static void drawVertices(JNIEnv* env, jobject, jlong canvasHandle,
jint modeHandle, jint vertexCount,
jfloatArray jverts, jint vertIndex,
jfloatArray jtexs, jint texIndex,
jintArray jcolors, jint colorIndex,
jshortArray jindices, jint indexIndex,
jint indexCount, jlong paintHandle) {
AutoJavaFloatArray vertA(env, jverts, vertIndex + vertexCount);
AutoJavaFloatArray texA(env, jtexs, texIndex + vertexCount);
AutoJavaIntArray colorA(env, jcolors, colorIndex + vertexCount);
AutoJavaShortArray indexA(env, jindices, indexIndex + indexCount);
const float* verts = vertA.ptr() + vertIndex;
const float* texs = texA.ptr() + vertIndex;
const int* colors = NULL;
const uint16_t* indices = NULL;
if (jcolors != NULL) {
colors = colorA.ptr() + colorIndex;
}
if (jindices != NULL) {
indices = (const uint16_t*)(indexA.ptr() + indexIndex);
}
SkCanvas::VertexMode mode = static_cast<SkCanvas::VertexMode>(modeHandle);
const Paint* paint = reinterpret_cast<Paint*>(paintHandle);
get_canvas(canvasHandle)->drawVertices(mode, vertexCount, verts, texs, colors,
indices, indexCount, *paint);
}
static void drawVertices(JNIEnv* env, jobject, SkCanvas* canvas,
SkCanvas::VertexMode mode, int vertexCount,
jfloatArray jverts, int vertIndex,
jfloatArray jtexs, int texIndex,
jintArray jcolors, int colorIndex,
jshortArray jindices, int indexIndex,
int indexCount, const SkPaint* paint) {
AutoJavaFloatArray vertA(env, jverts, vertIndex + vertexCount);
AutoJavaFloatArray texA(env, jtexs, texIndex + vertexCount);
AutoJavaIntArray colorA(env, jcolors, colorIndex + vertexCount);
AutoJavaShortArray indexA(env, jindices, indexIndex + indexCount);
const int ptCount = vertexCount >> 1;
SkPoint* verts;
SkPoint* texs = NULL;
#ifdef SK_SCALAR_IS_FLOAT
verts = (SkPoint*)(vertA.ptr() + vertIndex);
if (jtexs != NULL) {
texs = (SkPoint*)(texA.ptr() + texIndex);
}
#else
int count = ptCount; // for verts
if (jtexs != NULL) {
count += ptCount; // += for texs
}
SkAutoMalloc storage(count * sizeof(SkPoint));
verts = (SkPoint*)storage.get();
const float* src = vertA.ptr() + vertIndex;
for (int i = 0; i < ptCount; i++) {
verts[i].set(SkFloatToFixed(src[0]), SkFloatToFixed(src[1]));
src += 2;
}
if (jtexs != NULL) {
texs = verts + ptCount;
src = texA.ptr() + texIndex;
for (int i = 0; i < ptCount; i++) {
texs[i].set(SkFloatToFixed(src[0]), SkFloatToFixed(src[1]));
src += 2;
}
}
#endif
const SkColor* colors = NULL;
const uint16_t* indices = NULL;
if (jcolors != NULL) {
colors = (const SkColor*)(colorA.ptr() + colorIndex);
}
if (jindices != NULL) {
indices = (const uint16_t*)(indexA.ptr() + indexIndex);
}
canvas->drawVertices(mode, ptCount, verts, texs, colors, NULL,
indices, indexCount, *paint);
}
void text::render() const{
const char * p = this->m_text.c_str();
glDisable( GL_DEPTH_TEST ) ; // also disable the depth test so renders on top
glPushMatrix();
glTranslatef(this->m_origin.x(), this->m_origin.y(), this->m_origin.layer());
glScalef(m_size, m_size, 1); //font size
//glRotatef(10.0, 0, 0, 1);
glColor4f(colorR(), colorG(), colorB(), colorA());
do glutStrokeCharacter( GLUT_STROKE_ROMAN, *p ); while( *(++p) ) ; //GLUT_STROKE_MONO_ROMAN fix width
glPopMatrix();
glEnable( GL_DEPTH_TEST ) ; // Turn depth testing back on
}
static void drawBitmapMesh(JNIEnv* env, jobject, jlong canvasHandle, jlong bitmapHandle,
jint meshWidth, jint meshHeight, jfloatArray jverts,
jint vertIndex, jintArray jcolors, jint colorIndex, jlong paintHandle) {
const int ptCount = (meshWidth + 1) * (meshHeight + 1);
AutoJavaFloatArray vertA(env, jverts, vertIndex + (ptCount << 1));
AutoJavaIntArray colorA(env, jcolors, colorIndex + ptCount);
const SkBitmap* bitmap = reinterpret_cast<SkBitmap*>(bitmapHandle);
const Paint* paint = reinterpret_cast<Paint*>(paintHandle);
get_canvas(canvasHandle)->drawBitmapMesh(*bitmap, meshWidth, meshHeight,
vertA.ptr(), colorA.ptr(), paint);
}
void setup()
{
// Initialize AntTweakBar
TwInit(TW_OPENGL_CORE, NULL);
bgColor = color(100, 100, 100);
rectColor = colorA(255, 0, 0, 200);
// Create a tweak bar
bar = TwNewBar("TweakBar");
WindowSizeCB(window, width, height);
glfwSetWindowSizeCallback(window, WindowSizeCB);
glfwSetMouseButtonCallback(window, TwEventMouseButtonGLFW);
glfwSetCursorPosCallback(window, TwEvenCursorPosGLFW);
glfwSetScrollCallback(window, TwEventScrollGLFW);
glfwSetKeyCallback(window, TwEventKeyGLFW);
glfwSetCharCallback(window, TwEventCharGLFW);
TwDefine(" GLOBAL help='This example shows how to integrate AntTweakBar with GLFW and OpenGL.' "); // Message added to the help bar.
// Add 'speed' to 'bar': it is a modifable (RW) variable of type TW_TYPE_DOUBLE. Its key shortcuts are [s] and [S].
TwAddVarRW(bar, "speed", TW_TYPE_DOUBLE, &speed,
" label='Rot speed' min=0 max=2 step=0.01 keyIncr=s keyDecr=S help='Rotation speed (turns/second)' ");
// Add 'wire' to 'bar': it is a modifable variable of type TW_TYPE_BOOL32 (32 bits boolean). Its key shortcut is [w].
TwAddVarRW(bar, "wire", TW_TYPE_BOOL32, &wire,
" label='Wireframe mode' key=w help='Toggle wireframe display mode.' ");
// Add 'time' to 'bar': it is a read-only (RO) variable of type TW_TYPE_DOUBLE, with 1 precision digit
TwAddVarRO(bar, "time", TW_TYPE_DOUBLE, &time, " label='Time' precision=1 help='Time (in seconds).' ");
// Add 'bgColor' to 'bar': it is a modifable variable of type TW_TYPE_COLOR3F (3 floats color)
TwAddVarRW(bar, "bgColor", TW_TYPE_COLOR3F, bgColor.rgba, " label='Background color' ");
// Add 'rectColor' to 'bar': it is a modifable variable of type TW_TYPE_COLOR32 (32 bits color) with alpha
TwAddVarRW(bar, "rectColor", TW_TYPE_COLOR4F, rectColor.rgba,
" label='Rect color' alpha help='Color and transparency of the rect.' ");
}
void ofApp::update() {
kinect.update();
if(kinect.isFrameNew()) {
float* distancePixels = kinect.getDistancePixels(); // distance in millimeters
unsigned char* resultPixels = result.getPixels();
int n = kinect.getWidth() * kinect.getHeight();
float nearThreshold = panel.getValueF("nearThreshold");
float farThreshold = panel.getValueF("farThreshold");
int nearTarget, farTarget;
bool threshold = panel.getValueB("threshold");
int thresholdLevel = (nearTarget + farTarget) / 2;
bool nearWhite = panel.getValueB("nearWhite");
if(nearWhite) {
nearTarget = 255;
farTarget = 0;
} else {
nearTarget = 0;
farTarget = 255;
}
if(nearThreshold != farThreshold) {
for(int i = 0; i < n; i++) {
float cur = distancePixels[i];
if(cur != 0) { // only remap nonzeros
// this code will threshold data to white or black
if(threshold) {
if(cur > thresholdLevel) {
if(nearWhite) {
cur = 0;
} else {
cur = 255;
}
} else {
if(nearWhite) {
cur = 255;
} else {
cur = 0;
}
}
}
// alternatively, just remap between 0 and 255
else {
cur = ofMap(cur, nearThreshold, farThreshold, nearTarget, farTarget, true);
}
}
resultPixels[i] = cur;
}
}
result.update();
}
//////////////////////////////////////cv//////////////////////////////////////////////
// ofBackground(100,100,100);
grayImage.setFromPixels(result.getPixels(), 640,480);
// grayBg = grayImage; // the = sign copys the pixels from grayImage into grayBg
// take the abs value of the difference between background and incoming and then threshold:
grayDiff.absDiff(grayBg, grayImage);
grayDiff.threshold(threshold);
grayDiff.blur(5);
// find contours which are between the size of 20 pixels and 1/3 the w*h pixels.
// also, find holes is set to true so we will get interior contours as well....
contourFinder.findContours(grayDiff, 20, (640,480)/3, 10, true); // find holes
// we are dealing with 4 images
// image a, b,
// image mix
// and the greysacale image:
// get the pixels
unsigned char * grayPixels = grayDiff.getPixels();
unsigned char * colorPixelsA = back.getPixels();
unsigned char * colorPixelsB = vidPlayer.getPixels();
unsigned char * mixPixels = mix.getPixels();
for (int i = 0; i < 640*480; i++){
// get the color from each color image.
ofColor colorA( colorPixelsA[i * 3], colorPixelsA[i * 3 + 1], colorPixelsA[i * 3 + 2]);
ofColor colorB( colorPixelsB[i * 3], colorPixelsB[i * 3 + 1], colorPixelsB[i * 3 + 2]);
// turn grayscale into a pct:
float pct = ofMap(grayPixels[i], 0, 255, 0,1);
// mix the two colors based on pct:
ofColor colorMix = colorA * (1-pct) + colorB * pct;
// set the color of the pixel in the mix image to the new mixed color
mixPixels[i * 3] = colorMix.r;
mixPixels[i * 3+1] = colorMix.g;
mixPixels[i * 3+2] = colorMix.b;
}
// update the mix image
mix.update();
}
static void drawBitmapMesh(JNIEnv* env, jobject, SkCanvas* canvas,
const SkBitmap* bitmap, int meshWidth, int meshHeight,
jfloatArray jverts, int vertIndex, jintArray jcolors,
int colorIndex, const SkPaint* paint) {
const int ptCount = (meshWidth + 1) * (meshHeight + 1);
const int indexCount = meshWidth * meshHeight * 6;
AutoJavaFloatArray vertA(env, jverts, vertIndex + (ptCount << 1));
AutoJavaIntArray colorA(env, jcolors, colorIndex + ptCount);
/* Our temp storage holds 2 or 3 arrays.
texture points [ptCount * sizeof(SkPoint)]
optionally vertex points [ptCount * sizeof(SkPoint)] if we need a
copy to convert from float to fixed
indices [ptCount * sizeof(uint16_t)]
*/
ssize_t storageSize = ptCount * sizeof(SkPoint); // texs[]
#ifdef SK_SCALAR_IS_FIXED
storageSize += ptCount * sizeof(SkPoint); // storage for verts
#endif
storageSize += indexCount * sizeof(uint16_t); // indices[]
SkAutoMalloc storage(storageSize);
SkPoint* texs = (SkPoint*)storage.get();
SkPoint* verts;
uint16_t* indices;
#ifdef SK_SCALAR_IS_FLOAT
verts = (SkPoint*)(vertA.ptr() + vertIndex);
indices = (uint16_t*)(texs + ptCount);
#else
verts = texs + ptCount;
indices = (uint16_t*)(verts + ptCount);
// convert floats to fixed
{
const float* src = vertA.ptr() + vertIndex;
for (int i = 0; i < ptCount; i++) {
verts[i].set(SkFloatToFixed(src[0]), SkFloatToFixed(src[1]));
src += 2;
}
}
#endif
// cons up texture coordinates and indices
{
const SkScalar w = SkIntToScalar(bitmap->width());
const SkScalar h = SkIntToScalar(bitmap->height());
const SkScalar dx = w / meshWidth;
const SkScalar dy = h / meshHeight;
SkPoint* texsPtr = texs;
SkScalar y = 0;
for (int i = 0; i <= meshHeight; i++) {
if (i == meshHeight) {
y = h; // to ensure numerically we hit h exactly
}
SkScalar x = 0;
for (int j = 0; j < meshWidth; j++) {
texsPtr->set(x, y);
texsPtr += 1;
x += dx;
}
texsPtr->set(w, y);
texsPtr += 1;
y += dy;
}
SkASSERT(texsPtr - texs == ptCount);
}
// cons up indices
{
uint16_t* indexPtr = indices;
int index = 0;
for (int i = 0; i < meshHeight; i++) {
for (int j = 0; j < meshWidth; j++) {
// lower-left triangle
*indexPtr++ = index;
*indexPtr++ = index + meshWidth + 1;
*indexPtr++ = index + meshWidth + 2;
// upper-right triangle
*indexPtr++ = index;
*indexPtr++ = index + meshWidth + 2;
*indexPtr++ = index + 1;
// bump to the next cell
index += 1;
}
// bump to the next row
index += 1;
}
SkASSERT(indexPtr - indices == indexCount);
SkASSERT((char*)indexPtr - (char*)storage.get() == storageSize);
}
// double-check that we have legal indices
#ifdef SK_DEBUG
{
for (int i = 0; i < indexCount; i++) {
SkASSERT((unsigned)indices[i] < (unsigned)ptCount);
}
}
#endif
// cons-up a shader for the bitmap
SkPaint tmpPaint;
if (paint) {
tmpPaint = *paint;
}
SkShader* shader = SkShader::CreateBitmapShader(*bitmap,
SkShader::kClamp_TileMode, SkShader::kClamp_TileMode);
tmpPaint.setShader(shader)->safeUnref();
canvas->drawVertices(SkCanvas::kTriangles_VertexMode, ptCount, verts,
texs, (const SkColor*)colorA.ptr(), NULL, indices,
indexCount, tmpPaint);
}
/*
region<int> getDiffer( trackDocument * doc, int areaIndex, int start, int end, int time )
{
boundaryArea & area = doc->areas[areaIndex];
boundaryCurve & curve = area.divisions.first();
boundaryCurveIndex index;
index.curve = 0;
index.size = curve.points.size;
index.start = start;
index.end = end;
static array2<bool> flag;
flag.allocate( doc->width, doc->height );
region<int> result;
if ( ! time ) return result;
area.update( time - 1 );
area.update( time );
region<int> prevShape, nowShape;
{
list< point2<int> > segments;
bool checkStart = true;
for ( boundaryCurveIndex::iterator iti( index ); iti; ++iti ) {
curve.segment( segments, iti(), time - 1 );
}
memset( flag.data, 0, sizeof( bool ) * flag.size );
for ( list< point2<int> >::iterator itp( segments ); itp; ++itp ) {
flag( clamp( 0, itp->x, doc->width - 1 ), clamp( 0, itp->y, doc->height - 1 ) ) = true;
}
prevShape.set( flag, 0, 0 );
}
{
list< point2<int> > segments;
bool checkStart = true;
for ( boundaryCurveIndex::iterator iti( index ); iti; ++iti ) {
curve.segment( segments, iti(), time );
}
memset( flag.data, 0, sizeof( bool ) * flag.size );
for ( list< point2<int> >::iterator itp( segments ); itp; ++itp ) {
flag( clamp( 0, itp->x, doc->width - 1 ), clamp( 0, itp->y, doc->height - 1 ) ) = true;
}
nowShape.set( flag, 0, 0 );
}
region<int> round;
round = nowShape | prevShape;
{
region<int> line;
point2<int> p1 = curve.points[start]( time - 1 );
point2<int> p2 = curve.points[start]( time );
line.line( p1.x, p1.y, p2.x, p2.y );
round |= line;
}
{
region<int> line;
point2<int> p1 = curve.points[end]( time - 1 );
point2<int> p2 = curve.points[end]( time );
line.line( p1.x, p1.y, p2.x, p2.y );
round |= line;
}
round.fill( result );
return result;
}
*/
void stateDocument::paint()
{
trackDocument * doc = trackDocument::get();
trackView * view = trackView::get();
if ( ! doc ) return;
if ( ! view ) return;
static image viewImage;//画面表示用画像
viewImage.topdown = false;
double maxValue = doc->maxValues[doc->currentViewImageIndex];
double windowLevel = windowLevelBar->get();
double windowSize = windowSizeBar->get();
decimal rate = 255.0 / windowSize;
decimal offset = windowLevel - windowSize / 2;
imageInterface< pixelLuminance<int16> > * img = & doc->originalImages[doc->currentViewImageIndex];
switch ( view->mode & trackView::baseImageMask ) {
case trackView::original:
break;
case trackView::vertEdge:
img = & doc->verticalEdgeImages[doc->currentViewImageIndex];
break;
case trackView::horzEdge:
img = & doc->horizontalEdgeImages[doc->currentViewImageIndex];
break;
default:
offset = 0;
rate = 0;
break;
}
viewImage.create( img->width, img->height );
pixel p( 0, 0, 0, 255 );
if ( rate ) {
for ( int y = 0; y < img->height; ++y ) {
for ( int x = 0; x < img->width; ++x ) {
p.r = p.g = p.b = static_cast<int8>( clamp<decimal>( 0,
( img->getInternal( x, y ).y - offset ) * rate, 255.0 ) );
viewImage.setInternal( x, y, p );
}
}
} else {
for ( int y = 0; y < img->height; ++y ) {
for ( int x = 0; x < img->width; ++x ) {
viewImage.setInternal( x, y, p );
}
}
}
//波の表示用の色
pixel colorV( 0, 0, 255, 255 );
pixel colorH( 0, 255, 0, 255 );
pixel colorA( 255, 255, 0, 255 );
pixel colorD( 255, 0, 255, 255 );
//論文投稿用の表示
if ( false && ( ( view->mode & trackView::baseImageMask ) == trackView::none ) ) {
p.r = p.g = p.b = 0;
for ( int y = 0; y < img->height; ++y ) {
for ( int x = 0; x < img->width; ++x ) {
viewImage.setInternal( x, y, p );
}
}
for ( int t = 0; t < doc->sizeTime(); ++t ) {
pixel c;
if ( view->mode & trackView::vertical ) {
for ( array< list<link> >::iterator ita( doc->verticalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
c.r = c.g = c.b = clamp<int>( 0, it->reliability * 255, 255 );
int x = it->cx * doc->wave[t] + it->bx;
int y = it->cy * doc->wave[t] + it->by;
viewImage.set( x, y, blendMax( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::horizontal ) {
for ( array< list<link> >::iterator ita( doc->horizontalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
c.r = c.g = c.b = clamp<int>( 0, it->reliability * 255, 255 );
int x = it->cx * doc->wave[t] + it->bx;
int y = it->cy * doc->wave[t] + it->by;
viewImage.set( x, y, blendMax( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::ascent ) {
for ( array< list<link> >::iterator ita( doc->ascentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
c.r = c.g = c.b = clamp<int>( 0, it->reliability * 255, 255 );
int x = it->cx * doc->wave[t] + it->bx;
int y = it->cy * doc->wave[t] + it->by;
viewImage.set( x, y, blendMax( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::descent ) {
for ( array< list<link> >::iterator ita( doc->descentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
c.r = c.g = c.b = clamp<int>( 0, it->reliability * 255, 255 );
int x = it->cx * doc->wave[t] + it->bx;
int y = it->cy * doc->wave[t] + it->by;
viewImage.set( x, y, blendMax( viewImage.get( x, y ), c ) );
}
}
}
}
} else
if ( view->mode != trackView::original ) {
/*
if ( view->mode & trackView::vertical ) {
checkMaximum<double> mx;
for ( array< list<link> >::iterator ita( doc->verticalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
mx( it->intensity );
}
}
for ( array< list<link> >::iterator ita( doc->verticalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorV;
c.a = clamp<int>( 0, c.a * it->intensity / mx(), 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::horizontal ) {
checkMaximum<double> mx;
for ( array< list<link> >::iterator ita( doc->horizontalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
mx( it->intensity );
}
}
for ( array< list<link> >::iterator ita( doc->horizontalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorH;
c.a = clamp<int>( 0, c.a * it->intensity / mx(), 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::ascent ) {
checkMaximum<double> mx;
for ( array< list<link> >::iterator ita( doc->ascentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
mx( it->intensity );
}
}
for ( array< list<link> >::iterator ita( doc->ascentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorA;
c.a = clamp<int>( 0, c.a * it->intensity / mx(), 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::descent ) {
checkMaximum<double> mx;
for ( array< list<link> >::iterator ita( doc->descentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
mx( it->intensity );
}
}
for ( array< list<link> >::iterator ita( doc->descentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorD;
c.a = clamp<int>( 0, c.a * it->intensity / mx(), 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
*/
if ( view->mode & trackView::vertical ) {
for ( array< list<link> >::iterator ita( doc->verticalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorV;
c.a = clamp<int>( 0, c.a * it->reliability, 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::horizontal ) {
for ( array< list<link> >::iterator ita( doc->horizontalLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorH;
c.a = clamp<int>( 0, c.a * it->reliability, 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::ascent ) {
for ( array< list<link> >::iterator ita( doc->ascentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorA;
c.a = clamp<int>( 0, c.a * it->reliability, 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
if ( view->mode & trackView::descent ) {
for ( array< list<link> >::iterator ita( doc->descentLinks ); ita; ++ita ) {
for ( list<link>::iterator it( ita() ); it; ++it ) {
pixel c = colorD;
c.a = clamp<int>( 0, c.a * it->reliability, 255 );
int x = it->cx * doc->wave[doc->currentViewImageIndex] + it->bx;
int y = it->cy * doc->wave[doc->currentViewImageIndex] + it->by;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
}
/*
for ( int i = 0; i < 4; ++i ) {
for ( array2<flicker>::iterator it( doc->flickers[i] ); it; ++it ) {
if ( it->value < 0.25 ) continue;
pixel c( 0, 255, 0, 255 );
c.a = clamp<int>( 0, c.a * it->value, 128 );
const point2<int> & pos = it->lnk.position( doc->currentViewImageIndex, doc->wave );
int x = pos.x, y = pos.y;
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
*/
for ( list< boundaryArea >::iterator it( doc->areas ); it; ++it ) {
it->update( doc->currentViewImageIndex );
}
list< point2<int> > points;
pixel linecolor( 255, 255, 0, 128 );
pixel pointcolor( 0, 255, 0, 255 );
pixel itnitialpointcolor( 0, 0, 255, 255 );
pixel editedpointcolor( 255, 0, 0, 255 );
/*
for ( list< boundaryArea >::iterator it( doc->areas ); it; ++it ) {
boundaryArea & area = it();
if ( ! area.enable ) continue;
pixel areacolor( 0, 0, 0, 64 );
for ( list< boundaryPart >::iterator ita( area.parts ); ita; ++ita ) {
areacolor.r = rand() % 256;
areacolor.g = rand() % 256;
areacolor.b = rand() % 256;
areacolor.a = 128;
boundaryPart & part = ita();
for ( region<int>::iterator itp( part.shapes[doc->currentViewImageIndex] ); itp; ++itp ) {
int x = itp->x;
int y = itp->y;
viewImage.set( x, y, blend( viewImage.get( x, y ), areacolor ) );
}
}
}
*/
for ( list< boundaryArea >::iterator it( doc->areas ); it; ++it ) {
//曲線の表示
if ( doc->show_curve )
{
for ( list< point2<int> >::iterator itp( it->boundaryCurves[doc->currentViewImageIndex] ); itp; ++itp ) {
const point2<int> & p = itp();
int x = p.x;
int y = p.y;
viewImage.set( x, y, blend( viewImage.get( x, y ), linecolor ) );
}
}
//制御点の表示
for ( list<boundaryPoint*>::iterator itc( it->controlPoints ); itc; ++itc ) {
boundaryPoint & bp = *itc();
const point2<int> & p = bp( doc->currentViewImageIndex );
pixel c;
switch ( bp.type( doc->currentViewImageIndex ) ) {
case boundaryPointFrame::typeInitial: c = itnitialpointcolor; break;
case boundaryPointFrame::typeEdited: c = editedpointcolor; break;
case boundaryPointFrame::typeInterpolated: c = pointcolor; break;
default: c = pointcolor; break;
}
for ( int y = p.y - 1; y <= p.y + 1; ++y ) {
for ( int x = p.x - 1; x <= p.x + 1; ++x ) {
viewImage.set( x, y, blend( viewImage.get( x, y ), c ) );
}
}
}
}
paint( viewImage );
}
