings()
{
for(int i = 0; i < _max_types; ++i) {
delete _groups[i];
for(unsigned j = 0; j < _attrwidgets[i].size(); ++j)
delete _attrwidgets[i][j];
}
}
// Show the active settings group and update all the AttrWidgets with new values
void show_and_update(const int t, SPObject* ob)
{
if(t != _current_type) {
type(t);
for(unsigned i = 0; i < _groups.size(); ++i)
_groups[i]->hide();
}
if(t >= 0) {
_groups[t]->show(); // Do not use show_all(), it shows children than should be hidden
}
_dialog.set_attrs_locked(true);
for(unsigned i = 0; i < _attrwidgets[_current_type].size(); ++i)
_attrwidgets[_current_type][i]->set_from_attribute(ob);
_dialog.set_attrs_locked(false);
}
int get_current_type() const
{
return _current_type;
}
void type(const int t)
{
_current_type = t;
}
void add_no_params()
{
Gtk::Label* lbl = Gtk::manage(new Gtk::Label(_("This SVG filter effect does not require any parameters.")));
add_widget(lbl, "");
}
void add_notimplemented()
{
Gtk::Label* lbl = Gtk::manage(new Gtk::Label(_("This SVG filter effect is not yet implemented in Inkscape.")));
add_widget(lbl, "");
}
// LightSource
LightSourceControl* add_lightsource();
// Component Transfer Values
ComponentTransferValues* add_componenttransfervalues(const Glib::ustring& label, SPFeFuncNode::Channel channel);
// CheckButton
CheckButtonAttr* add_checkbutton(bool def, const SPAttributeEnum attr, const Glib::ustring& label,
const Glib::ustring& tv, const Glib::ustring& fv, char* tip_text = NULL)
{
CheckButtonAttr* cb = new CheckButtonAttr(def, label, tv, fv, attr, tip_text);
add_widget(cb, "");
add_attr_widget(cb);
return cb;
}
// ColorButton
ColorButton* add_color(unsigned int def, const SPAttributeEnum attr, const Glib::ustring& label, char* tip_text = NULL)
{
ColorButton* col = new ColorButton(def, attr, tip_text);
add_widget(col, label);
add_attr_widget(col);
return col;
}
// Matrix
MatrixAttr* add_matrix(const SPAttributeEnum attr, const Glib::ustring& label, char* tip_text)
{
MatrixAttr* conv = new MatrixAttr(attr, tip_text);
add_widget(conv, label);
add_attr_widget(conv);
return conv;
}
// ColorMatrixValues
ColorMatrixValues* add_colormatrixvalues(const Glib::ustring& label)
{
ColorMatrixValues* cmv = new ColorMatrixValues();
add_widget(cmv, label);
add_attr_widget(cmv);
return cmv;
}
// SpinScale
SpinScale* add_spinscale(double def, const SPAttributeEnum attr, const Glib::ustring& label,
const double lo, const double hi, const double step_inc, const double climb, const int digits, char* tip_text = NULL)
{
SpinScale* spinslider = new SpinScale("", def, lo, hi, step_inc, climb, digits, attr, tip_text);
add_widget(spinslider, label);
add_attr_widget(spinslider);
return spinslider;
}
// DualSpinScale
DualSpinScale* add_dualspinscale(const SPAttributeEnum attr, const Glib::ustring& label,
const double lo, const double hi, const double step_inc,
const double climb, const int digits, char* tip_text1 = NULL, char* tip_text2 = NULL)
{
DualSpinScale* dss = new DualSpinScale("", "", lo, lo, hi, step_inc, climb, digits, attr, tip_text1, tip_text2);
add_widget(dss, label);
add_attr_widget(dss);
return dss;
}
// DualSpinButton
DualSpinButton* add_dualspinbutton(char* defalt_value, const SPAttributeEnum attr, const Glib::ustring& label,
const double lo, const double hi, const double step_inc,
const double climb, const int digits, char* tip1 = NULL, char* tip2 = NULL)
{
DualSpinButton* dsb = new DualSpinButton(defalt_value, lo, hi, step_inc, climb, digits, attr, tip1, tip2);
add_widget(dsb, label);
add_attr_widget(dsb);
return dsb;
}
// MultiSpinButton
MultiSpinButton* add_multispinbutton(double def1, double def2, const SPAttributeEnum attr1, const SPAttributeEnum attr2,
const Glib::ustring& label, const double lo, const double hi,
const double step_inc, const double climb, const int digits, char* tip1 = NULL, char* tip2 = NULL)
{
std::vector<SPAttributeEnum> attrs;
attrs.push_back(attr1);
attrs.push_back(attr2);
std::vector<double> default_values;
default_values.push_back(def1);
default_values.push_back(def2);
std::vector<char*> tips;
tips.push_back(tip1);
tips.push_back(tip2);
MultiSpinButton* msb = new MultiSpinButton(lo, hi, step_inc, climb, digits, attrs, default_values, tips);
add_widget(msb, label);
for(unsigned i = 0; i < msb->get_spinbuttons().size(); ++i)
add_attr_widget(msb->get_spinbuttons()[i]);
return msb;
}
MultiSpinButton* add_multispinbutton(double def1, double def2, double def3, const SPAttributeEnum attr1, const SPAttributeEnum attr2,
const SPAttributeEnum attr3, const Glib::ustring& label, const double lo,
const double hi, const double step_inc, const double climb, const int digits, char* tip1 = NULL, char* tip2 = NULL, char* tip3 = NULL)
{
std::vector<SPAttributeEnum> attrs;
attrs.push_back(attr1);
attrs.push_back(attr2);
attrs.push_back(attr3);
std::vector<double> default_values;
default_values.push_back(def1);
default_values.push_back(def2);
default_values.push_back(def3);
std::vector<char*> tips;
tips.push_back(tip1);
tips.push_back(tip2);
tips.push_back(tip3);
MultiSpinButton* msb = new MultiSpinButton(lo, hi, step_inc, climb, digits, attrs, default_values, tips);
add_widget(msb, label);
for(unsigned i = 0; i < msb->get_spinbuttons().size(); ++i)
add_attr_widget(msb->get_spinbuttons()[i]);
return msb;
}
// FileOrElementChooser
FileOrElementChooser* add_fileorelement(const SPAttributeEnum attr, const Glib::ustring& label)
{
FileOrElementChooser* foech = new FileOrElementChooser(attr);
foech->set_desktop(_dialog.getDesktop());
add_widget(foech, label);
add_attr_widget(foech);
return foech;
}
// ComboBoxEnum
template<typename T> ComboBoxEnum<T>* add_combo(T default_value, const SPAttributeEnum attr,
const Glib::ustring& label,
const Util::EnumDataConverter<T>& conv, char* tip_text = NULL)
{
ComboWithTooltip<T>* combo = new ComboWithTooltip<T>(default_value, conv, attr, tip_text);
add_widget(combo, label);
add_attr_widget(combo->get_attrwidget());
return combo->get_attrwidget();
}
// Entry
EntryAttr* add_entry(const SPAttributeEnum attr,
const Glib::ustring& label,
char* tip_text = NULL)
{
EntryAttr* entry = new EntryAttr(attr, tip_text);
add_widget(entry, label);
add_attr_widget(entry);
return entry;
}
private:
void add_attr_widget(AttrWidget* a)
{
_attrwidgets[_current_type].push_back(a);
a->signal_attr_changed().connect(sigc::bind(_set_attr_slot, a));
}
/* Adds a new settings widget using the specified label. The label will be formatted with a colon
and all widgets within the setting group are aligned automatically. */
void add_widget(Gtk::Widget* w, const Glib::ustring& label)
{
Gtk::HBox *hb = Gtk::manage(new Gtk::HBox);
hb->set_spacing(12);
if(label != "") {
Gtk::Label *lbl = Gtk::manage(new Gtk::Label(label, Gtk::ALIGN_START));
hb->pack_start(*lbl, false, false);
_size_group->add_widget(*lbl);
lbl->show();
}
hb->pack_start(*w);
_groups[_current_type]->pack_start(*hb);
hb->show();
w->show();
}
std::vector<Gtk::VBox*> _groups;
Glib::RefPtr<Gtk::SizeGroup> _size_group;
FilterEffectsDialog& _dialog;
SetAttrSlot _set_attr_slot;
std::vector<std::vector< AttrWidget*> > _attrwidgets;
int _current_type, _max_types;
};
// Displays sliders and/or tables for feComponentTransfer
class FilterEffectsDialog::ComponentTransferValues : public Gtk::Frame, public AttrWidget
{
public:
ComponentTransferValues(FilterEffectsDialog& d, SPFeFuncNode::Channel channel)
: AttrWidget(SP_ATTR_INVALID),
_dialog(d),
_settings(d, _box, sigc::mem_fun(*this, &ComponentTransferValues::set_func_attr), COMPONENTTRANSFER_TYPE_ERROR),
_type(ComponentTransferTypeConverter, SP_ATTR_TYPE, false),
_channel(channel),
_funcNode(NULL)
{
set_shadow_type(Gtk::SHADOW_IN);
add(_box);
_box.add(_type);
_box.reorder_child(_type, 0);
_type.signal_changed().connect(sigc::mem_fun(*this, &ComponentTransferValues::on_type_changed));
_settings.type(COMPONENTTRANSFER_TYPE_LINEAR);
_settings.add_spinscale(1, SP_ATTR_SLOPE, _("Slope"), -10, 10, 0.1, 0.01, 2);
_settings.add_spinscale(0, SP_ATTR_INTERCEPT, _("Intercept"), -10, 10, 0.1, 0.01, 2);
_settings.type(COMPONENTTRANSFER_TYPE_GAMMA);
_settings.add_spinscale(1, SP_ATTR_AMPLITUDE, _("Amplitude"), 0, 10, 0.1, 0.01, 2);
_settings.add_spinscale(1, SP_ATTR_EXPONENT, _("Exponent"), 0, 10, 0.1, 0.01, 2);
_settings.add_spinscale(0, SP_ATTR_OFFSET, _("Offset"), -10, 10, 0.1, 0.01, 2);
_settings.type(COMPONENTTRANSFER_TYPE_TABLE);
_settings.add_entry(SP_ATTR_TABLEVALUES, _("Table"));
_settings.type(COMPONENTTRANSFER_TYPE_DISCRETE);
_settings.add_entry(SP_ATTR_TABLEVALUES, _("Discrete"));
//_settings.type(COMPONENTTRANSFER_TYPE_IDENTITY);
_settings.type(-1); // Force update_and_show() to show/hide windows correctly
}
// FuncNode can be in any order so we must search to find correct one.
SPFeFuncNode* find_node(SPFeComponentTransfer* ct)
{
SPObject* node = ct->children;
SPFeFuncNode* funcNode = NULL;
bool found = false;
for(;node;node=node->next){
funcNode = SP_FEFUNCNODE(node);
if( funcNode->channel == _channel ) {
found = true;
break;
}
}
if( !found )
funcNode = NULL;
return funcNode;
}
void set_func_attr(const AttrWidget* input)
{
_dialog.set_attr( _funcNode, input->get_attribute(), input->get_as_attribute().c_str());
}
// Set new type and update widget visibility
virtual void set_from_attribute(SPObject* o)
{
// See componenttransfer.cpp
if(SP_IS_FECOMPONENTTRANSFER(o)) {
SPFeComponentTransfer* ct = SP_FECOMPONENTTRANSFER(o);
_funcNode = find_node(ct);
if( _funcNode ) {
_type.set_from_attribute( _funcNode );
} else {
// Create <funcNode>
SPFilterPrimitive* prim = _dialog._primitive_list.get_selected();
if(prim) {
Inkscape::XML::Document *xml_doc = prim->document->getReprDoc();
Inkscape::XML::Node *repr = NULL;
switch(_channel) {
case SPFeFuncNode::R:
repr = xml_doc->createElement("svg:feFuncR");
break;
case SPFeFuncNode::G:
repr = xml_doc->createElement("svg:feFuncG");
break;
case SPFeFuncNode::B:
repr = xml_doc->createElement("svg:feFuncB");
break;
case SPFeFuncNode::A:
repr = xml_doc->createElement("svg:feFuncA");
break;
}
//XML Tree being used directly here while it shouldn't be.
prim->getRepr()->appendChild(repr);
Inkscape::GC::release(repr);
// Now we should find it!
_funcNode = find_node(ct);
if( _funcNode ) {
_funcNode->setAttribute( "type", "identity" );
} else {
//std::cout << "ERROR ERROR: feFuncX not found!" << std::endl;
}
}
}
update();
}
}
private:
void on_type_changed()
{
SPFilterPrimitive* prim = _dialog._primitive_list.get_selected();
if(prim) {
_funcNode->getRepr()->setAttribute( "type", _type.get_as_attribute().c_str() );
SPFilter* filter = _dialog._filter_modifier.get_selected_filter();
filter->requestModified(SP_OBJECT_MODIFIED_FLAG);
DocumentUndo::done(prim->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("New transfer function type"));
update();
}
}
void update()
{
SPFilterPrimitive* prim = _dialog._primitive_list.get_selected();
if(prim && _funcNode) {
_settings.show_and_update(_type.get_active_data()->id, _funcNode);
}
}
public:
virtual Glib::ustring get_as_attribute() const
{
return "";
}
FilterEffectsDialog& _dialog;
Gtk::VBox _box;
Settings _settings;
ComboBoxEnum<FilterComponentTransferType> _type;
SPFeFuncNode::Channel _channel; // RGBA
SPFeFuncNode* _funcNode;
};
// Settings for the three light source objects
class FilterEffectsDialog::LightSourceControl : public AttrWidget
{
public:
LightSourceControl(FilterEffectsDialog& d)
: AttrWidget(SP_ATTR_INVALID),
_dialog(d),
_settings(d, _box, sigc::mem_fun(_dialog, &FilterEffectsDialog::set_child_attr_direct), LIGHT_ENDSOURCE),
_light_label(_("Light Source:"), Gtk::ALIGN_START),
_light_source(LightSourceConverter),
_locked(false)
{
_light_box.pack_start(_light_label, false, false);
_light_box.pack_start(_light_source);
_light_box.show_all();
_light_box.set_spacing(12);
_dialog._sizegroup->add_widget(_light_label);
_box.add(_light_box);
_box.reorder_child(_light_box, 0);
_light_source.signal_changed().connect(sigc::mem_fun(*this, &LightSourceControl::on_source_changed));
// FIXME: these range values are complete crap
_settings.type(LIGHT_DISTANT);
_settings.add_spinscale(0, SP_ATTR_AZIMUTH, _("Azimuth"), 0, 360, 1, 1, 0, _("Direction angle for the light source on the XY plane, in degrees"));
_settings.add_spinscale(0, SP_ATTR_ELEVATION, _("Elevation"), 0, 360, 1, 1, 0, _("Direction angle for the light source on the YZ plane, in degrees"));
_settings.type(LIGHT_POINT);
_settings.add_multispinbutton(/*default x:*/ (double) 0, /*default y:*/ (double) 0, /*default z:*/ (double) 0, SP_ATTR_X, SP_ATTR_Y, SP_ATTR_Z, _("Location:"), -99999, 99999, 1, 100, 0, _("X coordinate"), _("Y coordinate"), _("Z coordinate"));
_settings.type(LIGHT_SPOT);
_settings.add_multispinbutton(/*default x:*/ (double) 0, /*default y:*/ (double) 0, /*default z:*/ (double) 0, SP_ATTR_X, SP_ATTR_Y, SP_ATTR_Z, _("Location:"), -99999, 99999, 1, 100, 0, _("X coordinate"), _("Y coordinate"), _("Z coordinate"));
_settings.add_multispinbutton(/*default x:*/ (double) 0, /*default y:*/ (double) 0, /*default z:*/ (double) 0,
SP_ATTR_POINTSATX, SP_ATTR_POINTSATY, SP_ATTR_POINTSATZ,
_("Points At"), -99999, 99999, 1, 100, 0, _("X coordinate"), _("Y coordinate"), _("Z coordinate"));
_settings.add_spinscale(1, SP_ATTR_SPECULAREXPONENT, _("Specular Exponent"), 1, 100, 1, 1, 0, _("Exponent value controlling the focus for the light source"));
//TODO: here I have used 100 degrees as default value. But spec says that if not specified, no limiting cone is applied. So, there should be a way for the user to set a "no limiting cone" option.
_settings.add_spinscale(100, SP_ATTR_LIMITINGCONEANGLE, _("Cone Angle"), 1, 100, 1, 1, 0, _("This is the angle between the spot light axis (i.e. the axis between the light source and the point to which it is pointing at) and the spot light cone. No light is projected outside this cone."));
_settings.type(-1); // Force update_and_show() to show/hide windows correctly
}
Gtk::VBox& get_box()
{
return _box;
}
protected:
Glib::ustring get_as_attribute() const
{
return "";
}
void set_from_attribute(SPObject* o)
{
if(_locked)
return;
_locked = true;
SPObject* child = o->children;
if(SP_IS_FEDISTANTLIGHT(child))
_light_source.set_active(0);
else if(SP_IS_FEPOINTLIGHT(child))
_light_source.set_active(1);
else if(SP_IS_FESPOTLIGHT(child))
_light_source.set_active(2);
else
_light_source.set_active(-1);
update();
_locked = false;
}
private:
void on_source_changed()
{
if(_locked)
return;
SPFilterPrimitive* prim = _dialog._primitive_list.get_selected();
if(prim) {
_locked = true;
SPObject* child = prim->children;
const int ls = _light_source.get_active_row_number();
// Check if the light source type has changed
if(!(ls == -1 && !child) &&
!(ls == 0 && SP_IS_FEDISTANTLIGHT(child)) &&
!(ls == 1 && SP_IS_FEPOINTLIGHT(child)) &&
!(ls == 2 && SP_IS_FESPOTLIGHT(child))) {
if(child)
//XML Tree being used directly here while it shouldn't be.
sp_repr_unparent(child->getRepr());
if(ls != -1) {
Inkscape::XML::Document *xml_doc = prim->document->getReprDoc();
Inkscape::XML::Node *repr = xml_doc->createElement(_light_source.get_active_data()->key.c_str());
//XML Tree being used directly here while it shouldn't be.
prim->getRepr()->appendChild(repr);
Inkscape::GC::release(repr);
}
DocumentUndo::done(prim->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("New light source"));
update();
}
_locked = false;
}
}
void update()
{
_box.hide();
_box.show();
_light_box.show_all();
SPFilterPrimitive* prim = _dialog._primitive_list.get_selected();
if(prim && prim->children)
_settings.show_and_update(_light_source.get_active_data()->id, prim->children);
}
FilterEffectsDialog& _dialog;
Gtk::VBox _box;
Settings _settings;
Gtk::HBox _light_box;
Gtk::Label _light_label;
ComboBoxEnum<LightSource> _light_source;
bool _locked;
};
// ComponentTransferValues
FilterEffectsDialog::ComponentTransferValues* FilterEffectsDialog::Settings::add_componenttransfervalues(const Glib::ustring& label, SPFeFuncNode::Channel channel)
{
ComponentTransferValues* ct = new ComponentTransferValues(_dialog, channel);
add_widget(ct, label);
add_attr_widget(ct);
return ct;
}
FilterEffectsDialog::LightSourceControl* FilterEffectsDialog::Settings::add_lightsource()
{
LightSourceControl* ls = new LightSourceControl(_dialog);
add_attr_widget(ls);
add_widget(&ls->get_box(), "");
return ls;
}
static Glib::RefPtr<Gtk::Menu> create_popup_menu(Gtk::Widget& parent, sigc::slot<void> dup,
sigc::slot<void> rem)
{
Glib::RefPtr<Gtk::Menu> menu(new Gtk::Menu);
Gtk::MenuItem* mi = Gtk::manage(new Gtk::MenuItem(_("_Duplicate"),true));
mi->signal_activate().connect(dup);
mi->show();
menu->append(*mi);
mi = Gtk::manage(new Gtk::ImageMenuItem(Gtk::Stock::REMOVE));
menu->append(*mi);
mi->signal_activate().connect(rem);
mi->show();
menu->accelerate(parent);
return menu;
}
/*** FilterModifier ***/
FilterEffectsDialog::FilterModifier::FilterModifier(FilterEffectsDialog& d)
: _desktop(NULL),
_deskTrack(),
_dialog(d),
_add(Gtk::Stock::NEW),
_observer(new Inkscape::XML::SignalObserver)
{
Gtk::ScrolledWindow* sw = Gtk::manage(new Gtk::ScrolledWindow);
pack_start(*sw);
pack_start(_add, false, false);
sw->add(_list);
_model = Gtk::ListStore::create(_columns);
_list.set_model(_model);
_cell_toggle.set_active(true);
const int selcol = _list.append_column("", _cell_toggle);
Gtk::TreeViewColumn* col = _list.get_column(selcol - 1);
if(col)
col->add_attribute(_cell_toggle.property_active(), _columns.sel);
_list.append_column_editable(_("_Filter"), _columns.label);
((Gtk::CellRendererText*)_list.get_column(1)->get_first_cell())->
signal_edited().connect(sigc::mem_fun(*this, &FilterEffectsDialog::FilterModifier::on_name_edited));
_list.append_column("#", _columns.count);
_list.get_column(2)->set_sizing(Gtk::TREE_VIEW_COLUMN_AUTOSIZE);
_list.get_column(2)->set_expand(false);
_list.get_column(2)->set_reorderable(true);
sw->set_policy(Gtk::POLICY_AUTOMATIC, Gtk::POLICY_AUTOMATIC);
_list.get_column(1)->set_resizable(true);
_list.get_column(1)->set_sizing(Gtk::TREE_VIEW_COLUMN_AUTOSIZE);
_list.get_column(1)->set_expand(true);
_list.set_reorderable(true);
_list.enable_model_drag_dest (Gdk::ACTION_MOVE);
_list.signal_drag_drop().connect( sigc::mem_fun(*this, &FilterModifier::on_filter_move), false );
sw->set_shadow_type(Gtk::SHADOW_IN);
show_all_children();
_add.signal_clicked().connect(sigc::mem_fun(*this, &FilterModifier::add_filter));
_cell_toggle.signal_toggled().connect(sigc::mem_fun(*this, &FilterModifier::on_selection_toggled));
_list.signal_button_release_event().connect_notify(
sigc::mem_fun(*this, &FilterModifier::filter_list_button_release));
_menu = create_popup_menu(*this, sigc::mem_fun(*this, &FilterModifier::duplicate_filter),
sigc::mem_fun(*this, &FilterModifier::remove_filter));
Gtk::MenuItem *item = Gtk::manage(new Gtk::MenuItem(_("R_ename"), true));
item->signal_activate().connect(sigc::mem_fun(*this, &FilterModifier::rename_filter));
item->show();
_menu->append(*item);
_menu->accelerate(*this);
_list.get_selection()->signal_changed().connect(sigc::mem_fun(*this, &FilterModifier::on_filter_selection_changed));
_observer->signal_changed().connect(signal_filter_changed().make_slot());
desktopChangeConn = _deskTrack.connectDesktopChanged( sigc::mem_fun(*this, &FilterModifier::setTargetDesktop) );
_deskTrack.connect(GTK_WIDGET(gobj()));
update_filters();
}
FilterEffectsDialog::FilterModifier::~FilterModifier()
{
_selectChangedConn.disconnect();
_selectModifiedConn.disconnect();
_resource_changed.disconnect();
_doc_replaced.disconnect();
}
void FilterEffectsDialog::FilterModifier::setTargetDesktop(SPDesktop *desktop)
{
if (_desktop != desktop) {
if (_desktop) {
_selectChangedConn.disconnect();
_selectModifiedConn.disconnect();
_doc_replaced.disconnect();
_resource_changed.disconnect();
_dialog.setDesktop(NULL);
}
_desktop = desktop;
if (desktop) {
if (desktop->selection) {
_selectChangedConn = desktop->selection->connectChanged(sigc::hide(sigc::mem_fun(*this, &FilterModifier::on_change_selection)));
_selectModifiedConn = desktop->selection->connectModified(sigc::hide<0>(sigc::mem_fun(*this, &FilterModifier::on_modified_selection)));
}
_doc_replaced = desktop->connectDocumentReplaced( sigc::mem_fun(*this, &FilterModifier::on_document_replaced));
_resource_changed = desktop->getDocument()->connectResourcesChanged("filter",sigc::mem_fun(*this, &FilterModifier::update_filters));
_dialog.setDesktop(desktop);
update_filters();
}
}
}
// When the document changes, update connection to resources
void FilterEffectsDialog::FilterModifier::on_document_replaced(SPDesktop * /*desktop*/, SPDocument *document)
{
if (_resource_changed) {
_resource_changed.disconnect();
}
if (document)
{
_resource_changed = document->connectResourcesChanged("filter",sigc::mem_fun(*this, &FilterModifier::update_filters));
}
update_filters();
}
// When the selection changes, show the active filter(s) in the dialog
void FilterEffectsDialog::FilterModifier::on_change_selection()
{
Inkscape::Selection *selection = SP_ACTIVE_DESKTOP->getSelection();
update_selection(selection);
}
void FilterEffectsDialog::FilterModifier::on_modified_selection( guint flags )
{
if (flags & ( SP_OBJECT_MODIFIED_FLAG |
SP_OBJECT_PARENT_MODIFIED_FLAG |
SP_OBJECT_STYLE_MODIFIED_FLAG) ) {
on_change_selection();
}
}
// Update each filter's sel property based on the current object selection;
// If the filter is not used by any selected object, sel = 0,
// otherwise sel is set to the total number of filters in use by selected objects
// If only one filter is in use, it is selected
void FilterEffectsDialog::FilterModifier::update_selection(Selection *sel)
{
if (!sel) {
return;
}
std::set<SPObject*> used;
std::vector<SPItem*> itemlist=sel->itemList();
for(std::vector<SPItem*>::const_iterator i=itemlist.begin(); itemlist.end() != i; ++i) {
SPObject *obj = *i;
SPStyle *style = obj->style;
if (!style || !SP_IS_ITEM(obj)) {
continue;
}
if (style->filter.set && style->getFilter()) {
SP_ITEM(obj)->bbox_valid = FALSE;
used.insert(style->getFilter());
} else {
used.insert(0);
}
}
const int size = used.size();
for (Gtk::TreeIter iter = _model->children().begin(); iter != _model->children().end(); ++iter) {
if (used.find((*iter)[_columns.filter]) != used.end()) {
// If only one filter is in use by the selection, select it
if (size == 1) {
_list.get_selection()->select(iter);
}
(*iter)[_columns.sel] = size;
} else {
(*iter)[_columns.sel] = 0;
}
}
update_counts();
}
void FilterEffectsDialog::FilterModifier::on_filter_selection_changed()
{
_observer->set(get_selected_filter());
signal_filter_changed()();
}
void FilterEffectsDialog::FilterModifier::on_name_edited(const Glib::ustring& path, const Glib::ustring& text)
{
Gtk::TreeModel::iterator iter = _model->get_iter(path);
if(iter) {
SPFilter* filter = (*iter)[_columns.filter];
filter->setLabel(text.c_str());
DocumentUndo::done(filter->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("Rename filter"));
if(iter)
(*iter)[_columns.label] = text;
}
}
bool FilterEffectsDialog::FilterModifier::on_filter_move(const Glib::RefPtr<Gdk::DragContext>& /*context*/, int /*x*/, int /*y*/, guint /*time*/) {
//const Gtk::TreeModel::Path& /*path*/) {
/* The code below is bugged. Use of "object->getRepr()->setPosition(0)" is dangerous!
Writing back the reordered list to XML (reordering XML nodes) should be implemented differently.
Note that the dialog does also not update its list of filters when the order is manually changed
using the XML dialog
for(Gtk::TreeModel::iterator i = _model->children().begin(); i != _model->children().end(); ++i) {
SPObject* object = (*i)[_columns.filter];
if(object && object->getRepr()) ;
object->getRepr()->setPosition(0);
}
*/
return false;
}
void FilterEffectsDialog::FilterModifier::on_selection_toggled(const Glib::ustring& path)
{
Gtk::TreeIter iter = _model->get_iter(path);
if(iter) {
SPDesktop *desktop = _dialog.getDesktop();
SPDocument *doc = desktop->getDocument();
SPFilter* filter = (*iter)[_columns.filter];
Inkscape::Selection *sel = desktop->getSelection();
/* If this filter is the only one used in the selection, unset it */
if((*iter)[_columns.sel] == 1)
filter = 0;
std::vector<SPItem*> itemlist=sel->itemList();
for(std::vector<SPItem*>::const_iterator i=itemlist.begin(); itemlist.end() != i; ++i) {
SPItem * item = *i;
SPStyle *style = item->style;
g_assert(style != NULL);
if (filter) {
sp_style_set_property_url(item, "filter", filter, false);
} else {
::remove_filter(item, false);
}
item->requestDisplayUpdate((SP_OBJECT_MODIFIED_FLAG | SP_OBJECT_STYLE_MODIFIED_FLAG ));
}
update_selection(sel);
DocumentUndo::done(doc, SP_VERB_DIALOG_FILTER_EFFECTS, _("Apply filter"));
}
}
void FilterEffectsDialog::FilterModifier::update_counts()
{
for(Gtk::TreeModel::iterator i = _model->children().begin(); i != _model->children().end(); ++i) {
SPFilter* f = SP_FILTER((*i)[_columns.filter]);
(*i)[_columns.count] = f->getRefCount();
}
}
/* Add all filters in the document to the combobox.
Keeps the same selection if possible, otherwise selects the first element */
void FilterEffectsDialog::FilterModifier::update_filters()
{
SPDesktop* desktop = _dialog.getDesktop();
SPDocument* document = desktop->getDocument();
std::set<SPObject *> filters = document->getResourceList( "filter" );
_model->clear();
for (std::set<SPObject *>::const_iterator it = filters.begin(); it != filters.end(); ++it) {
Gtk::TreeModel::Row row = *_model->append();
SPFilter* f = SP_FILTER(*it);
row[_columns.filter] = f;
const gchar* lbl = f->label();
const gchar* id = f->getId();
row[_columns.label] = lbl ? lbl : (id ? id : "filter");
}
update_selection(desktop->selection);
_dialog.update_filter_general_settings_view();
}
SPFilter* FilterEffectsDialog::FilterModifier::get_selected_filter()
{
if(_list.get_selection()) {
Gtk::TreeModel::iterator i = _list.get_selection()->get_selected();
if(i)
return (*i)[_columns.filter];
}
return 0;
}
void FilterEffectsDialog::FilterModifier::select_filter(const SPFilter* filter)
{
if(filter) {
for(Gtk::TreeModel::iterator i = _model->children().begin();
i != _model->children().end(); ++i) {
if((*i)[_columns.filter] == filter) {
_list.get_selection()->select(i);
break;
}
}
}
}
void FilterEffectsDialog::FilterModifier::filter_list_button_release(GdkEventButton* event)
{
if((event->type == GDK_BUTTON_RELEASE) && (event->button == 3)) {
const bool sensitive = get_selected_filter() != NULL;
std::vector<Gtk::Widget*> items = _menu->get_children();
items[0]->set_sensitive(sensitive);
items[1]->set_sensitive(sensitive);
_menu->popup(event->button, event->time);
}
}
void FilterEffectsDialog::FilterModifier::add_filter()
{
SPDocument* doc = _dialog.getDesktop()->getDocument();
SPFilter* filter = new_filter(doc);
const int count = _model->children().size();
std::ostringstream os;
os << _("filter") << count;
filter->setLabel(os.str().c_str());
update_filters();
select_filter(filter);
DocumentUndo::done(doc, SP_VERB_DIALOG_FILTER_EFFECTS, _("Add filter"));
}
void FilterEffectsDialog::FilterModifier::remove_filter()
{
SPFilter *filter = get_selected_filter();
if(filter) {
SPDocument* doc = filter->document;
// Delete all references to this filter
std::vector<SPItem*> x,y;
std::vector<SPItem*> all = get_all_items(x, _desktop->currentRoot(), _desktop, false, false, true, y);
for(std::vector<SPItem*>::const_iterator i=all.begin(); all.end() != i; ++i) {
if (!SP_IS_ITEM(*i)) {
continue;
}
SPItem *item = *i;
if (!item->style) {
continue;
}
const SPIFilter *ifilter = &(item->style->filter);
if (ifilter && ifilter->href) {
const SPObject *obj = ifilter->href->getObject();
if (obj && obj == (SPObject *)filter) {
::remove_filter(item, false);
}
}
}
//XML Tree being used directly here while it shouldn't be.
sp_repr_unparent(filter->getRepr());
DocumentUndo::done(doc, SP_VERB_DIALOG_FILTER_EFFECTS, _("Remove filter"));
update_filters();
}
}
void FilterEffectsDialog::FilterModifier::duplicate_filter()
{
SPFilter* filter = get_selected_filter();
if (filter) {
Inkscape::XML::Node *repr = filter->getRepr();
Inkscape::XML::Node *parent = repr->parent();
repr = repr->duplicate(repr->document());
parent->appendChild(repr);
DocumentUndo::done(filter->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("Duplicate filter"));
update_filters();
}
}
void FilterEffectsDialog::FilterModifier::rename_filter()
{
_list.set_cursor(_model->get_path(_list.get_selection()->get_selected()), *_list.get_column(1), true);
}
FilterEffectsDialog::CellRendererConnection::CellRendererConnection()
: Glib::ObjectBase(typeid(CellRendererConnection)),
_primitive(*this, "primitive", 0),
_text_width(0)
{}
Glib::PropertyProxy<void*> FilterEffectsDialog::CellRendererConnection::property_primitive()
{
return _primitive.get_proxy();
}
#if WITH_GTKMM_3_0
void FilterEffectsDialog::CellRendererConnection::get_preferred_width_vfunc(Gtk::Widget& widget,
int& minimum_width,
int& natural_width) const
{
PrimitiveList& primlist = dynamic_cast<PrimitiveList&>(widget);
minimum_width = natural_width = size * primlist.primitive_count() + primlist.get_input_type_width() * 6;
}
void FilterEffectsDialog::CellRendererConnection::get_preferred_width_for_height_vfunc(Gtk::Widget& widget,
int /* height */,
int& minimum_width,
int& natural_width) const
{
get_preferred_width(widget, minimum_width, natural_width);
}
void FilterEffectsDialog::CellRendererConnection::get_preferred_height_vfunc(Gtk::Widget& widget,
int& minimum_height,
int& natural_height) const
{
// Scale the height depending on the number of inputs, unless it's
// the first primitive, in which case there are no connections
SPFilterPrimitive* prim = SP_FILTER_PRIMITIVE(_primitive.get_value());
minimum_height = natural_height = size * input_count(prim);
}
void FilterEffectsDialog::CellRendererConnection::get_preferred_height_for_width_vfunc(Gtk::Widget& widget,
int /* width */,
int& minimum_height,
int& natural_height) const
{
get_preferred_height(widget, minimum_height, natural_height);
}
#else
void FilterEffectsDialog::CellRendererConnection::get_size_vfunc(
Gtk::Widget& widget, const Gdk::Rectangle* /*cell_area*/,
int* x_offset, int* y_offset, int* width, int* height) const
{
PrimitiveList& primlist = dynamic_cast<PrimitiveList&>(widget);
if(x_offset)
(*x_offset) = 0;
if(y_offset)
(*y_offset) = 0;
if(width)
(*width) = size * primlist.primitive_count() + (primlist.get_input_type_width()) * 6;
if(height) {
// Scale the height depending on the number of inputs, unless it's
// the first primitive, in which case there are no connections
SPFilterPrimitive* prim = SP_FILTER_PRIMITIVE(_primitive.get_value());
(*height) = size * input_count(prim);
}
}
#endif
/*** PrimitiveList ***/
FilterEffectsDialog::PrimitiveList::PrimitiveList(FilterEffectsDialog& d)
: _dialog(d),
_in_drag(0),
_observer(new Inkscape::XML::SignalObserver)
{
#if WITH_GTKMM_3_0
d.signal_draw().connect(sigc::mem_fun(*this, &PrimitiveList::on_draw_signal));
signal_draw().connect(sigc::mem_fun(*this, &PrimitiveList::on_draw_signal));
#else
d.signal_expose_event().connect(sigc::mem_fun(*this, &PrimitiveList::on_expose_signal));
signal_expose_event().connect(sigc::mem_fun(*this, &PrimitiveList::on_expose_signal));
#endif
add_events(Gdk::POINTER_MOTION_MASK | Gdk::BUTTON_PRESS_MASK | Gdk::BUTTON_RELEASE_MASK);
_model = Gtk::ListStore::create(_columns);
set_reorderable(true);
set_model(_model);
append_column(_("_Effect"), _columns.type);
get_column(0)->set_resizable(true);
set_headers_visible();
_observer->signal_changed().connect(signal_primitive_changed().make_slot());
get_selection()->signal_changed().connect(sigc::mem_fun(*this, &PrimitiveList::on_primitive_selection_changed));
signal_primitive_changed().connect(sigc::mem_fun(*this, &PrimitiveList::queue_draw));
init_text();
int cols_count = append_column(_("Connections"), _connection_cell);
Gtk::TreeViewColumn* col = get_column(cols_count - 1);
if(col)
col->add_attribute(_connection_cell.property_primitive(), _columns.primitive);
}
// Sets up a vertical Pango context/layout, and returns the largest
// width needed to render the FilterPrimitiveInput labels.
void FilterEffectsDialog::PrimitiveList::init_text()
{
// Set up a vertical context+layout
Glib::RefPtr<Pango::Context> context = create_pango_context();
const Pango::Matrix matrix = {0, -1, 1, 0, 0, 0};
context->set_matrix(matrix);
_vertical_layout = Pango::Layout::create(context);
// Store the maximum height and width of the an input type label
// for later use in drawing and measuring.
_input_type_height = _input_type_width = 0;
for(unsigned int i = 0; i < FPInputConverter._length; ++i) {
_vertical_layout->set_text(_(FPInputConverter.get_label((FilterPrimitiveInput)i).c_str()));
int fontw, fonth;
_vertical_layout->get_pixel_size(fontw, fonth);
if(fonth > _input_type_width)
_input_type_width = fonth;
if (fontw > _input_type_height)
_input_type_height = fontw;
}
}
sigc::signal<void>& FilterEffectsDialog::PrimitiveList::signal_primitive_changed()
{
return _signal_primitive_changed;
}
void FilterEffectsDialog::PrimitiveList::on_primitive_selection_changed()
{
_observer->set(get_selected());
signal_primitive_changed()();
_dialog._color_matrix_values->clear_store();
}
/* Add all filter primitives in the current to the list.
Keeps the same selection if possible, otherwise selects the first element */
void FilterEffectsDialog::PrimitiveList::update()
{
SPFilter* f = _dialog._filter_modifier.get_selected_filter();
const SPFilterPrimitive* active_prim = get_selected();
_model->clear();
if(f) {
bool active_found = false;
_dialog._primitive_box->set_sensitive(true);
_dialog.update_filter_general_settings_view();
for(SPObject *prim_obj = f->children;
prim_obj && SP_IS_FILTER_PRIMITIVE(prim_obj);
prim_obj = prim_obj->next) {
SPFilterPrimitive *prim = SP_FILTER_PRIMITIVE(prim_obj);
if(prim) {
Gtk::TreeModel::Row row = *_model->append();
row[_columns.primitive] = prim;
//XML Tree being used directly here while it shouldn't be.
row[_columns.type_id] = FPConverter.get_id_from_key(prim->getRepr()->name());
row[_columns.type] = _(FPConverter.get_label(row[_columns.type_id]).c_str());
if (prim->getId()) {
row[_columns.id] = Glib::ustring(prim->getId());
}
if(prim == active_prim) {
get_selection()->select(row);
active_found = true;
}
}
}
if(!active_found && _model->children().begin())
get_selection()->select(_model->children().begin());
columns_autosize();
int width, height;
get_size_request(width, height);
if (height == -1) {
// Need to account for the height of the input type text (rotated text) as well as the
// column headers. Input type text height determined in init_text() by measuring longest
// string. Column header height determined by mapping y coordinate of visible
// rectangle to widget coordinates.
Gdk::Rectangle vis;
int vis_x, vis_y;
get_visible_rect(vis);
convert_tree_to_widget_coords(vis.get_x(), vis.get_y(), vis_x, vis_y);
set_size_request(width, _input_type_height + 2 + vis_y);
}
}
else {
_dialog._primitive_box->set_sensitive(false);
set_size_request(-1, -1);
}
}
void FilterEffectsDialog::PrimitiveList::set_menu(Glib::RefPtr<Gtk::Menu> menu)
{
_primitive_menu = menu;
}
SPFilterPrimitive* FilterEffectsDialog::PrimitiveList::get_selected()
{
if(_dialog._filter_modifier.get_selected_filter()) {
Gtk::TreeModel::iterator i = get_selection()->get_selected();
if(i)
return (*i)[_columns.primitive];
}
return 0;
}
void FilterEffectsDialog::PrimitiveList::select(SPFilterPrimitive* prim)
{
for(Gtk::TreeIter i = _model->children().begin();
i != _model->children().end(); ++i) {
if((*i)[_columns.primitive] == prim)
get_selection()->select(i);
}
}
void FilterEffectsDialog::PrimitiveList::remove_selected()
{
SPFilterPrimitive* prim = get_selected();
if(prim) {
_observer->set(0);
//XML Tree being used directly here while it shouldn't be.
sp_repr_unparent(prim->getRepr());
DocumentUndo::done(_dialog.getDesktop()->getDocument(), SP_VERB_DIALOG_FILTER_EFFECTS,
_("Remove filter primitive"));
update();
}
}
#if !WITH_GTKMM_3_0
bool FilterEffectsDialog::PrimitiveList::on_expose_signal(GdkEventExpose * /*evt*/)
{
bool result = false;
if (get_is_drawable())
{
Cairo::RefPtr<Cairo::Context> cr = get_bin_window()->create_cairo_context();
result = on_draw_signal(cr);
}
return result;
}
#endif
bool FilterEffectsDialog::PrimitiveList::on_draw_signal(const Cairo::RefPtr<Cairo::Context> & cr)
{
cr->set_line_width(1.0);
#if GTK_CHECK_VERSION(3,0,0)
// In GTK+ 3, the draw function receives the widget window, not the
// bin_window (i.e., just the area under the column headers). We
// therefore translate the origin of our coordinate system to account for this
int x_origin, y_origin;
convert_bin_window_to_widget_coords(0,0,x_origin,y_origin);
cr->translate(x_origin, y_origin);
GtkStyleContext *sc = gtk_widget_get_style_context(GTK_WIDGET(gobj()));
GdkRGBA bg_color, fg_color;
gtk_style_context_get_background_color(sc, GTK_STATE_FLAG_NORMAL, &bg_color);
gtk_style_context_get_color(sc, GTK_STATE_FLAG_NORMAL, &fg_color);
GdkRGBA mid_color = {(bg_color.red + fg_color.red)/2.0,
(bg_color.green + fg_color.green)/2.0,
(bg_color.blue + fg_color.blue)/2.0,
(bg_color.alpha + fg_color.alpha)/2.0};
GdkRGBA bg_color_active, fg_color_active;
gtk_style_context_get_background_color(sc, GTK_STATE_FLAG_ACTIVE, &bg_color_active);
gtk_style_context_get_color(sc, GTK_STATE_FLAG_ACTIVE, &fg_color_active);
GdkRGBA mid_color_active = {(bg_color_active.red + fg_color_active.red)/2.0,
(bg_color_active.green + fg_color_active.green)/2.0,
(bg_color_active.blue + fg_color_active.blue)/2.0,
(bg_color_active.alpha + fg_color_active.alpha)/2.0};
#else
GtkStyle *style = gtk_widget_get_style(GTK_WIDGET(gobj()));
#endif
SPFilterPrimitive* prim = get_selected();
int row_count = get_model()->children().size();
int fheight = CellRendererConnection::size;
Gdk::Rectangle rct, vis;
Gtk::TreeIter row = get_model()->children().begin();
int text_start_x = 0;
if(row) {
get_cell_area(get_model()->get_path(row), *get_column(1), rct);
get_visible_rect(vis);
text_start_x = rct.get_x() + rct.get_width() - get_input_type_width() * FPInputConverter._length + 1;
for(unsigned int i = 0; i < FPInputConverter._length; ++i) {
_vertical_layout->set_text(_(FPInputConverter.get_label((FilterPrimitiveInput)i).c_str()));
const int x = text_start_x + get_input_type_width() * i;
cr->save();
cr->rectangle(x, 0, get_input_type_width(), vis.get_height());
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(), &bg_color);
cr->fill_preserve();
gdk_cairo_set_source_rgba(cr->cobj(), &fg_color);
#else
gdk_cairo_set_source_color(cr->cobj(), &(style->bg[GTK_STATE_NORMAL]));
cr->fill_preserve();
gdk_cairo_set_source_color(cr->cobj(), &(style->text[GTK_STATE_NORMAL]));
#endif
cr->move_to(x+get_input_type_width(), 0);
cr->rotate_degrees(90);
_vertical_layout->show_in_cairo_context(cr);
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(), &mid_color);
#else
gdk_cairo_set_source_color(cr->cobj(), &(style->dark[GTK_STATE_NORMAL]));
#endif
cr->move_to(x, 0);
cr->line_to(x, vis.get_height());
cr->stroke();
cr->restore();
}
}
int row_index = 0;
for(; row != get_model()->children().end(); ++row, ++row_index) {
get_cell_area(get_model()->get_path(row), *get_column(1), rct);
const int x = rct.get_x(), y = rct.get_y(), h = rct.get_height();
// Check mouse state
int mx, my;
Gdk::ModifierType mask;
#if GTK_CHECK_VERSION(3,0,0)
Glib::RefPtr<Gdk::Display> display = get_bin_window()->get_display();
Glib::RefPtr<Gdk::DeviceManager> dm = display->get_device_manager();
Glib::RefPtr<const Gdk::Device> device = dm->get_client_pointer();
get_bin_window()->get_device_position(device, mx, my, mask);
#else
get_bin_window()->get_pointer(mx, my, mask);
#endif
// Outline the bottom of the connection area
const int outline_x = x + fheight * (row_count - row_index);
cr->save();
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(), &mid_color);
#else
gdk_cairo_set_source_color(cr->cobj(), &(style->dark[GTK_STATE_NORMAL]));
#endif
cr->move_to(x, y + h);
cr->line_to(outline_x, y + h);
// Side outline
cr->line_to(outline_x, y - 1);
cr->stroke();
cr->restore();
std::vector<Gdk::Point> con_poly;
int con_drag_y = 0;
int con_drag_x = 0;
bool inside;
const SPFilterPrimitive* row_prim = (*row)[_columns.primitive];
const int inputs = input_count(row_prim);
if(SP_IS_FEMERGE(row_prim)) {
for(int i = 0; i < inputs; ++i) {
inside = do_connection_node(row, i, con_poly, mx, my);
cr->save();
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&mid_color :
&mid_color_active);
#else
gdk_cairo_set_source_color(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&(style->dark[GTK_STATE_NORMAL]) :
&(style->dark[GTK_STATE_ACTIVE]));
#endif
draw_connection_node(cr, con_poly, inside);
cr->restore();
if(_in_drag == (i + 1))
{
con_drag_y = con_poly[2].get_y();
con_drag_x = con_poly[2].get_x();
}
if(_in_drag != (i + 1) || row_prim != prim)
{
draw_connection(cr, row, i, text_start_x, outline_x, con_poly[2].get_y(), row_count);
}
}
}
else {
// Draw "in" shape
inside = do_connection_node(row, 0, con_poly, mx, my);
con_drag_y = con_poly[2].get_y();
con_drag_x = con_poly[2].get_x();
cr->save();
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&mid_color :
&mid_color_active);
#else
gdk_cairo_set_source_color(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&(style->dark[GTK_STATE_NORMAL]) :
&(style->dark[GTK_STATE_ACTIVE]));
#endif
draw_connection_node(cr, con_poly, inside);
cr->restore();
// Draw "in" connection
if(_in_drag != 1 || row_prim != prim)
{
draw_connection(cr, row, SP_ATTR_IN, text_start_x, outline_x, con_poly[2].get_y(), row_count);
}
if(inputs == 2) {
// Draw "in2" shape
inside = do_connection_node(row, 1, con_poly, mx, my);
if(_in_drag == 2)
{
con_drag_y = con_poly[2].get_y();
con_drag_x = con_poly[2].get_x();
}
cr->save();
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&mid_color :
&mid_color_active);
#else
gdk_cairo_set_source_color(cr->cobj(),
inside && mask & GDK_BUTTON1_MASK ?
&(style->dark[GTK_STATE_NORMAL]) :
&(style->dark[GTK_STATE_ACTIVE]));
#endif
draw_connection_node(cr, con_poly, inside);
cr->restore();
// Draw "in2" connection
if(_in_drag != 2 || row_prim != prim)
{
draw_connection(cr, row, SP_ATTR_IN2, text_start_x, outline_x, con_poly[2].get_y(), row_count);
}
}
}
// Draw drag connection
if(row_prim == prim && _in_drag) {
cr->save();
cr->set_source_rgb(0.0, 0.0, 0.0);
cr->move_to(con_drag_x, con_drag_y);
cr->line_to(mx, con_drag_y);
cr->line_to(mx, my);
cr->stroke();
cr->restore();
}
}
return true;
}
void FilterEffectsDialog::PrimitiveList::draw_connection(const Cairo::RefPtr<Cairo::Context>& cr,
const Gtk::TreeIter& input, const int attr,
const int text_start_x, const int x1, const int y1,
const int row_count)
{
cr->save();
#if GTK_CHECK_VERSION(3,0,0)
GtkStyleContext *sc = gtk_widget_get_style_context(GTK_WIDGET(gobj()));
GdkRGBA bg_color, fg_color;
gtk_style_context_get_background_color(sc, GTK_STATE_FLAG_NORMAL, &bg_color);
gtk_style_context_get_color(sc, GTK_STATE_FLAG_NORMAL, &fg_color);
GdkRGBA mid_color = {(bg_color.red + fg_color.red)/2.0,
(bg_color.green + fg_color.green)/2.0,
(bg_color.blue + fg_color.blue)/2.0,
(bg_color.alpha + fg_color.alpha)/2.0};
#else
GtkStyle *style = gtk_widget_get_style(GTK_WIDGET(gobj()));
#endif
int src_id = 0;
Gtk::TreeIter res = find_result(input, attr, src_id);
const bool is_first = input == get_model()->children().begin();
const bool is_merge = SP_IS_FEMERGE((SPFilterPrimitive*)(*input)[_columns.primitive]);
const bool use_default = !res && !is_merge;
if(res == input || (use_default && is_first)) {
// Draw straight connection to a standard input
// Draw a lighter line for an implicit connection to a standard input
const int tw = get_input_type_width();
gint end_x = text_start_x + tw * src_id + (int)(tw * 0.5f) + 1;
if(use_default && is_first)
#if GTK_CHECK_VERSION(3,0,0)
gdk_cairo_set_source_rgba(cr->cobj(), &mid_color);
#else
gdk_cairo_set_source_color(cr->cobj(), &(style->dark[GTK_STATE_NORMAL]));
#endif
else
cr->set_source_rgb(0.0, 0.0, 0.0);
cr->rectangle(end_x-2, y1-2, 5, 5);
cr->fill_preserve();
cr->move_to(x1, y1);
cr->line_to(end_x, y1);
cr->stroke();
}
else {
// Draw an 'L'-shaped connection to another filter primitive
// If no connection is specified, draw a light connection to the previous primitive
if(use_default) {
res = input;
--res;
}
if(res) {
Gdk::Rectangle rct;
get_cell_area(get_model()->get_path(_model->children().begin()), *get_column(1), rct);
const int fheight = CellRendererConnection::size;
get_cell_area(get_model()->get_path(res), *get_column(1), rct);
const int row_index = find_index(res);
const int x2 = rct.get_x() + fheight * (row_count - row_index) - fheight / 2;
const int y2 = rct.get_y() + rct.get_height();
// Draw a bevelled 'L'-shaped connection
cr->set_source_rgb(0.0, 0.0, 0.0);
cr->move_to(x1, y1);
cr->line_to(x2-fheight/4, y1);
cr->line_to(x2, y1-fheight/4);
cr->line_to(x2, y2);
cr->stroke();
}
}
cr->restore();
}
// Draw the triangular outline of the connection node, and fill it
// if desired
void FilterEffectsDialog::PrimitiveList::draw_connection_node(const Cairo::RefPtr<Cairo::Context>& cr,
const std::vector<Gdk::Point>& points,
const bool fill)
{
cr->save();
cr->move_to(points[0].get_x()+0.5, points[0].get_y()+0.5);
cr->line_to(points[1].get_x()+0.5, points[1].get_y()+0.5);
cr->line_to(points[2].get_x()+0.5, points[2].get_y()+0.5);
cr->line_to(points[0].get_x()+0.5, points[0].get_y()+0.5);
if(fill) cr->fill();
else cr->stroke();
cr->restore();
}
// Creates a triangle outline of the connection node and returns true if (x,y) is inside the node
bool FilterEffectsDialog::PrimitiveList::do_connection_node(const Gtk::TreeIter& row, const int input,
std::vector<Gdk::Point>& points,
const int ix, const int iy)
{
Gdk::Rectangle rct;
const int icnt = input_count((*row)[_columns.primitive]);
get_cell_area(get_model()->get_path(_model->children().begin()), *get_column(1), rct);
const int fheight = CellRendererConnection::size;
get_cell_area(_model->get_path(row), *get_column(1), rct);
const float h = rct.get_height() / icnt;
const int x = rct.get_x() + fheight * (_model->children().size() - find_index(row));
const int con_w = (int)(fheight * 0.35f);
const int con_y = (int)(rct.get_y() + (h / 2) - con_w + (input * h));
points.clear();
points.push_back(Gdk::Point(x, con_y));
points.push_back(Gdk::Point(x, con_y + con_w * 2));
points.push_back(Gdk::Point(x - con_w, con_y + con_w));
return ix >= x - h && iy >= con_y && ix <= x && iy <= points[1].get_y();
}
const Gtk::TreeIter FilterEffectsDialog::PrimitiveList::find_result(const Gtk::TreeIter& start,
const int attr, int& src_id)
{
SPFilterPrimitive* prim = (*start)[_columns.primitive];
Gtk::TreeIter target = _model->children().end();
int image = 0;
if(SP_IS_FEMERGE(prim)) {
int c = 0;
bool found = false;
for(const SPObject* o = prim->firstChild(); o; o = o->next, ++c) {
if(c == attr && SP_IS_FEMERGENODE(o)) {
image = SP_FEMERGENODE(o)->input;
found = true;
}
}
if(!found)
return target;
}
else {
if(attr == SP_ATTR_IN)
image = prim->image_in;
else if(attr == SP_ATTR_IN2) {
if(SP_IS_FEBLEND(prim))
image = SP_FEBLEND(prim)->in2;
else if(SP_IS_FECOMPOSITE(prim))
image = SP_FECOMPOSITE(prim)->in2;
else if(SP_IS_FEDISPLACEMENTMAP(prim))
image = SP_FEDISPLACEMENTMAP(prim)->in2;
else
return target;
}
else
return target;
}
if(image >= 0) {
for(Gtk::TreeIter i = _model->children().begin();
i != start; ++i) {
if(((SPFilterPrimitive*)(*i)[_columns.primitive])->image_out == image)
target = i;
}
return target;
}
else if(image < -1) {
src_id = -(image + 2);
return start;
}
return target;
}
int FilterEffectsDialog::PrimitiveList::find_index(const Gtk::TreeIter& target)
{
int i = 0;
for(Gtk::TreeIter iter = _model->children().begin();
iter != target; ++iter, ++i){};
return i;
}
bool FilterEffectsDialog::PrimitiveList::on_button_press_event(GdkEventButton* e)
{
Gtk::TreePath path;
Gtk::TreeViewColumn* col;
const int x = (int)e->x, y = (int)e->y;
int cx, cy;
_drag_prim = 0;
if(get_path_at_pos(x, y, path, col, cx, cy)) {
Gtk::TreeIter iter = _model->get_iter(path);
std::vector<Gdk::Point> points;
_drag_prim = (*iter)[_columns.primitive];
const int icnt = input_count(_drag_prim);
for(int i = 0; i < icnt; ++i) {
if(do_connection_node(_model->get_iter(path), i, points, x, y)) {
_in_drag = i + 1;
break;
}
}
queue_draw();
}
if(_in_drag) {
_scroll_connection = Glib::signal_timeout().connect(sigc::mem_fun(*this, &PrimitiveList::on_scroll_timeout), 150);
_autoscroll_x = 0;
_autoscroll_y = 0;
get_selection()->select(path);
return true;
}
else
return Gtk::TreeView::on_button_press_event(e);
}
bool FilterEffectsDialog::PrimitiveList::on_motion_notify_event(GdkEventMotion* e)
{
const int speed = 10;
const int limit = 15;
Gdk::Rectangle vis;
get_visible_rect(vis);
int vis_x, vis_y;
int vis_x2, vis_y2;
convert_widget_to_tree_coords(vis.get_x(), vis.get_y(), vis_x2, vis_y2);
convert_tree_to_widget_coords(vis.get_x(), vis.get_y(), vis_x, vis_y);
const int top = vis_y + vis.get_height();
const int right_edge = vis_x + vis.get_width();
// When autoscrolling during a connection drag, set the speed based on
// where the mouse is in relation to the edges.
if(e->y < vis_y)
_autoscroll_y = -(int)(speed + (vis_y - e->y) / 5);
else if(e->y < vis_y + limit)
_autoscroll_y = -speed;
else if(e->y > top)
_autoscroll_y = (int)(speed + (e->y - top) / 5);
else if(e->y > top - limit)
_autoscroll_y = speed;
else
_autoscroll_y = 0;
double e2 = ( e->x - vis_x2/2);
// horizontal scrolling
if(e2 < vis_x)
_autoscroll_x = -(int)(speed + (vis_x - e2) / 5);
else if(e2 < vis_x + limit)
_autoscroll_x = -speed;
else if(e2 > right_edge)
_autoscroll_x = (int)(speed + (e2 - right_edge) / 5);
else if(e2 > right_edge - limit)
_autoscroll_x = speed;
else
_autoscroll_x = 0;
queue_draw();
return Gtk::TreeView::on_motion_notify_event(e);
}
bool FilterEffectsDialog::PrimitiveList::on_button_release_event(GdkEventButton* e)
{
SPFilterPrimitive *prim = get_selected(), *target;
_scroll_connection.disconnect();
if(_in_drag && prim) {
Gtk::TreePath path;
Gtk::TreeViewColumn* col;
int cx, cy;
if(get_path_at_pos((int)e->x, (int)e->y, path, col, cx, cy)) {
const gchar *in_val = 0;
Glib::ustring result;
Gtk::TreeIter target_iter = _model->get_iter(path);
target = (*target_iter)[_columns.primitive];
col = get_column(1);
Gdk::Rectangle rct;
get_cell_area(path, *col, rct);
const int twidth = get_input_type_width();
const int sources_x = rct.get_width() - twidth * FPInputConverter._length;
if(cx > sources_x) {
int src = (cx - sources_x) / twidth;
if (src < 0) {
src = 0;
} else if(src >= static_cast<int>(FPInputConverter._length)) {
src = FPInputConverter._length - 1;
}
result = FPInputConverter.get_key((FilterPrimitiveInput)src);
in_val = result.c_str();
}
else {
// Ensure that the target comes before the selected primitive
for(Gtk::TreeIter iter = _model->children().begin();
iter != get_selection()->get_selected(); ++iter) {
if(iter == target_iter) {
Inkscape::XML::Node *repr = target->getRepr();
// Make sure the target has a result
const gchar *gres = repr->attribute("result");
if(!gres) {
result = sp_filter_get_new_result_name(SP_FILTER(prim->parent));
repr->setAttribute("result", result.c_str());
in_val = result.c_str();
}
else
in_val = gres;
break;
}
}
}
if(SP_IS_FEMERGE(prim)) {
int c = 1;
bool handled = false;
for(SPObject* o = prim->firstChild(); o && !handled; o = o->next, ++c) {
if(c == _in_drag && SP_IS_FEMERGENODE(o)) {
// If input is null, delete it
if(!in_val) {
//XML Tree being used directly here while it shouldn't be.
sp_repr_unparent(o->getRepr());
DocumentUndo::done(prim->document, SP_VERB_DIALOG_FILTER_EFFECTS,
_("Remove merge node"));
(*get_selection()->get_selected())[_columns.primitive] = prim;
}
else
_dialog.set_attr(o, SP_ATTR_IN, in_val);
handled = true;
}
}
// Add new input?
if(!handled && c == _in_drag && in_val) {
Inkscape::XML::Document *xml_doc = prim->document->getReprDoc();
Inkscape::XML::Node *repr = xml_doc->createElement("svg:feMergeNode");
repr->setAttribute("inkscape:collect", "always");
//XML Tree being used directly here while it shouldn't be.
prim->getRepr()->appendChild(repr);
SPFeMergeNode *node = SP_FEMERGENODE(prim->document->getObjectByRepr(repr));
Inkscape::GC::release(repr);
_dialog.set_attr(node, SP_ATTR_IN, in_val);
(*get_selection()->get_selected())[_columns.primitive] = prim;
}
}
else {
if(_in_drag == 1)
_dialog.set_attr(prim, SP_ATTR_IN, in_val);
else if(_in_drag == 2)
_dialog.set_attr(prim, SP_ATTR_IN2, in_val);
}
}
_in_drag = 0;
queue_draw();
_dialog.update_settings_view();
}
if((e->type == GDK_BUTTON_RELEASE) && (e->button == 3)) {
const bool sensitive = get_selected() != NULL;
std::vector<Gtk::Widget*> items = _primitive_menu->get_children();
items[0]->set_sensitive(sensitive);
items[1]->set_sensitive(sensitive);
_primitive_menu->popup(e->button, e->time);
return true;
}
else
return Gtk::TreeView::on_button_release_event(e);
}
// Checks all of prim's inputs, removes any that use result
static void check_single_connection(SPFilterPrimitive* prim, const int result)
{
if (prim && (result >= 0)) {
if (prim->image_in == result) {
prim->getRepr()->setAttribute("in", 0);
}
if (SP_IS_FEBLEND(prim)) {
if (SP_FEBLEND(prim)->in2 == result) {
prim->getRepr()->setAttribute("in2", 0);
}
} else if (SP_IS_FECOMPOSITE(prim)) {
if (SP_FECOMPOSITE(prim)->in2 == result) {
prim->getRepr()->setAttribute("in2", 0);
}
} else if (SP_IS_FEDISPLACEMENTMAP(prim)) {
if (SP_FEDISPLACEMENTMAP(prim)->in2 == result) {
prim->getRepr()->setAttribute("in2", 0);
}
}
}
}
// Remove any connections going to/from prim_iter that forward-reference other primitives
void FilterEffectsDialog::PrimitiveList::sanitize_connections(const Gtk::TreeIter& prim_iter)
{
SPFilterPrimitive *prim = (*prim_iter)[_columns.primitive];
bool before = true;
for(Gtk::TreeIter iter = _model->children().begin();
iter != _model->children().end(); ++iter) {
if(iter == prim_iter)
before = false;
else {
SPFilterPrimitive* cur_prim = (*iter)[_columns.primitive];
if(before)
check_single_connection(cur_prim, prim->image_out);
else
check_single_connection(prim, cur_prim->image_out);
}
}
}
// Reorder the filter primitives to match the list order
void FilterEffectsDialog::PrimitiveList::on_drag_end(const Glib::RefPtr<Gdk::DragContext>& /*dc*/)
{
SPFilter* filter = _dialog._filter_modifier.get_selected_filter();
int ndx = 0;
for (Gtk::TreeModel::iterator iter = _model->children().begin();
iter != _model->children().end(); ++iter, ++ndx) {
SPFilterPrimitive* prim = (*iter)[_columns.primitive];
if (prim && prim == _drag_prim) {
prim->getRepr()->setPosition(ndx);
break;
}
}
for (Gtk::TreeModel::iterator iter = _model->children().begin();
iter != _model->children().end(); ++iter, ++ndx) {
SPFilterPrimitive* prim = (*iter)[_columns.primitive];
if (prim && prim == _drag_prim) {
sanitize_connections(iter);
get_selection()->select(iter);
break;
}
}
filter->requestModified(SP_OBJECT_MODIFIED_FLAG);
DocumentUndo::done(filter->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("Reorder filter primitive"));
}
// If a connection is dragged towards the top or bottom of the list, the list should scroll to follow.
bool FilterEffectsDialog::PrimitiveList::on_scroll_timeout()
{
if(_autoscroll_y) {
#if WITH_GTKMM_3_0
Glib::RefPtr<Gtk::Adjustment> a = dynamic_cast<Gtk::ScrolledWindow*>(get_parent())->get_vadjustment();
double v = a->get_value() + _autoscroll_y;
if(v < 0)
v = 0;
if(v > a->get_upper() - a->get_page_size())
v = a->get_upper() - a->get_page_size();
a->set_value(v);
#else
Gtk::Adjustment& a = *dynamic_cast<Gtk::ScrolledWindow*>(get_parent())->get_vadjustment();
double v = a.get_value() + _autoscroll_y;
if(v < 0)
v = 0;
if(v > a.get_upper() - a.get_page_size())
v = a.get_upper() - a.get_page_size();
a.set_value(v);
#endif
queue_draw();
}
if(_autoscroll_x) {
#if WITH_GTKMM_3_0
Glib::RefPtr<Gtk::Adjustment> a_h = dynamic_cast<Gtk::ScrolledWindow*>(get_parent())->get_hadjustment();
double h = a_h->get_value() + _autoscroll_x;
if(h < 0)
h = 0;
if(h > a_h->get_upper() - a_h->get_page_size())
h = a_h->get_upper() - a_h->get_page_size();
a_h->set_value(h);
#else
Gtk::Adjustment& a_h = *dynamic_cast<Gtk::ScrolledWindow*>(get_parent())->get_hadjustment();
double h = a_h.get_value() + _autoscroll_x;
if(h < 0)
h = 0;
if(h > a_h.get_upper() - a_h.get_page_size())
h = a_h.get_upper() - a_h.get_page_size();
a_h.set_value(h);
#endif
queue_draw();
}
return true;
}
int FilterEffectsDialog::PrimitiveList::primitive_count() const
{
return _model->children().size();
}
int FilterEffectsDialog::PrimitiveList::get_input_type_width() const
{
// Maximum font height calculated in initText() and stored in _input_type_width.
// Add 2 to font height to account for rectangle around text.
return _input_type_width + 2;
}
/*** FilterEffectsDialog ***/
FilterEffectsDialog::FilterEffectsDialog()
: UI::Widget::Panel("", "/dialogs/filtereffects", SP_VERB_DIALOG_FILTER_EFFECTS),
_add_primitive_type(FPConverter),
_add_primitive(_("Add Effect:")),
_empty_settings(_("No effect selected"), Gtk::ALIGN_START),
_no_filter_selected(_("No filter selected"), Gtk::ALIGN_START),
_settings_initialized(false),
_locked(false),
_attr_lock(false),
_filter_modifier(*this),
_primitive_list(*this)
{
_settings = new Settings(*this, _settings_tab1, sigc::mem_fun(*this, &FilterEffectsDialog::set_attr_direct),
NR_FILTER_ENDPRIMITIVETYPE);
_filter_general_settings = new Settings(*this, _settings_tab2, sigc::mem_fun(*this, &FilterEffectsDialog::set_filternode_attr),
1);
_sizegroup = Gtk::SizeGroup::create(Gtk::SIZE_GROUP_HORIZONTAL);
_sizegroup->set_ignore_hidden();
// Initialize widget hierarchy
#if WITH_GTKMM_3_0
Gtk::Paned* hpaned = Gtk::manage(new Gtk::Paned);
_primitive_box = Gtk::manage(new Gtk::Paned);
#else
Gtk::HPaned* hpaned = Gtk::manage(new Gtk::HPaned);
_primitive_box = Gtk::manage(new Gtk::VPaned);
#endif
_sw_infobox = Gtk::manage(new Gtk::ScrolledWindow);
Gtk::ScrolledWindow* sw_prims = Gtk::manage(new Gtk::ScrolledWindow);
Gtk::HBox* infobox = Gtk::manage(new Gtk::HBox(/*homogeneous:*/false, /*spacing:*/4));
Gtk::HBox* hb_prims = Gtk::manage(new Gtk::HBox);
Gtk::VBox* vb_prims = Gtk::manage(new Gtk::VBox);
Gtk::VBox* vb_desc = Gtk::manage(new Gtk::VBox);
Gtk::VBox* prim_vbox_p = Gtk::manage(new Gtk::VBox);
Gtk::VBox* prim_vbox_i = Gtk::manage(new Gtk::VBox);
sw_prims->add(_primitive_list);
prim_vbox_p->pack_start(*sw_prims, true, true);
prim_vbox_i->pack_start(*vb_prims, true, true);
_primitive_box->pack1(*prim_vbox_p);
_primitive_box->pack2(*prim_vbox_i, false, false);
hpaned->pack1(_filter_modifier);
hpaned->pack2(*_primitive_box);
_getContents()->add(*hpaned);
_infobox_icon.set_alignment(0, 0);
_infobox_desc.set_alignment(0, 0);
_infobox_desc.set_justify(Gtk::JUSTIFY_LEFT);
_infobox_desc.set_line_wrap(true);
_infobox_desc.set_size_request(200, -1);
vb_desc->pack_start(_infobox_desc, true, true);
infobox->pack_start(_infobox_icon, false, false);
infobox->pack_start(*vb_desc, true, true);
//_sw_infobox->set_size_request(-1, -1);
_sw_infobox->set_size_request(200, -1);
_sw_infobox->add(*infobox);
//vb_prims->set_size_request(-1, 50);
vb_prims->pack_start(*hb_prims, false, false);
vb_prims->pack_start(*_sw_infobox, true, true);
hb_prims->pack_start(_add_primitive, false, false);
hb_prims->pack_start(_add_primitive_type, true, true);
_getContents()->pack_start(_settings_tabs, false, false);
_settings_tabs.append_page(_settings_tab1, _("Effect parameters"));
_settings_tabs.append_page(_settings_tab2, _("Filter General Settings"));
_primitive_list.signal_primitive_changed().connect(
sigc::mem_fun(*this, &FilterEffectsDialog::update_settings_view));
_filter_modifier.signal_filter_changed().connect(
sigc::mem_fun(_primitive_list, &PrimitiveList::update));
_add_primitive_type.signal_changed().connect(
sigc::mem_fun(*this, &FilterEffectsDialog::update_primitive_infobox));
sw_prims->set_policy(Gtk::POLICY_AUTOMATIC, Gtk::POLICY_AUTOMATIC);
sw_prims->set_shadow_type(Gtk::SHADOW_IN);
_sw_infobox->set_policy(Gtk::POLICY_AUTOMATIC, Gtk::POLICY_AUTOMATIC);
// al_settings->set_padding(0, 0, 12, 0);
// fr_settings->set_shadow_type(Gtk::SHADOW_NONE);
// ((Gtk::Label*)fr_settings->get_label_widget())->set_use_markup();
_add_primitive.signal_clicked().connect(sigc::mem_fun(*this, &FilterEffectsDialog::add_primitive));
_primitive_list.set_menu(create_popup_menu(*this, sigc::mem_fun(*this, &FilterEffectsDialog::duplicate_primitive),
sigc::mem_fun(_primitive_list, &PrimitiveList::remove_selected)));
show_all_children();
init_settings_widgets();
_primitive_list.update();
update_primitive_infobox();
}
FilterEffectsDialog::~FilterEffectsDialog()
{
delete _settings;
delete _filter_general_settings;
}
void FilterEffectsDialog::set_attrs_locked(const bool l)
{
_locked = l;
}
void FilterEffectsDialog::show_all_vfunc()
{
UI::Widget::Panel::show_all_vfunc();
update_settings_view();
}
void FilterEffectsDialog::init_settings_widgets()
{
// TODO: Find better range/climb-rate/digits values for the SpinScales,
// most of the current values are complete guesses!
_empty_settings.set_sensitive(false);
_settings_tab1.pack_start(_empty_settings);
_no_filter_selected.set_sensitive(false);
_settings_tab2.pack_start(_no_filter_selected);
_settings_initialized = true;
_filter_general_settings->type(0);
_filter_general_settings->add_multispinbutton(/*default x:*/ (double) -0.1, /*default y:*/ (double) -0.1, SP_ATTR_X, SP_ATTR_Y, _("Coordinates:"), -100, 100, 0.01, 0.1, 2, _("X coordinate of the left corners of filter effects region"), _("Y coordinate of the upper corners of filter effects region"));
_filter_general_settings->add_multispinbutton(/*default width:*/ (double) 1.2, /*default height:*/ (double) 1.2, SP_ATTR_WIDTH, SP_ATTR_HEIGHT, _("Dimensions:"), 0, 1000, 0.01, 0.1, 2, _("Width of filter effects region"), _("Height of filter effects region"));
_settings->type(NR_FILTER_BLEND);
_settings->add_combo(BLEND_NORMAL, SP_ATTR_MODE, _("Mode:"), BlendModeConverter);
_settings->type(NR_FILTER_COLORMATRIX);
ComboBoxEnum<FilterColorMatrixType>* colmat = _settings->add_combo(COLORMATRIX_MATRIX, SP_ATTR_TYPE, _("Type:"), ColorMatrixTypeConverter, _("Indicates the type of matrix operation. The keyword 'matrix' indicates that a full 5x4 matrix of values will be provided. The other keywords represent convenience shortcuts to allow commonly used color operations to be performed without specifying a complete matrix."));
_color_matrix_values = _settings->add_colormatrixvalues(_("Value(s):"));
colmat->signal_attr_changed().connect(sigc::mem_fun(*this, &FilterEffectsDialog::update_color_matrix));
_settings->type(NR_FILTER_COMPONENTTRANSFER);
_settings->add_componenttransfervalues(_("R:"), SPFeFuncNode::R);
_settings->add_componenttransfervalues(_("G:"), SPFeFuncNode::G);
_settings->add_componenttransfervalues(_("B:"), SPFeFuncNode::B);
_settings->add_componenttransfervalues(_("A:"), SPFeFuncNode::A);
_settings->type(NR_FILTER_COMPOSITE);
_settings->add_combo(COMPOSITE_OVER, SP_ATTR_OPERATOR, _("Operator:"), CompositeOperatorConverter);
_k1 = _settings->add_spinscale(0, SP_ATTR_K1, _("K1:"), -10, 10, 0.1, 0.01, 2, _("If the arithmetic operation is chosen, each result pixel is computed using the formula k1*i1*i2 + k2*i1 + k3*i2 + k4 where i1 and i2 are the pixel values of the first and second inputs respectively."));
_k2 = _settings->add_spinscale(0, SP_ATTR_K2, _("K2:"), -10, 10, 0.1, 0.01, 2, _("If the arithmetic operation is chosen, each result pixel is computed using the formula k1*i1*i2 + k2*i1 + k3*i2 + k4 where i1 and i2 are the pixel values of the first and second inputs respectively."));
_k3 = _settings->add_spinscale(0, SP_ATTR_K3, _("K3:"), -10, 10, 0.1, 0.01, 2, _("If the arithmetic operation is chosen, each result pixel is computed using the formula k1*i1*i2 + k2*i1 + k3*i2 + k4 where i1 and i2 are the pixel values of the first and second inputs respectively."));
_k4 = _settings->add_spinscale(0, SP_ATTR_K4, _("K4:"), -10, 10, 0.1, 0.01, 2, _("If the arithmetic operation is chosen, each result pixel is computed using the formula k1*i1*i2 + k2*i1 + k3*i2 + k4 where i1 and i2 are the pixel values of the first and second inputs respectively."));
_settings->type(NR_FILTER_CONVOLVEMATRIX);
_convolve_order = _settings->add_dualspinbutton((char*)"3", SP_ATTR_ORDER, _("Size:"), 1, 5, 1, 1, 0, _("width of the convolve matrix"), _("height of the convolve matrix"));
_convolve_target = _settings->add_multispinbutton(/*default x:*/ (double) 0, /*default y:*/ (double) 0, SP_ATTR_TARGETX, SP_ATTR_TARGETY, _("Target:"), 0, 4, 1, 1, 0, _("X coordinate of the target point in the convolve matrix. The convolution is applied to pixels around this point."), _("Y coordinate of the target point in the convolve matrix. The convolution is applied to pixels around this point."));
//TRANSLATORS: for info on "Kernel", see http://en.wikipedia.org/wiki/Kernel_(matrix)
_convolve_matrix = _settings->add_matrix(SP_ATTR_KERNELMATRIX, _("Kernel:"), _("This matrix describes the convolve operation that is applied to the input image in order to calculate the pixel colors at the output. Different arrangements of values in this matrix result in various possible visual effects. An identity matrix would lead to a motion blur effect (parallel to the matrix diagonal) while a matrix filled with a constant non-zero value would lead to a common blur effect."));
_convolve_order->signal_attr_changed().connect(sigc::mem_fun(*this, &FilterEffectsDialog::convolve_order_changed));
_settings->add_spinscale(0, SP_ATTR_DIVISOR, _("Divisor:"), 0, 1000, 1, 0.1, 2, _("After applying the kernelMatrix to the input image to yield a number, that number is divided by divisor to yield the final destination color value. A divisor that is the sum of all the matrix values tends to have an evening effect on the overall color intensity of the result."));
_settings->add_spinscale(0, SP_ATTR_BIAS, _("Bias:"), -10, 10, 1, 0.01, 1, _("This value is added to each component. This is useful to define a constant value as the zero response of the filter."));
_settings->add_combo(CONVOLVEMATRIX_EDGEMODE_DUPLICATE, SP_ATTR_EDGEMODE, _("Edge Mode:"), ConvolveMatrixEdgeModeConverter, _("Determines how to extend the input image as necessary with color values so that the matrix operations can be applied when the kernel is positioned at or near the edge of the input image."));
_settings->add_checkbutton(false, SP_ATTR_PRESERVEALPHA, _("Preserve Alpha"), "true", "false", _("If set, the alpha channel won't be altered by this filter primitive."));
_settings->type(NR_FILTER_DIFFUSELIGHTING);
_settings->add_color(/*default: white*/ 0xffffffff, SP_PROP_LIGHTING_COLOR, _("Diffuse Color:"), _("Defines the color of the light source"));
_settings->add_spinscale(1, SP_ATTR_SURFACESCALE, _("Surface Scale:"), -5, 5, 0.01, 0.001, 3, _("This value amplifies the heights of the bump map defined by the input alpha channel"));
_settings->add_spinscale(1, SP_ATTR_DIFFUSECONSTANT, _("Constant:"), 0, 5, 0.1, 0.01, 2, _("This constant affects the Phong lighting model."));
_settings->add_dualspinscale(SP_ATTR_KERNELUNITLENGTH, _("Kernel Unit Length:"), 0.01, 10, 1, 0.01, 1);
_settings->add_lightsource();
_settings->type(NR_FILTER_DISPLACEMENTMAP);
_settings->add_spinscale(0, SP_ATTR_SCALE, _("Scale:"), 0, 100, 1, 0.01, 1, _("This defines the intensity of the displacement effect."));
_settings->add_combo(DISPLACEMENTMAP_CHANNEL_ALPHA, SP_ATTR_XCHANNELSELECTOR, _("X displacement:"), DisplacementMapChannelConverter, _("Color component that controls the displacement in the X direction"));
_settings->add_combo(DISPLACEMENTMAP_CHANNEL_ALPHA, SP_ATTR_YCHANNELSELECTOR, _("Y displacement:"), DisplacementMapChannelConverter, _("Color component that controls the displacement in the Y direction"));
_settings->type(NR_FILTER_FLOOD);
_settings->add_color(/*default: black*/ 0, SP_PROP_FLOOD_COLOR, _("Flood Color:"), _("The whole filter region will be filled with this color."));
_settings->add_spinscale(1, SP_PROP_FLOOD_OPACITY, _("Opacity:"), 0, 1, 0.1, 0.01, 2);
_settings->type(NR_FILTER_GAUSSIANBLUR);
_settings->add_dualspinscale(SP_ATTR_STDDEVIATION, _("Standard Deviation:"), 0.01, 100, 1, 0.01, 2, _("The standard deviation for the blur operation."));
_settings->type(NR_FILTER_MERGE);
_settings->add_no_params();
_settings->type(NR_FILTER_MORPHOLOGY);
_settings->add_combo(MORPHOLOGY_OPERATOR_ERODE, SP_ATTR_OPERATOR, _("Operator:"), MorphologyOperatorConverter, _("Erode: performs \"thinning\" of input image.\nDilate: performs \"fattenning\" of input image."));
_settings->add_dualspinscale(SP_ATTR_RADIUS, _("Radius:"), 0, 100, 1, 0.01, 1);
_settings->type(NR_FILTER_IMAGE);
_settings->add_fileorelement(SP_ATTR_XLINK_HREF, _("Source of Image:"));
_settings->type(NR_FILTER_OFFSET);
_settings->add_spinscale(0, SP_ATTR_DX, _("Delta X:"), -100, 100, 1, 0.01, 1, _("This is how far the input image gets shifted to the right"));
_settings->add_spinscale(0, SP_ATTR_DY, _("Delta Y:"), -100, 100, 1, 0.01, 1, _("This is how far the input image gets shifted downwards"));
_settings->type(NR_FILTER_SPECULARLIGHTING);
_settings->add_color(/*default: white*/ 0xffffffff, SP_PROP_LIGHTING_COLOR, _("Specular Color:"), _("Defines the color of the light source"));
_settings->add_spinscale(1, SP_ATTR_SURFACESCALE, _("Surface Scale:"), -5, 5, 0.1, 0.01, 2, _("This value amplifies the heights of the bump map defined by the input alpha channel"));
_settings->add_spinscale(1, SP_ATTR_SPECULARCONSTANT, _("Constant:"), 0, 5, 0.1, 0.01, 2, _("This constant affects the Phong lighting model."));
_settings->add_spinscale(1, SP_ATTR_SPECULAREXPONENT, _("Exponent:"), 1, 50, 1, 0.01, 1, _("Exponent for specular term, larger is more \"shiny\"."));
_settings->add_dualspinscale(SP_ATTR_KERNELUNITLENGTH, _("Kernel Unit Length:"), 0.01, 10, 1, 0.01, 1);
_settings->add_lightsource();
_settings->type(NR_FILTER_TILE);
_settings->add_no_params();
_settings->type(NR_FILTER_TURBULENCE);
// _settings->add_checkbutton(false, SP_ATTR_STITCHTILES, _("Stitch Tiles"), "stitch", "noStitch");
_settings->add_combo(TURBULENCE_TURBULENCE, SP_ATTR_TYPE, _("Type:"), TurbulenceTypeConverter, _("Indicates whether the filter primitive should perform a noise or turbulence function."));
_settings->add_dualspinscale(SP_ATTR_BASEFREQUENCY, _("Base Frequency:"), 0, 1, 0.001, 0.01, 3);
_settings->add_spinscale(1, SP_ATTR_NUMOCTAVES, _("Octaves:"), 1, 10, 1, 1, 0);
_settings->add_spinscale(0, SP_ATTR_SEED, _("Seed:"), 0, 1000, 1, 1, 0, _("The starting number for the pseudo random number generator."));
}
void FilterEffectsDialog::add_primitive()
{
SPFilter* filter = _filter_modifier.get_selected_filter();
if(filter) {
SPFilterPrimitive* prim = filter_add_primitive(filter, _add_primitive_type.get_active_data()->id);
_primitive_list.select(prim);
DocumentUndo::done(filter->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("Add filter primitive"));
}
}
void FilterEffectsDialog::update_primitive_infobox()
{
Inkscape::Preferences *prefs = Inkscape::Preferences::get();
if (prefs->getBool("/options/showfiltersinfobox/value", true)){
_sw_infobox->show();
} else {
_sw_infobox->hide();
}
switch(_add_primitive_type.get_active_data()->id){
case(NR_FILTER_BLEND):
_infobox_icon.set_from_icon_name("feBlend-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feBlend</b> filter primitive provides 4 image blending modes: screen, multiply, darken and lighten."));
break;
case(NR_FILTER_COLORMATRIX):
_infobox_icon.set_from_icon_name("feColorMatrix-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feColorMatrix</b> filter primitive applies a matrix transformation to color of each rendered pixel. This allows for effects like turning object to grayscale, modifying color saturation and changing color hue."));
break;
case(NR_FILTER_COMPONENTTRANSFER):
_infobox_icon.set_from_icon_name("feComponentTransfer-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feComponentTransfer</b> filter primitive manipulates the input's color components (red, green, blue, and alpha) according to particular transfer functions, allowing operations like brightness and contrast adjustment, color balance, and thresholding."));
break;
case(NR_FILTER_COMPOSITE):
_infobox_icon.set_from_icon_name("feComposite-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feComposite</b> filter primitive composites two images using one of the Porter-Duff blending modes or the arithmetic mode described in SVG standard. Porter-Duff blending modes are essentially logical operations between the corresponding pixel values of the images."));
break;
case(NR_FILTER_CONVOLVEMATRIX):
_infobox_icon.set_from_icon_name("feConvolveMatrix-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feConvolveMatrix</b> lets you specify a Convolution to be applied on the image. Common effects created using convolution matrices are blur, sharpening, embossing and edge detection. Note that while gaussian blur can be created using this filter primitive, the special gaussian blur primitive is faster and resolution-independent."));
break;
case(NR_FILTER_DIFFUSELIGHTING):
_infobox_icon.set_from_icon_name("feDiffuseLighting-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feDiffuseLighting</b> and feSpecularLighting filter primitives create \"embossed\" shadings. The input's alpha channel is used to provide depth information: higher opacity areas are raised toward the viewer and lower opacity areas recede away from the viewer."));
break;
case(NR_FILTER_DISPLACEMENTMAP):
_infobox_icon.set_from_icon_name("feDisplacementMap-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feDisplacementMap</b> filter primitive displaces the pixels in the first input using the second input as a displacement map, that shows from how far the pixel should come from. Classical examples are whirl and pinch effects."));
break;
case(NR_FILTER_FLOOD):
_infobox_icon.set_from_icon_name("feFlood-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feFlood</b> filter primitive fills the region with a given color and opacity. It is usually used as an input to other filters to apply color to a graphic."));
break;
case(NR_FILTER_GAUSSIANBLUR):
_infobox_icon.set_from_icon_name("feGaussianBlur-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feGaussianBlur</b> filter primitive uniformly blurs its input. It is commonly used together with feOffset to create a drop shadow effect."));
break;
case(NR_FILTER_IMAGE):
_infobox_icon.set_from_icon_name("feImage-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feImage</b> filter primitive fills the region with an external image or another part of the document."));
break;
case(NR_FILTER_MERGE):
_infobox_icon.set_from_icon_name("feMerge-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feMerge</b> filter primitive composites several temporary images inside the filter primitive to a single image. It uses normal alpha compositing for this. This is equivalent to using several feBlend primitives in 'normal' mode or several feComposite primitives in 'over' mode."));
break;
case(NR_FILTER_MORPHOLOGY):
_infobox_icon.set_from_icon_name("feMorphology-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feMorphology</b> filter primitive provides erode and dilate effects. For single-color objects erode makes the object thinner and dilate makes it thicker."));
break;
case(NR_FILTER_OFFSET):
_infobox_icon.set_from_icon_name("feOffset-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feOffset</b> filter primitive offsets the image by an user-defined amount. For example, this is useful for drop shadows, where the shadow is in a slightly different position than the actual object."));
break;
case(NR_FILTER_SPECULARLIGHTING):
_infobox_icon.set_from_icon_name("feSpecularLighting-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feDiffuseLighting</b> and <b>feSpecularLighting</b> filter primitives create \"embossed\" shadings. The input's alpha channel is used to provide depth information: higher opacity areas are raised toward the viewer and lower opacity areas recede away from the viewer."));
break;
case(NR_FILTER_TILE):
_infobox_icon.set_from_icon_name("feTile-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feTile</b> filter primitive tiles a region with an input graphic. The source tile is defined by the filter primitive subregion of the input."));
break;
case(NR_FILTER_TURBULENCE):
_infobox_icon.set_from_icon_name("feTurbulence-icon", Gtk::ICON_SIZE_DIALOG);
_infobox_desc.set_markup(_("The <b>feTurbulence</b> filter primitive renders Perlin noise. This kind of noise is useful in simulating several nature phenomena like clouds, fire and smoke and in generating complex textures like marble or granite."));
break;
default:
g_assert(false);
break;
}
//_infobox_icon.set_pixel_size(96);
_infobox_icon.set_pixel_size(64);
}
void FilterEffectsDialog::duplicate_primitive()
{
SPFilter* filter = _filter_modifier.get_selected_filter();
SPFilterPrimitive* origprim = _primitive_list.get_selected();
if (filter && origprim) {
Inkscape::XML::Node *repr;
repr = origprim->getRepr()->duplicate(origprim->getRepr()->document());
filter->getRepr()->appendChild(repr);
DocumentUndo::done(filter->document, SP_VERB_DIALOG_FILTER_EFFECTS, _("Duplicate filter primitive"));
_primitive_list.update();
}
}
void FilterEffectsDialog::convolve_order_changed()
{
_convolve_matrix->set_from_attribute(_primitive_list.get_selected());
_convolve_target->get_spinbuttons()[0]->get_adjustment()->set_upper(_convolve_order->get_spinbutton1().get_value() - 1);
_convolve_target->get_spinbuttons()[1]->get_adjustment()->set_upper(_convolve_order->get_spinbutton2().get_value() - 1);
}
void FilterEffectsDialog::set_attr_direct(const AttrWidget* input)
{
set_attr(_primitive_list.get_selected(), input->get_attribute(), input->get_as_attribute().c_str());
}
void FilterEffectsDialog::set_filternode_attr(const AttrWidget* input)
{
if(!_locked) {
_attr_lock = true;
SPFilter *filter = _filter_modifier.get_selected_filter();
const gchar* name = (const gchar*)sp_attribute_name(input->get_attribute());
if (filter && name && filter->getRepr()){
filter->getRepr()->setAttribute(name, input->get_as_attribute().c_str());
filter->requestModified(SP_OBJECT_MODIFIED_FLAG);
}
_attr_lock = false;
}
}
void FilterEffectsDialog::set_child_attr_direct(const AttrWidget* input)
{
set_attr(_primitive_list.get_selected()->children, input->get_attribute(), input->get_as_attribute().c_str());
}
void FilterEffectsDialog::set_attr(SPObject* o, const SPAttributeEnum attr, const gchar* val)
{
if(!_locked) {
_attr_lock = true;
SPFilter *filter = _filter_modifier.get_selected_filter();
const gchar* name = (const gchar*)sp_attribute_name(attr);
if(filter && name && o) {
update_settings_sensitivity();
o->getRepr()->setAttribute(name, val);
filter->requestModified(SP_OBJECT_MODIFIED_FLAG);
Glib::ustring undokey = "filtereffects:";
undokey += name;
DocumentUndo::maybeDone(filter->document, undokey.c_str(), SP_VERB_DIALOG_FILTER_EFFECTS,
_("Set filter primitive attribute"));
}
_attr_lock = false;
}
}
void FilterEffectsDialog::update_filter_general_settings_view()
{
if(_settings_initialized != true) return;
if(!_locked) {
_attr_lock = true;
SPFilter* filter = _filter_modifier.get_selected_filter();
if(filter) {
_filter_general_settings->show_and_update(0, filter);
_no_filter_selected.hide();
}
else {
std::vector<Gtk::Widget*> vect = _settings_tab2.get_children();
vect[0]->hide();
_no_filter_selected.show();
}
_attr_lock = false;
}
}
void FilterEffectsDialog::update_settings_view()
{
update_settings_sensitivity();
if(_attr_lock)
return;
//First Tab
std::vector<Gtk::Widget*> vect1 = _settings_tab1.get_children();
for(unsigned int i=0; i<vect1.size(); i++)
vect1[i]->hide();
_empty_settings.show();
Inkscape::Preferences *prefs = Inkscape::Preferences::get();
if (prefs->getBool("/options/showfiltersinfobox/value", true)){
_sw_infobox->show();
} else {
_sw_infobox->hide();
}
SPFilterPrimitive* prim = _primitive_list.get_selected();
if(prim) {
//XML Tree being used directly here while it shouldn't be.
_settings->show_and_update(FPConverter.get_id_from_key(prim->getRepr()->name()), prim);
_empty_settings.hide();
}
//Second Tab
std::vector<Gtk::Widget*> vect2 = _settings_tab2.get_children();
vect2[0]->hide();
_no_filter_selected.show();
SPFilter* filter = _filter_modifier.get_selected_filter();
if(filter) {
_filter_general_settings->show_and_update(0, filter);
_no_filter_selected.hide();
}
}
void FilterEffectsDialog::update_settings_sensitivity()
{
SPFilterPrimitive* prim = _primitive_list.get_selected();
const bool use_k = SP_IS_FECOMPOSITE(prim) && SP_FECOMPOSITE(prim)->composite_operator == COMPOSITE_ARITHMETIC;
_k1->set_sensitive(use_k);
_k2->set_sensitive(use_k);
_k3->set_sensitive(use_k);
_k4->set_sensitive(use_k);
}
void FilterEffectsDialog::update_color_matrix()
{
_color_matrix_values->set_from_attribute(_primitive_list.get_selected());
}
} // namespace Dialog
} // namespace UI
} // namespace Inkscape
/*
Local Variables:
mode:c++
c-file-style:"stroustrup"
c-file-offsets:((innamespace . 0)(inline-open . 0)(case-label . +))
indent-tabs-mode:nil
fill-column:99
End:
*/
// vim: filetype=cpp:expandtab:shiftwidth=4:tabstop=8:softtabstop=4:fileencoding=utf-8:textwidth=99 :