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515 lines
16 KiB
515 lines
16 KiB
/*
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* Copyright (c) 2004 Boudewijn Rempt <boud@valdyas.org>
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*
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* This program is free software; you can redistribute it and/or modify
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* it under the terms of the GNU General Public License as published by
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* the Free Software Foundation; either version 2 of the License, or
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* (at your option) any later version.
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*
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* This program is distributed in the hope that it will be useful,
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* but WITHOUT ANY WARRANTY; without even the implied warranty of
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* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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* GNU General Public License for more details.
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*
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* You should have received a copy of the GNU General Public License
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* along with this program; if not, write to the Free Software
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* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
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*/
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#include <limits.h>
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#include <stdlib.h>
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#include <config.h>
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#include LCMS_HEADER
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#include <tqimage.h>
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#include <tdelocale.h>
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#include <kdebug.h>
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#include <kis_debug_areas.h>
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#include "kis_abstract_colorspace.h"
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#include "kis_colorspace_factory_registry.h"
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#include "kis_image.h"
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#include "kis_wet_colorspace.h"
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#include "wetphysicsfilter.h"
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#include "kis_integer_maths.h"
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namespace {
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static const WetPix m_paint = { 707, 0, 707, 0, 707, 0, 240, 0 };
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/* colors from Curtis et al, Siggraph 97 */
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static const WetPix m_paintbox[] = {
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{496, 0, 16992, 0, 3808, 0, 0, 0},
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{16992, 9744, 21712, 6400, 25024, 3296, 0, 0},
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{6512, 6512, 6512, 4880, 11312, 0, 0, 0},
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{16002, 0, 2848, 0, 16992, 0, 0, 0},
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{22672, 0, 5328, 2272, 4288, 2640, 0, 0},
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{8000, 0, 16992, 0, 28352, 0, 0, 0},
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{5696, 5696, 12416, 2496, 28352, 0, 0, 0},
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{0, 0, 5136, 0, 28352, 0, 0, 0},
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{2320, 1760, 7344, 4656, 28352, 0, 0, 0},
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{8000, 0, 3312, 0, 5504, 0, 0, 0},
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{13680, 0, 16992, 0, 3312, 0, 0, 0},
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{5264, 5136, 1056, 544, 6448, 6304, 0, 0},
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{11440, 11440, 11440, 11440, 11440, 11440, 0, 0},
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{11312, 0, 11312, 0, 11312, 0, 0, 0},
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{0, 0, 0, 0, 0, 0, 0, 0} };
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static const int m_nPaints = 15;
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}
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void wetPixToDouble(WetPixDbl * dst, WetPix *src)
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{
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dst->rd = (1.0 / 8192.0) * src->rd;
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dst->rw = (1.0 / 8192.0) * src->rw;
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dst->gd = (1.0 / 8192.0) * src->gd;
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dst->gw = (1.0 / 8192.0) * src->gw;
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dst->bd = (1.0 / 8192.0) * src->bd;
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dst->bw = (1.0 / 8192.0) * src->bw;
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dst->w = (1.0 / 8192.0) * src->w;
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dst->h = (1.0 / 8192.0) * src->h;
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}
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void wetPixFromDouble(WetPix * dst, WetPixDbl *src)
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{
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int v;
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v = (int)floor (8192.0 * src->rd + 0.5);
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dst->rd = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->rw + 0.5);
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dst->rw = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->gd + 0.5);
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dst->gd = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->gw + 0.5);
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dst->gw = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->bd + 0.5);
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dst->bd = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->bw + 0.5);
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dst->bw = CLAMP(v, 0, 65535);
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v = (int)floor (8192.0 * src->w + 0.5);
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dst->w = CLAMP(v, 0, 511);
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v = (int)floor (8192.0 * src->h + 0.5);
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dst->h = CLAMP(v, 0, 511);
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}
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int getH(int r, int g, int b)
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{
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int h, s, v;
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TQColor c(r,g, b);
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c.getHsv(&h, &s, &v);
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return h;
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}
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KisWetColorSpace::KisWetColorSpace(KisColorSpaceFactoryRegistry * parent, KisProfile *p) :
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KisAbstractColorSpace(KisID("WET", i18n("Watercolors")), 0, icMaxEnumData, parent, p)
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{
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wet_init_render_tab();
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m_paintNames << i18n("Quinacridone Rose")
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<< i18n("Indian Red")
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<< i18n("Cadmium Yellow")
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<< i18n("Hookers Green")
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<< i18n("Cerulean Blue")
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<< i18n("Burnt Umber")
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<< i18n("Cadmium Red")
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<< i18n("Brilliant Orange")
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<< i18n("Hansa Yellow")
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<< i18n("Phthalo Green")
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<< i18n("French Ultramarine")
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<< i18n("Interference Lilac")
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<< i18n("Titanium White")
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<< i18n("Ivory Black")
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<< i18n("Pure Water");
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m_channels.push_back(new KisChannelInfo(i18n("Red Concentration"), "Rc", 0, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Myth Red"), "Rm", 1, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Green Concentration"), "Gc", 2, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Myth Green"), "Gm", 3, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Blue Concentration"), "Bc", 4, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Myth Blue"), "Bm", 5, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Water Volume"), "W", 6, KisChannelInfo::SUBSTANCE, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Paper Height"), "H", 7, KisChannelInfo::SUBSTANCE, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Red Concentration"), "Rc", 8, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Myth Red"), "Rm", 9, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Green Concentration"), "Gc", 10, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Myth Green"), "Gm", 11, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Blue Concentration"), "Bc", 12, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Myth Blue"), "Bm", 13, KisChannelInfo::COLOR, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Water Volume"), "W", 14, KisChannelInfo::SUBSTANCE, KisChannelInfo::UINT16));
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m_channels.push_back(new KisChannelInfo(i18n("Adsorbed Paper Height"), "H", 15, KisChannelInfo::SUBSTANCE, KisChannelInfo::UINT16));
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// Store the hue; we'll pick the paintbox color that closest to the given TQColor's hue.
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m_conversionMap[getH(240, 32, 160)] = m_paintbox[0]; // Quinacridone Rose
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m_conversionMap[getH(159, 88, 43)] = m_paintbox[1]; // Indian Red
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m_conversionMap[getH(254, 220, 64)] = m_paintbox[2]; // Cadmium Yellow
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m_conversionMap[getH(36, 180, 32)] = m_paintbox[3]; // Hookers Green
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m_conversionMap[getH(16, 185, 215)] = m_paintbox[4]; // Cerulean Blue
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m_conversionMap[getH(96, 32, 8)] = m_paintbox[5]; // Burnt Umber
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m_conversionMap[getH(254, 96, 8)] = m_paintbox[6]; // Cadmium Red
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m_conversionMap[getH(255, 136, 8)] = m_paintbox[7]; // Brilliant Orange
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m_conversionMap[getH(240, 199, 8)] = m_paintbox[8]; // Hansa Yellow
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m_conversionMap[getH(96, 170, 130)] = m_paintbox[9]; // Phthalo Green
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m_conversionMap[getH(48, 32, 170)] = m_paintbox[10]; // French Ultramarine
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m_conversionMap[getH(118, 16, 135)] = m_paintbox[11]; // Interference Lilac
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m_conversionMap[getH(254, 254, 254)] = m_paintbox[12]; // Titanium White
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m_conversionMap[getH(64, 64, 74)] = m_paintbox[13]; // Ivory Black
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m_paintwetness = false;
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phasebig = 0;
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}
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KisWetColorSpace::~KisWetColorSpace()
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{
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}
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void KisWetColorSpace::fromTQColor(const TQColor& c, TQ_UINT8 *dst, KisProfile * /*profile*/)
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{
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WetPack* p = reinterpret_cast<WetPack*>(dst);
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int h = getH(c.red(), c.green(), c.blue());
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int delta = 256;
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int key = 0;
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TQMap<int, WetPix>::Iterator it;
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TQMap<int, WetPix>::Iterator end = m_conversionMap.end();
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for (it = m_conversionMap.begin(); it != end; ++it) {
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if (abs(it.key() - h) < delta) {
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delta = abs(it.key() - h);
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key = it.key();
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}
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}
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// Translate the special TQCOlors from our paintbox to wetpaint paints.
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if (m_conversionMap.contains(key)) {
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(*p).paint = m_conversionMap[key];
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(*p).adsorb = m_conversionMap[key]; // or maybe best add water here?
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} else {
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// water
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(*p).paint = m_paintbox[14];
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(*p).adsorb = m_paintbox[14];
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}
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}
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void KisWetColorSpace::fromTQColor(const TQColor& c, TQ_UINT8 /*opacity*/, TQ_UINT8 *dst, KisProfile * /*profile*/)
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{
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fromTQColor(c, dst);
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}
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TQ_UINT8 KisWetColorSpace::getAlpha(const TQ_UINT8 */*pixel*/) const
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{
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return OPACITY_OPAQUE;
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}
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void KisWetColorSpace::setAlpha( TQ_UINT8 * /*pixels*/, TQ_UINT8 /*alpha*/, TQ_INT32 /*nPixels*/) const
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{
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}
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void KisWetColorSpace::multiplyAlpha( TQ_UINT8 * /*pixels*/, TQ_UINT8 /*alpha*/, TQ_INT32 /*nPixels*/)
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{
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}
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void KisWetColorSpace::applyAlphaU8Mask( TQ_UINT8 * /*pixels*/, TQ_UINT8 * /*alpha*/, TQ_INT32 /*nPixels*/)
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{
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}
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void KisWetColorSpace::applyInverseAlphaU8Mask( TQ_UINT8 * /*pixels*/, TQ_UINT8 * /*alpha*/, TQ_INT32 /*nPixels*/)
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{
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}
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TQ_UINT8 KisWetColorSpace::scaleToU8(const TQ_UINT8 * /*srcPixel*/, TQ_INT32 /*channelPos*/)
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{
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return 0;
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}
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TQ_UINT16 KisWetColorSpace::scaleToU16(const TQ_UINT8 * /*srcPixel*/, TQ_INT32 /*channelPos*/)
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{
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return 0;
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}
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void KisWetColorSpace::toTQColor(const TQ_UINT8 *src, TQColor *c, KisProfile * /*profile*/)
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{
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TQ_UINT8 * rgb = new TQ_UINT8[3];
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TQ_CHECK_PTR(rgb);
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memset(rgb, 255, 3);
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// Composite the two layers in each pixelSize
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WetPack * wp = (WetPack*)src;
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// First the adsorption layer
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wet_composite(RGB, rgb, &wp->adsorb);
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// Then the paint layer (which comes first in our double-packed pixel)
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wet_composite(RGB, rgb, &wp->paint);
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c->setRgb(rgb[0], rgb[1], rgb[2]);
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delete[]rgb;
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}
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void KisWetColorSpace::toTQColor(const TQ_UINT8 *src, TQColor *c, TQ_UINT8 */*opacity*/, KisProfile * /*profile*/)
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{
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toTQColor(src, c);
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}
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void KisWetColorSpace::mixColors(const TQ_UINT8 **/*colors*/, const TQ_UINT8 */*weights*/, TQ_UINT32 /*nColors*/, TQ_UINT8 */*dst*/) const
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{
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}
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TQValueVector<KisChannelInfo *> KisWetColorSpace::channels() const
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{
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return m_channels;
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}
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TQ_UINT32 KisWetColorSpace::nChannels() const
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{
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return 16;
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}
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TQ_UINT32 KisWetColorSpace::nColorChannels() const
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{
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return 12;
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}
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TQ_UINT32 KisWetColorSpace::nSubstanceChannels() const
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{
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return 4;
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}
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TQ_UINT32 KisWetColorSpace::pixelSize() const
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{
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return 32; // This color strategy wants an unsigned short for each
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// channel, and every pixel consists of two wetpix structs
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// -- even though for many purposes we need only one wetpix
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// struct.
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}
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// XXX: use profiles to display correctly on calibrated displays.
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TQImage KisWetColorSpace::convertToTQImage(const TQ_UINT8 *data, TQ_INT32 width, TQ_INT32 height,
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KisProfile * /*dstProfile*/,
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TQ_INT32 /*renderingIntent*/, float /*exposure*/)
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{
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TQImage img(width, height, 32);
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TQ_UINT8 *rgb = (TQ_UINT8*) img.bits();
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const WetPack* wetData = reinterpret_cast<const WetPack*>(data);
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// Clear to white -- the following code actually composits the contents of the
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// wet pixels with the contents of the image buffer, so they need to be
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// prepared
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memset(rgb, 255, width * height * 4);
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// Composite the two layers in each pixelSize
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TQ_INT32 i = 0;
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while ( i < width * height) {
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// First the adsorption layers
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WetPack* wp = const_cast<WetPack*>(&wetData[i]); // XXX don't do these things!
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// XXX Probably won't work on MSB archs!
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wet_composite(BGR, rgb, &(wp->adsorb));
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// Then the paint layer (which comes first in our double-packed pixel)
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wet_composite(BGR, rgb, &(wp->paint));
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// XXX pay attention to this comment!!
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// Display the wet stripes -- this only works if we have at least three scanlines in height,
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// because otherwise the phase trick won't work.
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// Because we work in a stateless thing, and we can't just draw this wetness
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// indication AFTER this (e.g. like the selection), we have to do un nice things:
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// Because we (hopefully atm!) don't use the height of the paint wetpix, we abuse
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// that to store a state. It's not perfect, but it works for now...
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if (m_paintwetness) {
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wet_render_wetness(rgb, wp);
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}
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i++;
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rgb += sizeof( TQ_UINT32); // Because the TQImage is 4 bytes deep.
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}
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return img;
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}
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void KisWetColorSpace::bitBlt( TQ_UINT8 *dst,
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TQ_INT32 dstRowSize,
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const TQ_UINT8 *src,
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TQ_INT32 srcRowStride,
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const TQ_UINT8 */*srcAlphaMask*/,
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TQ_INT32 /*maskRowStride*/,
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TQ_UINT8 /*opacity*/,
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TQ_INT32 rows,
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TQ_INT32 cols,
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const KisCompositeOp& op)
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{
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if (rows <= 0 || cols <= 0)
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return;
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TQ_UINT8 *d;
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const TQ_UINT8 *s;
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TQ_INT32 linesize = pixelSize() * cols;
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d = dst;
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s = src;
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// Do as if we 'stack' them atop of each other
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if (op == COMPOSITE_OVER) {
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while (rows-- > 0) {
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for (int i = 0; i < cols; i++) {
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WetPack* dstPack = &(reinterpret_cast<WetPack*>(d))[i];
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const WetPack* srcPack = &(reinterpret_cast<const WetPack*>(s))[i];
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combinePixels(&(dstPack->paint), &(dstPack->paint), &(srcPack->paint));
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combinePixels(&(dstPack->adsorb), &(dstPack->adsorb), &(srcPack->adsorb));
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}
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d += dstRowSize; // size??
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s += srcRowStride;
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}
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return;
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}
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// Just copy the src onto the dst, we don't do fancy things here,
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// we do those in the paint op, because we need pressure to determine
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// paint deposition.
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while (rows-- > 0) {
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memcpy(d, s, linesize);
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d += dstRowSize; // size??
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s += srcRowStride;
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}
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}
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void KisWetColorSpace::wet_init_render_tab()
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{
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int i;
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double d;
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int a, b;
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wet_render_tab = new TQ_UINT32[4096];
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TQ_CHECK_PTR(wet_render_tab);
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for (i = 0; i < 4096; i++)
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{
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d = i * (1.0 / 512.0);
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if (i == 0)
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a = 0;
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else
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a = (int) floor (0xff00 / i + 0.5);
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b = (int) floor (0x8000 * exp (-d) + 0.5);
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wet_render_tab[i] = (a << 16) | b;
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}
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}
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void KisWetColorSpace::wet_composite(RGBMode m, TQ_UINT8 *rgb, WetPix * wet)
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{
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int r, g, b;
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int d, w;
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int ab;
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int wa;
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if (m == RGB)
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r = rgb[0];
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else
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r = rgb[2];
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w = wet[0].rw >> 4;
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d = wet[0].rd >> 4;
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ab = wet_render_tab[d];
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wa = (w * (ab >> 16) + 0x80) >> 8;
|
|
r = wa + (((r - wa) * (ab & 0xffff) + 0x4000) >> 15);
|
|
if (m == RGB)
|
|
rgb[0] = r;
|
|
else
|
|
rgb[2] = r;
|
|
|
|
// Green is 1 both in RGB as BGR
|
|
g = rgb[1];
|
|
w = wet[0].gw >> 4;
|
|
d = wet[0].gd >> 4;
|
|
d = d >= 4096 ? 4095 : d;
|
|
ab = wet_render_tab[d];
|
|
wa = (w * (ab >> 16) + 0x80) >> 8;
|
|
g = wa + (((g - wa) * (ab & 0xffff) + 0x4000) >> 15);
|
|
rgb[1] = g;
|
|
|
|
if (m == RGB)
|
|
b = rgb[2];
|
|
else
|
|
b = rgb[0];
|
|
w = wet[0].bw >> 4;
|
|
d = wet[0].bd >> 4;
|
|
d = d >= 4096 ? 4095 : d;
|
|
ab = wet_render_tab[d];
|
|
wa = (w * (ab >> 16) + 0x80) >> 8;
|
|
b = wa + (((b - wa) * (ab & 0xffff) + 0x4000) >> 15);
|
|
if (m == RGB)
|
|
rgb[2] = b;
|
|
else
|
|
rgb[0] = b;
|
|
}
|
|
|
|
void KisWetColorSpace::wet_render_wetness( TQ_UINT8 * rgb, WetPack * pack)
|
|
{
|
|
int highlight = 255 - (pack->paint.w >> 1);
|
|
|
|
if (highlight < 255 && ((phase++) % 3 == 0)) {
|
|
for (int i = 0; i < 3; i++)
|
|
rgb[i] = 255 - (((255 - rgb[i]) * highlight) >> 8);
|
|
}
|
|
phase &= 3;
|
|
}
|
|
|
|
KisCompositeOpList KisWetColorSpace::userVisiblecompositeOps() const
|
|
{
|
|
KisCompositeOpList list;
|
|
|
|
list.append(KisCompositeOp(COMPOSITE_OVER));
|
|
|
|
return list;
|
|
}
|
|
|
|
TQString KisWetColorSpace::channelValueText(const TQ_UINT8 *U8_pixel, TQ_UINT32 channelIndex) const
|
|
{
|
|
Q_ASSERT(channelIndex < nChannels());
|
|
const TQ_UINT16 *pixel = reinterpret_cast<const TQ_UINT16 *>(U8_pixel);
|
|
TQ_UINT32 channelPosition = m_channels[channelIndex]->pos();
|
|
|
|
return TQString().setNum(pixel[channelPosition]);
|
|
}
|
|
|
|
TQString KisWetColorSpace::normalisedChannelValueText(const TQ_UINT8 *U8_pixel, TQ_UINT32 channelIndex) const
|
|
{
|
|
Q_ASSERT(channelIndex < nChannels());
|
|
const TQ_UINT16 *pixel = reinterpret_cast<const TQ_UINT16 *>(U8_pixel);
|
|
TQ_UINT32 channelPosition = m_channels[channelIndex]->pos();
|
|
|
|
return TQString().setNum(static_cast<float>(pixel[channelPosition]) / UINT16_MAX);
|
|
}
|
|
|
|
TQValueList<KisFilter *> KisWetColorSpace::createBackgroundFilters()
|
|
{
|
|
TQValueList<KisFilter *> filterList;
|
|
KisFilter * f = new WetPhysicsFilter();
|
|
filterList << f;
|
|
return filterList;
|
|
}
|