/** The ColorMap constructor defines many hardcoded RGB values that are used during segmentation. The most important of these with respect to inputs
* are the STEM_COLOR, BORDER_COLOR, UNSEGMENTED_COLOR. The remainders correspond to leaves. If a hand-segmented or machine learning segmented plant
* is provided and colors don't correspond to these values, behavior will likely be unexpected.
*/
ColorMap::ColorMap() {
TupleTriplet STEM_COLOR(0.0, 255.0, 255.0);
TupleTriplet BORDER_COLOR(80.0, 80.0, 80.0);
TupleTriplet UNSEGMENTED_COLOR(255.0, 255.0, 255.0);
TupleTriplet DEBUG_COLOR(255.0, 20.0, 147.0);
TupleTriplet INFLORESCENCE_COLOR(255.0, 215.0, 0.0); // gold
_stem_color = STEM_COLOR;
_border_color = BORDER_COLOR;
_unsegmented_color = UNSEGMENTED_COLOR;
_debug_color = DEBUG_COLOR;
_inflorescence_color = INFLORESCENCE_COLOR;
// We're emulating the ggplot2 colors.
// http://stackoverflow.com/questions/8197559/emulate-ggplot2-default-color-palette
// and converted the hex to rgb
TupleTriplet color1(248.0, 118.0, 109.0); //salmon-y #F8766D
TupleTriplet color2(183.0, 159.0, 0.0); //tan-y #B79F00
TupleTriplet color3(0.0, 186.0, 56.0); //green-y #00BA38
//TupleTriplet color4(0.0, 191.0, 196.0); //sea-green-y #00BFC4
TupleTriplet color4(0.0, 134.0, 125.0); //sea-green-y
TupleTriplet color5(97.0, 156.0, 255.0); // sky blue-y #619CFF
TupleTriplet color6(245.0, 100.0, 227.0); // pink-y #F564E3
TupleTriplet color7(229.0, 135.0, 0.0); //orange-y #E58700
TupleTriplet color8(185.0, 131.0, 255.0); // purple-y #B983FF
TupleTriplet color9(222.0, 42.0, 29.0); // red-ish
TupleTriplet color10(222.0, 29.0, 186.0);
TupleTriplet color11(103.0, 29.0, 222.0);
TupleTriplet color12(20.0, 42.0, 222.0);
/*
TupleTriplet color5(29.0, 135.0, 222.0);
TupleTriplet color6(29.0, 222.0, 96.0);
TupleTriplet color7(148.0, 222.0, 29.0);
TupleTriplet color8(222.0, 125.0, 29.0);
TupleTriplet color9(240.0, 178.0, 179.0);
TupleTriplet color10(176.0, 237.0, 161.0);
TupleTriplet color11(250.0, 250.0, 17.0);
TupleTriplet color12(247.0, 168.0, 229.0);
*/
//New colors added to account for manual segmentation
TupleTriplet color13(150.0, 150.0, 150.0);
TupleTriplet color14(0.0, 0.0, 255.0);
TupleTriplet color15(170.0, 170.0, 255.0);
TupleTriplet color16(255.0, 0.0, 0.0);
TupleTriplet color17(255.0, 0.0, 127.0);
TupleTriplet color18(0.0, 170.0, 0.0);
TupleTriplet color19(85.0, 170.0, 255.0);
TupleTriplet color20(255.0, 170.0, 0.0);
TupleTriplet color21(153.0, 102.0, 51.0);
TupleTriplet color22(255.0, 170.0, 255.0);
TupleTriplet color23(170.0, 255.0, 127.0);
TupleTriplet color24(255.0, 255.0, 127.0);
TupleTriplet color25(108.0, 108.0, 108.0);
TupleTriplet color26(237.0, 146.0, 15.0);
TupleTriplet color27(170.0, 255.0, 0.0);
_leafColorMap.insert(std::pair<int, TupleTriplet> (1, color1));
_leafColorMap.insert(std::pair<int, TupleTriplet> (2, color2));
_leafColorMap.insert(std::pair<int, TupleTriplet> (3, color3));
_leafColorMap.insert(std::pair<int, TupleTriplet> (4, color4));
_leafColorMap.insert(std::pair<int, TupleTriplet> (5, color5));
_leafColorMap.insert(std::pair<int, TupleTriplet> (6, color6));
_leafColorMap.insert(std::pair<int, TupleTriplet> (7, color7));
_leafColorMap.insert(std::pair<int, TupleTriplet> (8, color8));
_leafColorMap.insert(std::pair<int, TupleTriplet> (9, color9));
_leafColorMap.insert(std::pair<int, TupleTriplet> (10, color10));
_leafColorMap.insert(std::pair<int, TupleTriplet> (11, color11));
_leafColorMap.insert(std::pair<int, TupleTriplet> (12, color12));
_leafColorMap.insert(std::pair<int, TupleTriplet> (13, color13));
_leafColorMap.insert(std::pair<int, TupleTriplet> (14, color14));
_leafColorMap.insert(std::pair<int, TupleTriplet> (15, color15));
_leafColorMap.insert(std::pair<int, TupleTriplet> (16, color16));
_leafColorMap.insert(std::pair<int, TupleTriplet> (17, color17));
_leafColorMap.insert(std::pair<int, TupleTriplet> (18, color18));
_leafColorMap.insert(std::pair<int, TupleTriplet> (19, color19));
_leafColorMap.insert(std::pair<int, TupleTriplet> (20, color20));
_leafColorMap.insert(std::pair<int, TupleTriplet> (21, color21));
_leafColorMap.insert(std::pair<int, TupleTriplet> (22, color22));
_leafColorMap.insert(std::pair<int, TupleTriplet> (23, color23));
_leafColorMap.insert(std::pair<int, TupleTriplet> (24, color24));
_leafColorMap.insert(std::pair<int, TupleTriplet> (25, color25));
_leafColorMap.insert(std::pair<int, TupleTriplet> (26, color26));
_leafColorMap.insert(std::pair<int, TupleTriplet> (27, color27));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color1, 1));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color2, 2));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color3, 3));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color4, 4));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color5, 5));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color6, 6));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color7, 7));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color8, 8));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color9, 9));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color10, 10));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color11, 11));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color12, 12));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color13, 13));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color14, 14));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color15, 15));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color16, 16));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color17, 17));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color18, 18));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color19, 19));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color20, 20));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color21, 21));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color22, 22));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color23, 23));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color24, 24));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color25, 25));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color26, 26));
_leafColorMap_colorsToLabel.insert(std::pair<TupleTriplet, int> (color27, 27));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color1, 1));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color2, 2));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color3, 3));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color4, 4));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color5, 5));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color6, 6));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color7, 7));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color8, 8));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color9, 9));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color10, 10));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color11, 11));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color12, 12));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color13, 13));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color14, 14));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color15, 15));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color16, 16));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color17, 17));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color18, 18));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color19, 19));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color20, 20));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color21, 21));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color22, 22));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color23, 23));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color24, 24));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color25, 25));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color26, 26));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (color27, 27));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (STEM_COLOR, 28));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (BORDER_COLOR, 29));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (UNSEGMENTED_COLOR, 30));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (DEBUG_COLOR, 31));
_map_explicitlyHandledColors.insert(std::pair<TupleTriplet, int> (INFLORESCENCE_COLOR, 32));
}
void TriangleType::draw(RenderMode::WhichColorMode& wcm, RenderMode::RenderType& r,const Matrix44& adjust_matrix, const Vec3& bias)
{
if (!visible_)
{
return;
}
// std::vector<Vertex*>& vs = sample_.vertices_;
//r = RenderMode::PointMode;
switch(r)
{
case RenderMode::PointMode:{
break;
}
case RenderMode::FlatMode:{
glBegin(GL_TRIANGLES);
for( int i = 0 ;i <3 ;++i)
{
if(this->i_norm[i]!=-1)
{
Vec4 tmpn( sample_[this->i_norm[i]].nx() , sample_[this->i_norm[i]].ny() ,sample_[this->i_norm[i]].nz() ,1.);
Vec4 normal_to_show = tmpn;//adjust_matrix * tmpn;
glNormal3f(
normal_to_show(0),
normal_to_show(1),
normal_to_show(2));
//Logger<<"NORMAL: "<<(float)vs[this->i_norm[i]]->nx()<<" "<<
// (float)vs[this->i_norm[i]]->ny()<<" "<<
// (float)vs[this->i_norm[i]]->nz()<<std::endl;
}
ColorType color2 = Color_Utility::span_color_from_table(sample_[this->i_vertex[i]].label());
glColor3f( color2(0) ,color2(1) ,color2(2)
/* (GLfloat) vs[this->i_vertex[i]]->r(),
(GLfloat) vs[this->i_vertex[i]]->g(),
(GLfloat) vs[this->i_vertex[i]]->b()*/ );
//Logger<<"COLOR: "<<vs[this->i_vertex[i]]->r()<<" "<<
// vs[this->i_vertex[i]]->g()<<" "<<
// vs[this->i_vertex[i]]->b()<<std::endl;
Vec4 tmpv( sample_[this->i_vertex[i]].x() , sample_[this->i_vertex[i]].y() ,sample_[this->i_vertex[i]].z() ,1.);
Vec4 point_to_show = adjust_matrix * tmpv;
glVertex3f(
point_to_show(0)+ bias(0),
point_to_show(1)+ bias(1),
point_to_show(2)+ bias(2) );
//Logger<<"VERTEX: "<<vs[this->i_vertex[i]]->x()<<" "<<
// vs[this->i_vertex[i]]->y()<<" "<<
// vs[this->i_vertex[i]]->z()<<std::endl;
}
glEnd();
break;
}
case RenderMode::WireMode:{
glLineWidth(2.0f);
glBegin(GL_LINE_LOOP);
for( int i = 0 ;i <3 ;++i)
{
if(this->i_norm[i]!=-1)
{
Vec4 tmpn( sample_[this->i_norm[i]].nx() , sample_[this->i_norm[i]].ny() ,sample_[this->i_norm[i]].nz() ,1.);
Vec4 normal_to_show = adjust_matrix * tmpn;
glNormal3f(
normal_to_show(0),
normal_to_show(1),
normal_to_show(2));
}
ColorType color2 = Color_Utility::span_color_from_table(sample_[this->i_vertex[i]].label());
glColor3f( color2(0) ,color2(1) ,color2(2)
/*(GLfloat) vs[this->i_vertex[i]]->r(),
(GLfloat) vs[this->i_vertex[i]]->g(),
(GLfloat) vs[this->i_vertex[i]]->b() */);
Vec4 tmpv( sample_[this->i_vertex[i]].x() , sample_[this->i_vertex[i]].y() ,sample_[this->i_vertex[i]].z() ,1.);
Vec4 point_to_show = adjust_matrix * tmpv;
glVertex3f(
point_to_show(0)+ bias(0),
point_to_show(1)+ bias(1),
point_to_show(2)+ bias(2) );
}
glEnd();
break;
}
case RenderMode::FlatWireMode:{
glBegin(GL_TRIANGLES);
for( int i = 0 ;i <3 ;++i)
{
if(this->i_norm[i]!=-1)
{
Vec4 tmpn( sample_[this->i_norm[i]].nx() , sample_[this->i_norm[i]].ny() ,sample_[this->i_norm[i]].nz() ,1.);
Vec4 normal_to_show = tmpn;//adjust_matrix * tmpn;
glNormal3f(
normal_to_show(0),
normal_to_show(1),
normal_to_show(2));
//Logger<<"NORMAL: "<<(float)vs[this->i_norm[i]]->nx()<<" "<<
// (float)vs[this->i_norm[i]]->ny()<<" "<<
// (float)vs[this->i_norm[i]]->nz()<<std::endl;
}
ColorType color2 = Color_Utility::span_color_from_table(sample_[this->i_vertex[i]].label());
glColor3f( color2(0) ,color2(1) ,color2(2)
/* (GLfloat) vs[this->i_vertex[i]]->r(),
(GLfloat) vs[this->i_vertex[i]]->g(),
(GLfloat) vs[this->i_vertex[i]]->b()*/ );
//Logger<<"COLOR: "<<vs[this->i_vertex[i]]->r()<<" "<<
// vs[this->i_vertex[i]]->g()<<" "<<
// vs[this->i_vertex[i]]->b()<<std::endl;
Vec4 tmpv( sample_[this->i_vertex[i]].x() , sample_[this->i_vertex[i]].y() ,sample_[this->i_vertex[i]].z() ,1.);
Vec4 point_to_show = adjust_matrix * tmpv;
glVertex3f(
point_to_show(0)+ bias(0),
point_to_show(1)+ bias(1),
point_to_show(2)+ bias(2) );
//Logger<<"VERTEX: "<<vs[this->i_vertex[i]]->x()<<" "<<
// vs[this->i_vertex[i]]->y()<<" "<<
// vs[this->i_vertex[i]]->z()<<std::endl;
}
glEnd();
glLineWidth(2.0f);
glBegin(GL_LINE_LOOP);
for( int i = 0 ;i <3 ;++i)
{
if(this->i_norm[i]!=-1)
{
Vec4 tmpn( sample_[this->i_norm[i]].nx() , sample_[this->i_norm[i]].ny() ,sample_[this->i_norm[i]].nz() ,1.);
Vec4 normal_to_show = adjust_matrix * tmpn;
glNormal3f(
normal_to_show(0),
normal_to_show(1),
normal_to_show(2));
}
glColor3f( 0.5f,0.5f,0.5f
/*(GLfloat) vs[this->i_vertex[i]]->r(),
(GLfloat) vs[this->i_vertex[i]]->g(),
(GLfloat) vs[this->i_vertex[i]]->b() */);
Vec4 tmpv( sample_[this->i_vertex[i]].x() , sample_[this->i_vertex[i]].y() ,sample_[this->i_vertex[i]].z() ,1.);
Vec4 point_to_show = adjust_matrix * tmpv;
glVertex3f(
point_to_show(0)+ bias(0),
point_to_show(1)+ bias(1),
point_to_show(2)+ bias(2) );
}
glEnd();
break;
}
case RenderMode::SmoothMode:{ break;}
case RenderMode::TextureMode:{ break;}
case RenderMode::SelectMode:{ break;}
default:{}
}
}
void LogsProcessor::prepare(int id)
{
log *l = m_logs[id];
l->opened = true;
bool result = true;
if (l->append)
{
l->append = false;
DWORD inbuffer = 0;
DWORD size = GetFileSize(l->hfile, NULL);
DWORD buffer_len = m_buffer.getSize();
char *buffer = m_buffer.getData();
int pos = 0;
int fileptr = -1;
while (size > 0)
{
DWORD toread = buffer_len - inbuffer;
if (toread > size) toread = size;
char *p = buffer + inbuffer;
DWORD readed = 0;
if (!ReadFile(l->hfile, p, toread, &readed, NULL) || toread != readed)
{ result = false; break; }
size -= toread;
toread += inbuffer;
// find teg in data
std::string teg("</body>");
int teg_len = teg.length();
char *s = buffer;
char *e = s + toread;
while (s != e)
{
int len = e-s;
char *m = (char*)memchr(s, teg.at(0), len);
if ( m && (e-m)>=teg_len && !memcmp(teg.c_str(), m, teg_len) )
{
fileptr = pos+(m-buffer);
break;
}
if (!m) break;
s = s+(m-s)+1;
}
if (fileptr != -1)
break;
pos += (toread-teg_len);
inbuffer = teg_len;
memcpy(buffer, buffer+(toread-teg_len), teg_len);
}
if (fileptr == -1)
result = false;
else
{
SetFilePointer(l->hfile, fileptr, NULL, FILE_BEGIN);
SetEndOfFile(l->hfile);
write(l->hfile, "<pre>\r\n");
}
}
if (l->newlog || !result)
{
l->newlog = false;
if (!result)
{
SetFilePointer(l->hfile, 0, NULL, FILE_BEGIN);
SetEndOfFile(l->hfile);
}
tstring tu;
{
tu.assign(m_propData->title);
SYSTEMTIME tm;
GetSystemTime(&tm);
tchar buffer[32];
swprintf(buffer, L" - %d %s %d", tm.wDay, month[tm.wMonth], tm.wYear);
tu.append(buffer);
}
char *buffer = m_buffer.getData();
std::string header("<html><head><meta http-equiv=\"Content-Type\" content=\"text/html; charset=utf8\">\r\n<title>");
header.append(TW2U(tu.c_str()));
header.append("</title>\r\n</head>\r\n<style type=\"text/css\">\r\n");
TW2U font(m_propData->font_name.c_str());
sprintf(buffer, "body{ background-color: %s; color: %s; font-size: %dpt; font-weight: %d; font-family: %s }\r\n",
color(m_propData->bkgnd), color2(m_palette->getColor(7)), m_propData->font_heigth, m_propData->font_bold, (const char*)font);
header.append(buffer);
for (int i=0; i<16; ++i)
{
COLORREF c = m_palette->getColor(i);
sprintf(buffer, ".c%d { color: %s } .b%d { background: %s }\r\n", i, color(c), i, color2( i==0 ? m_propData->bkgnd : c ));
header.append(buffer);
}
header.append(".u { text-decoration: underline; }\r\n.b { border: 1px solid; }\r\n.i { font-style: italic; }\r\n");
header.append("</style>\r\n<body><pre>");
write(l->hfile, header);
}
}
int TestLauncher::testDraw()
{
Image *img[3];
img[0] = Theme::getImageFromTheme("graphics/sprites/arrow_left.png");
img[1] = Theme::getImageFromTheme("graphics/sprites/arrow_right.png");
img[2] = Theme::getImageFromTheme("graphics/sprites/arrow_up.png");
ImageCollection *const col = new ImageCollection;
ImageCollection *const col2 = new ImageCollection;
ImageVertexes *const vert = new ImageVertexes;
vert->image = img[2];
Skin *skin = theme->load("button.xml", "button.xml");
if (!skin)
return 0;
mainGraphics->pushClipArea(Rect(10, 20, 790, 580));
mainGraphics->setColor(Color(0xFFU, 0xFFU, 0x00U, 0xFFU));
mainGraphics->drawRectangle(Rect(0, 0, 400, 200));
mainGraphics->setColor(Color(0xFFU, 0x00U, 0x00U, 0xB0U));
img[0]->setAlpha(0.5f);
mainGraphics->drawImage(img[0], 190, 383);
img[0]->setAlpha(1.0f);
mainGraphics->calcWindow(col2,
5, 40,
500, 40,
skin->getBorder());
mainGraphics->finalize(col2);
mainGraphics->calcTileVertexes(vert, img[2], 10, 10);
mainGraphics->calcTileVertexes(vert, img[2], 40, 10);
mainGraphics->finalize(vert);
mainGraphics->setColor(Color(0x80U, 0x00U, 0xA0U, 0x90U));
mainGraphics->fillRectangle(Rect(200, 100, 300, 300));
mainGraphics->popClipArea();
Color color(0xFFU, 0x00U, 0x00U, 0xB0U);
Color color2(0x00U, 0xFFU, 0x00U, 0xB0U);
boldFont->drawString(mainGraphics,
color, color2,
"test test test test test test test test ", 300, 100);
mainGraphics->drawTileCollection(col2);
mainGraphics->drawPattern(img[0], 10, 400, 300, 180);
mainGraphics->calcPattern(col, img[1], 500, 400, 150, 100);
mainGraphics->finalize(col);
mainGraphics->drawTileVertexes(vert);
mainGraphics->drawRescaledImage(img[0], 250, 350, 35, 90);
mainGraphics->setColor(Color(0x00U, 0xFFU, 0x00U, 0x90U));
mainGraphics->drawNet(450, 10, 600, 300, 32, 20);
mainGraphics->drawTileCollection(col);
img[0]->setAlpha(0.3f);
mainGraphics->drawRescaledPattern(img[0], 250, 150, 250, 300, 30, 100);
for (int f = 0; f < 255; f ++)
{
mainGraphics->setColor(Color(0x20U, 0x60U, f, 0x90U));
mainGraphics->drawLine(300 + f, 490, 300 + f, 480);
for (int d = 0; d < 10; d ++)
mainGraphics->drawPoint(300 + f, 500 + d);
}
mainGraphics->updateScreen();
sleep(10);
delete col;
return 0;
}
void TestApp::test_hsv()
{
Console::write_line(" Header: color_hsv.h");
Console::write_line(" Class: ColorHSVi");
Console::write_line(" Function: ColorHSVi()");
{
ColorHSVi hsv;
if (hsv.h !=0) fail();
if (hsv.s !=0) fail();
if (hsv.v !=0) fail();
if (hsv.a !=0) fail();
}
Console::write_line(" Function: ColorHSVi(int h, int s, int v, int a)");
{
ColorHSVi hsv(1,2,3,4);
if (hsv.h != 1) fail();
if (hsv.s != 2) fail();
if (hsv.v != 3) fail();
if (hsv.a != 4) fail();
}
Console::write_line(" Function: ColorHSVi(const ColorHSVi ©)");
{
ColorHSVi hsv(1,2,3,4);
ColorHSVi hsv_copy(hsv);
if (hsv_copy.h != 1) fail();
if (hsv_copy.s != 2) fail();
if (hsv_copy.v != 3) fail();
if (hsv_copy.a != 4) fail();
}
Console::write_line(" Function: ColorHSVi(const Color &color)");
{
Color color(255, 0, 0, 64);
ColorHSVi hsv(color);
if (hsv.h != 0) fail();
if (hsv.s != 255) fail();
if (hsv.v != 255) fail();
if (hsv.a != 64) fail();
}
{
Color color(128, 255, 128, 64);
ColorHSVi hsv(color);
if (hsv.h != 120) fail();
if (hsv.s != 127) fail();
if (hsv.v != 255) fail();
if (hsv.a != 64) fail();
}
{
Colorf colorf(0.5f, 1.0f, 0.5f, 1.0f);
ColorHSVi hsv(colorf);
if (hsv.h != 120) fail();
if (hsv.s != 128) fail();
if (hsv.v != 255) fail();
if (hsv.a != 255) fail();
}
{
Color color(0, 0, 128, 64);
ColorHSVi hsv(color);
if (hsv.h != 240) fail();
if (hsv.s != 255) fail();
if (hsv.v != 128) fail();
if (hsv.a != 64) fail();
}
{
Color color(64, 90, 136, 90);
ColorHSVi hsv(color);
if (hsv.h != 218) fail();
if (hsv.s != 135) fail();
if (hsv.v != 136) fail();
if (hsv.a != 90) fail();
}
{
Color color(128, 128, 128, 90);
ColorHSVi hsv(color);
if (hsv.h != 0) fail();
if (hsv.s != 0) fail();
if (hsv.v != 128) fail();
if (hsv.a != 90) fail();
}
{
Color color(64, 90, 136, 90);
ColorHSVi hsv(color);
Color color2(hsv);
int red = color2.get_red();
int green = color2.get_green();
int blue = color2.get_blue();
int alpha = color2.get_alpha();
if (red != 64) fail();
if (green != 90) fail();
if (blue != 136) fail();
if (alpha != 90) fail();
}
Console::write_line(" Class: ColorHSVf");
Console::write_line(" Function: ColorHSVf()");
{
ColorHSVf hsv;
if (hsv.h !=0.0f) fail();
if (hsv.s !=0.0f) fail();
if (hsv.v !=0.0f) fail();
if (hsv.a !=0.0f) fail();
}
Console::write_line(" Function: ColorHSVf(float h, float s, float v, float a)");
{
ColorHSVf hsv(0.1f, 0.2f, 0.3f, 0.4f);
if (hsv.h != 0.1f) fail();
if (hsv.s != 0.2f) fail();
if (hsv.v != 0.3f) fail();
if (hsv.a != 0.4f) fail();
}
Console::write_line(" Function: ColorHSVf(const ColorHSVf ©)");
{
ColorHSVf hsv(0.1f, 0.2f, 0.3f, 0.4f);
ColorHSVf hsv_copy(hsv);
if (hsv_copy.h != 0.1f) fail();
if (hsv_copy.s != 0.2f) fail();
if (hsv_copy.v != 0.3f) fail();
if (hsv_copy.a != 0.4f) fail();
}
Console::write_line(" Function: ColorHSVf(const Colorf &color)");
{
Colorf color(1.0f, 0.0f, 0.0f, 0.2f);
ColorHSVf hsv(color);
if (hsv.h != 0.0f) fail();
if (hsv.s != 1.0f) fail();
if (hsv.v != 1.0f) fail();
if (hsv.a != 0.2f) fail();
}
{
Colorf color(0.5f, 1.0f, 0.5f, 0.2f);
ColorHSVf hsv(color);
if (hsv.h != 120.0f) fail();
if (hsv.s != 0.5f) fail();
if (hsv.v != 1.0f) fail();
if (hsv.a != 0.2f) fail();
}
{
Color color(127, 255, 127, 255);
ColorHSVf hsv(color);
if (hsv.h != 120.0f) fail();
if (hsv.s < 0.49f) fail();
if (hsv.s > 0.51f) fail();
if (hsv.v != 1.0f) fail();
if (hsv.a != 1.0f) fail();
}
{
Colorf color(0.0f, 0.0f, 0.5, 0.3f);
ColorHSVf hsv(color);
if (hsv.h != 240.0f) fail();
if (hsv.s != 1.0f) fail();
if (hsv.v != 0.5f) fail();
if (hsv.a != 0.3f) fail();
}
{
Colorf color(0.2f, 0.4f, 0.7f, 0.3f);
ColorHSVf hsv(color);
Colorf color2(hsv);
if (color.r < 0.1999f) fail();
if (color.r > 0.2001f) fail();
if (color.g < 0.3999f) fail();
if (color.g > 0.4001f) fail();
if (color.b < 0.6999f) fail();
if (color.b > 0.7001f) fail();
if (color.a < 0.2999f) fail();
if (color.a > 0.3001f) fail();
}
Console::write_line(" Class: ColorHSVd");
}
// Construct visual object display list.
void Floor::initialize()
{
float divisionsPerSide = sideLength;
VertexData v0, v1, v2, v3;
short color = 1;
buildShaderProgram();
GLuint VBO, IBO;
glGenVertexArrays (1, &vertexArrayObject);
glBindVertexArray( vertexArrayObject );
vector<VertexData> v;
vector<unsigned int> indices;
GLfloat tileWidth = sideLength / divisionsPerSide ;
// Find corner of the board
GLfloat tileX = -( (divisionsPerSide/2.0f) * tileWidth);
GLfloat tileZ = ( (divisionsPerSide/2.0f) * tileWidth);
// define the two square colors
vec4 color1( 0.9f, 0.9f, 0.9f, 1.0f );
vec4 color2( 0.05f, 0.05f, 0.05f, 1.0f );
vec4 currentColor;
GLuint currentIndex = 0;
// Loop through rows
for ( int j = 0 ; j < divisionsPerSide ; j++ ) {
currentColor = (color++)%2 ? color1 : color2 ;
// Loop through columns
for ( int i = 0 ; i < divisionsPerSide ; i++ ) {
currentColor = (color++)%2 ? color1 : color2 ;
v0 = VertexData ( vec3(tileX, 0.0f, tileZ-tileWidth ), currentColor );
v.push_back( v0 );
v1 = VertexData ( vec3(tileX, 0.0f, tileZ ), currentColor );
v.push_back( v1 );
tileX += tileWidth;
v2 = VertexData ( vec3(tileX, 0.0f, tileZ), currentColor );
v.push_back( v2 );
v3 = VertexData ( vec3(tileX, 0.0f, tileZ-tileWidth), currentColor );
v.push_back( v3 );
indices.push_back(currentIndex);
indices.push_back(currentIndex + 1);
indices.push_back(currentIndex + 2);
indices.push_back(currentIndex);
indices.push_back(currentIndex + 2);
indices.push_back(currentIndex + 3);
currentIndex += 4;
} // end for i
tileX = - ( (divisionsPerSide/2.0f) * tileWidth);
tileZ -= tileWidth;
} // end for j
glGenBuffers(1, &VBO);
glBindBuffer(GL_ARRAY_BUFFER, VBO);
glBufferData(GL_ARRAY_BUFFER, v.size() * sizeof(VertexData), &v[0], GL_STATIC_DRAW);
glVertexAttribPointer(0, 3, GL_FLOAT, GL_FALSE, sizeof(VertexData), 0);
glEnableVertexAttribArray(0);
glVertexAttribPointer(2, 4, GL_FLOAT, GL_FALSE, sizeof(VertexData),(const GLvoid*)sizeof(vec3));
glEnableVertexAttribArray(2);
numberOfIndices = indices.size();
glGenBuffers(1, &IBO);
glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, IBO);
glBufferData(GL_ELEMENT_ARRAY_BUFFER, indices.size() * sizeof(unsigned int), &indices[0], GL_STATIC_DRAW);
v.clear();
indices.clear();
VisualObject::initialize();
} // end initialize
void PlayState::update()
{
if (!m_gameOver) {
//bool moving = false;
m_PlayerPos.x += 0.25 + m_Continuous*(0.05);
m_Run.setSpeed((int)((0.25 + m_Continuous*(0.05))*10));
//This is a really funny way to do this
bool hit = false;
if (m_AnimLock == 6) {
if (m_Action == 1) {
m_audMan.playStereoSample("hit1", m_PlayerPos.x, m_PlayerPos.y);
}
if (m_Action == 2) {
m_audMan.playStereoSample("hit2", m_PlayerPos.x, m_PlayerPos.y);
}
if (m_Action == 3) {
m_audMan.playStereoSample("hit3", m_PlayerPos.x, m_PlayerPos.y);
}
for (int i=0; i<MAX_AI; ++i) {
if (testPoint(i)) {
if (m_Action == 1) {
m_Score += 1 + m_Continuous;
}
if (m_Action == 2) {
m_Score += 1 + 2*m_Continuous;
}
if (m_Action == 3) {
m_Score += 1 + 3*m_Continuous;
}
m_AIs[i].speed += 0.05;
m_AIs[i].walking = false;
m_AIs[i].run.setVisible(true);
m_AIs[i].walk.setVisible(false);
m_AIs[i].walk.setSpeed((int)(m_AIs[i].speed*20));
m_AIs[i].run.setSpeed((int)(m_AIs[i].speed*20));
hit = true;
m_Continuous += 1;
switch ((int)Gosu::random(1.0, 7.0)) {
case 1:
m_audMan.playStereoSample("hurt1", m_AIs[i].pos.x, m_AIs[i].pos.y);
break;
case 2:
m_audMan.playStereoSample("hurt2", m_AIs[i].pos.x, m_AIs[i].pos.y);
break;
case 3:
m_audMan.playStereoSample("hurt3", m_AIs[i].pos.x, m_AIs[i].pos.y);
break;
case 4:
m_audMan.playStereoSample("hurt4", m_AIs[i].pos.x, m_AIs[i].pos.y);
break;
}
}
}
if (!hit) {
m_Continuous = 0;
}
}
if (m_AnimLock == 0) {
m_LPunch.setVisible(false);
m_RPunch.setVisible(false);
m_HButt.setVisible(false);
m_Run.setVisible(true);
m_Run.setFrame(0);
m_AnimLock -= 1;
}else{
m_AnimLock -= 1;
}
InputManager *iman = InputManager::getCurrentContext();
if (iman->query("Play.PunchLeft") == InputManager::actnBegin) {
m_Action = 1;
m_LPunch.setVisible(true);
m_RPunch.setVisible(false);
m_HButt.setVisible(false);
m_Run.setVisible(false);
m_LPunch.setFrame(0);
m_AnimLock = 8;
}
if (iman->query("Play.PunchRight") == InputManager::actnBegin) {
m_Action = 2;
m_LPunch.setVisible(false);
m_RPunch.setVisible(true);
m_HButt.setVisible(false);
m_Run.setVisible(false);
m_RPunch.setFrame(0);
m_AnimLock = 16;
}
if (iman->query("Play.HeadButt") == InputManager::actnBegin) {
m_Action = 3;
m_LPunch.setVisible(false);
m_RPunch.setVisible(false);
m_HButt.setVisible(true);
m_Run.setVisible(false);
m_HButt.setFrame(0);
m_AnimLock = 32;
}
//Update camera focus
m_Focus[0] = m_PlayerPos.x;
m_Focus[1] = m_PlayerPos.y - 24.0;
m_Idle.setX(m_PlayerPos.x);
m_Idle.setY(m_PlayerPos.y);
m_Run.setX(m_PlayerPos.x);
m_Run.setY(m_PlayerPos.y);
int c = Gosu::interpolate<int>(255, 50, m_PlayerPos.x/2000.0);
Gosu::Color color(255, c, c);
m_Run.setColorMod(color);
m_LPunch.setColorMod(color);
m_RPunch.setColorMod(color);
m_HButt.setColorMod(color);
double f = m_PlayerPos.x/2000.0;
f = f*f;
int a = Gosu::interpolate<int>(0, 250, f);
Gosu::Color color2(a, 255, c, c);
m_Aura->setColorMod(color2);
m_Aura->setX(m_PlayerPos.x);
m_Aura->setY(m_PlayerPos.y);
m_LPunch.setX(m_PlayerPos.x);
m_LPunch.setY(m_PlayerPos.y);
m_RPunch.setX(m_PlayerPos.x);
m_RPunch.setY(m_PlayerPos.y);
m_HButt.setX(m_PlayerPos.x);
m_HButt.setY(m_PlayerPos.y);
for (int i=0; i<MAX_AI; ++i) {
if (m_AIs[i].walking)
m_AIs[i].pos.x += m_AIs[i].speed;
else
m_AIs[i].pos.x += m_AIs[i].speed * 2.5;
m_AIs[i].walk.setX(m_AIs[i].pos.x);
m_AIs[i].walk.setY(m_AIs[i].pos.y);
m_AIs[i].run.setX(m_AIs[i].pos.x);
m_AIs[i].run.setY(m_AIs[i].pos.y);
}
m_rendMan.setCamera( m_Focus[0], m_Focus[1], m_Zoom, m_Rot);
m_rendMan.update();
m_Graph.update();
}else{
if (m_creditTimer < 1.0) m_creditTimer += 0.01;
if (m_creditTimer >= 1.0) {
m_creditTimer = 1.0;
if (!m_showCredits) m_GameTime = (Gosu::milliseconds() - m_gameTimer)/1000;
m_showCredits = true;
}
m_fade.setRed(255*(1.0-m_creditTimer));
m_fade.setGreen(255*(1.0-m_creditTimer));
m_fade.setBlue(255*(1.0-m_creditTimer));
}
if (m_PlayerPos.x > 1800) {
if (m_explosTimer < 1.0) m_explosTimer += 0.2;
if (m_explosTimer >= 1.0) m_explosTimer = 1.0;
m_fade.setAlpha(255*m_explosTimer);
if (!m_gameOver)
m_audMan.playStereoSample("explosion", m_PlayerPos.x, m_PlayerPos.y);
m_gameOver = true;
}
}
void MainWindow::createActions()
{
openAct = new QAction("&Open", this);
connect(openAct, SIGNAL(triggered()), this, SLOT(openAndReadFile()));
exitAct = new QAction("E&xit", this);
connect(exitAct, SIGNAL(triggered()), this, SLOT(close()));
aboutAct = new QAction("&About", this);
connect(aboutAct, SIGNAL(triggered()), this, SLOT(about()));
statAct = new QAction("&Stat", this);
connect(statAct, SIGNAL(triggered()), this, SLOT(showStat()));
resetAct = new QAction("&Reset position", this);
resetAct->setStatusTip("Reset the position");
connect(resetAct, SIGNAL(triggered()), this, SLOT(reset()));
reseteffectAct = new QAction("&Reset", this);
reseteffectAct->setStatusTip("Reset all material");
connect(reseteffectAct, SIGNAL(triggered()), this, SLOT(reseteffect()));
//ANIMATION-----------------------------------------------------
animationShownAct = new QAction("&Shown", this);
animationShownAct->setStatusTip("Show animation");
animationShownAct->setCheckable(true);
connect(animationShownAct, SIGNAL(triggered()), this, SLOT(showAnimation()));
animationHiddenAct = new QAction("&Hidden", this);
animationHiddenAct->setStatusTip("Hide animation");
animationHiddenAct->setCheckable(true);
connect(animationHiddenAct, SIGNAL(triggered()), this, SLOT(hideAnimation()));
animationGroup = new QActionGroup(this);
animationGroup->addAction(animationShownAct);
animationGroup->addAction(animationHiddenAct);
animationHiddenAct->setChecked(true);
//COLOR-----------------------------------------------------
color0Act = new QAction("&No light",this);
color0Act->setStatusTip("No light");
color0Act->setCheckable(true);
connect(color0Act, SIGNAL(triggered()), this, SLOT(color0()));
color1Act = new QAction("&Red",this);
color1Act->setStatusTip("Red");
color1Act->setCheckable(true);
connect(color1Act, SIGNAL(triggered()), this, SLOT(color1()));
color2Act = new QAction("&Green",this);
color2Act->setStatusTip("Green");
color2Act->setCheckable(true);
connect(color2Act, SIGNAL(triggered()), this, SLOT(color2()));
color3Act = new QAction("&Blue",this);
color3Act->setStatusTip("Blue");
color3Act->setCheckable(true);
connect(color3Act, SIGNAL(triggered()), this, SLOT(color3()));
color10Act = new QAction("&White",this);
color10Act->setStatusTip("White");
color10Act->setCheckable(true);
connect(color10Act, SIGNAL(triggered()), this, SLOT(color10()));
colorGroup = new QActionGroup(this);
colorGroup->addAction(color0Act);
colorGroup->addAction(color1Act);
colorGroup->addAction(color2Act);
colorGroup->addAction(color3Act);
colorGroup->addAction(color10Act);
color10Act->setChecked(true);
//EFFECT-----------------------------------------------------
effect0Act = new QAction("&No effect",this);
effect0Act->setStatusTip("No effect");
effect0Act->setCheckable(true);
connect(effect0Act, SIGNAL(triggered()), this, SLOT(effect0()));
effect1Act = new QAction("&Ambient",this);
effect1Act->setStatusTip("Ambient");
effect1Act->setCheckable(true);
connect(effect1Act, SIGNAL(triggered()), this, SLOT(effect1()));
effect2Act = new QAction("&Diffuse",this);
effect2Act->setStatusTip("Diffuse");
effect2Act->setCheckable(true);
connect(effect2Act, SIGNAL(triggered()), this, SLOT(effect2()));
effect10Act = new QAction("&All",this);
effect10Act->setStatusTip("All effect");
effect10Act->setCheckable(true);
connect(effect10Act, SIGNAL(triggered()), this, SLOT(effect10()));
effectGroup = new QActionGroup(this);
effectGroup->addAction(effect0Act);
effectGroup->addAction(effect1Act);
effectGroup->addAction(effect2Act);
effectGroup->addAction(effect10Act);
effect10Act->setChecked(true);
//AMBIENT-----------------------------------------------------
ambient0Act = new QAction("&No Ambient",this);
ambient0Act->setStatusTip("No Ambient");
ambient0Act->setCheckable(true);
connect(ambient0Act, SIGNAL(triggered()), this, SLOT(ambient0()));
ambient1Act = new QAction("&Ambient",this);
ambient1Act->setStatusTip("Ambient");
ambient1Act->setCheckable(true);
connect(ambient1Act, SIGNAL(triggered()), this, SLOT(ambient1()));
ambient2Act = new QAction("&Ambient Color",this);
ambient2Act->setStatusTip("Ambient Color");
ambient2Act->setCheckable(true);
connect(ambient2Act, SIGNAL(triggered()), this, SLOT(ambient2()));
ambientGroup = new QActionGroup(this);
ambientGroup->addAction(ambient0Act);
ambientGroup->addAction(ambient1Act);
ambientGroup->addAction(ambient2Act);
ambient0Act->setChecked(true);
//DIFFUSE-----------------------------------------------------
diffuse0Act = new QAction("&No Diffuse",this);
diffuse0Act->setStatusTip("No Diffuse");
diffuse0Act->setCheckable(true);
connect(diffuse0Act, SIGNAL(triggered()), this, SLOT(diffuse0()));
diffuse1Act = new QAction("&Diffuse",this);
diffuse1Act->setStatusTip("Diffuse");
diffuse1Act->setCheckable(true);
connect(diffuse1Act, SIGNAL(triggered()), this, SLOT(diffuse1()));
diffuseGroup = new QActionGroup(this);
diffuseGroup->addAction(diffuse0Act);
diffuseGroup->addAction(diffuse1Act);
diffuse0Act->setChecked(true);
//SPECULAR-----------------------------------------------------
specular0Act = new QAction("&No Specular",this);
specular0Act->setStatusTip("No Specular");
specular0Act->setCheckable(true);
connect(specular0Act, SIGNAL(triggered()), this, SLOT(specular0()));
specular1Act = new QAction("&Specular",this);
specular1Act->setStatusTip("Specular");
specular1Act->setCheckable(true);
connect(specular1Act, SIGNAL(triggered()), this, SLOT(specular1()));
specularGroup = new QActionGroup(this);
specularGroup->addAction(specular0Act);
specularGroup->addAction(specular1Act);
specular0Act->setChecked(true);
//SPECULAR-----------------------------------------------------
shininess0Act = new QAction("&No Shininess",this);
shininess0Act->setStatusTip("No Shininess");
shininess0Act->setCheckable(true);
connect(shininess0Act, SIGNAL(triggered()), this, SLOT(shininess0()));
shininess1Act = new QAction("&Low Shininess",this);
shininess1Act->setStatusTip("Low Shininess");
shininess1Act->setCheckable(true);
connect(shininess1Act, SIGNAL(triggered()), this, SLOT(shininess1()));
shininess2Act = new QAction("&High Shininess",this);
shininess2Act->setStatusTip("High Shininess");
shininess2Act->setCheckable(true);
connect(shininess2Act, SIGNAL(triggered()), this, SLOT(shininess2()));
shininessGroup = new QActionGroup(this);
shininessGroup->addAction(shininess0Act);
shininessGroup->addAction(shininess1Act);
shininessGroup->addAction(shininess2Act);
shininess0Act->setChecked(true);
//EMISSION-----------------------------------------------------
emission0Act = new QAction("&No Emission",this);
emission0Act->setStatusTip("No Emission");
emission0Act->setCheckable(true);
connect(emission0Act, SIGNAL(triggered()), this, SLOT(emission0()));
emission1Act = new QAction("&Emission",this);
emission1Act->setStatusTip("eEmission");
emission1Act->setCheckable(true);
connect(emission1Act, SIGNAL(triggered()), this, SLOT(emission1()));
emissionGroup = new QActionGroup(this);
emissionGroup->addAction(emission0Act);
emissionGroup->addAction(emission1Act);
emission0Act->setChecked(true);
}
//--------------------------------------------------------------------------------
// Initialize_World
// Sets up objects, materials, and lights for tests 1 - 4
//--------------------------------------------------------------------------------
void Initialize_World(Render_World& world,const int width,const int height,const int test_number)
{
Vector_3D<double> color1(1,0,0);
Vector_3D<double> color2(.2,.2,.8);
Vector_3D<double> plane_color(1,0.775,0.5431);
Plane* plane=new Plane(Vector_3D<double>(),Vector_3D<double>(0,1,0));
Sphere* sphere=new Sphere(Vector_3D<double>(0,1,0),1.0);
Sphere* sphere2=new Sphere(Vector_3D<double>(-2,1,-1),1.0);
//Sphere* sphere3=new Sphere(Vector_3D<double>(-2,1,-5),1.0);
switch(test_number)
{
case 1:
plane->material_shader=new Flat_Shader(world,plane_color);
sphere->material_shader=new Flat_Shader(world,color1);
sphere2->material_shader=new Flat_Shader(world,color2);
world.enable_shadows=false;
world.recursion_depth_limit=0;
world.camera.Position_And_Aim_Camera(Vector_3D<double>(0,4,-6),Vector_3D<double>(0,1,0),Vector_3D<double>(0,1,0));
world.camera.Focus_Camera(1,(double)width/(double)height,(double)70/(double)180*PI);
break;
case 2:
plane->material_shader=new CheckerBoard_Shader(world,plane_color,plane_color);
sphere->material_shader=new Phong_Shader(world,color1,color1);
sphere2->material_shader=new Phong_Shader(world,color2,color2);
world.enable_shadows=false;
world.recursion_depth_limit=0;
world.camera.Position_And_Aim_Camera(Vector_3D<double>(0,4,-6),Vector_3D<double>(0,1,0),Vector_3D<double>(0,1,0));
world.camera.Focus_Camera(1,(double)width/(double)height,(double)70/(double)180*PI);
break;
case 3:
plane->material_shader=new Phong_Shader(world,plane_color,plane_color);
sphere->material_shader=new Phong_Shader(world,color1,color1);
sphere2->material_shader=new Phong_Shader(world,color2,color2);
world.enable_shadows=true;
world.recursion_depth_limit=0;
world.camera.Position_And_Aim_Camera(Vector_3D<double>(0,4,-6),Vector_3D<double>(0,1,0),Vector_3D<double>(0,1,0));
world.camera.Focus_Camera(1,(double)width/(double)height,(double)70/(double)180*PI);
break;
case 4:
plane->material_shader=new Phong_Shader(world,plane_color,plane_color);
sphere->material_shader=new Reflective_Shader(world,color1,color1,Vector_3D<double>(1,1,1),50,.5);
sphere2->material_shader=new Reflective_Shader(world,color2,color2,Vector_3D<double>(1,1,1),50,.5);
world.enable_shadows=true;
world.recursion_depth_limit=4;
world.camera.Position_And_Aim_Camera(Vector_3D<double>(0,4,-6),Vector_3D<double>(-1,1,0),Vector_3D<double>(0,1,0));
world.camera.Focus_Camera(1,(double)width/(double)height,(double)50/(double)180*PI);
break;
default:
std::cout<<"Unrecognized test number"<<std::endl;
exit(1);
}
// lights
Light* point_light=new Point_Light(Vector_3D<double>(-2,7,-3),Vector_3D<double>(1,1,1),.25);
Light* point_light2=new Point_Light(Vector_3D<double>(3,5,-3),Vector_3D<double>(1,1,1),.25);
world.objects.push_back(plane);
world.objects.push_back(sphere);
world.objects.push_back(sphere2);
world.lights.push_back(point_light);
world.lights.push_back(point_light2);
// camera
world.camera.film.Set_Resolution(width,height);
}
void TestApp::test_hsl()
{
Console::write_line(" Header: color_hsl.h");
Console::write_line(" Class: ColorHSLi");
Console::write_line(" Function: ColorHSLi()");
{
ColorHSLi hsl;
if (hsl.h !=0) fail();
if (hsl.s !=0) fail();
if (hsl.l !=0) fail();
if (hsl.a !=0) fail();
}
Console::write_line(" Function: ColorHSLi(int h, int s, int l, int a)");
{
ColorHSLi hsl(1,2,3,4);
if (hsl.h != 1) fail();
if (hsl.s != 2) fail();
if (hsl.l != 3) fail();
if (hsl.a != 4) fail();
}
Console::write_line(" Function: ColorHSLi(const ColorHSLi ©)");
{
ColorHSLi hsl(1,2,3,4);
ColorHSLi hsl_copy(hsl);
if (hsl_copy.h != 1) fail();
if (hsl_copy.s != 2) fail();
if (hsl_copy.l != 3) fail();
if (hsl_copy.a != 4) fail();
}
Console::write_line(" Function: ColorHSLi(const Color &color)");
{
Color color(255, 0, 0, 64);
ColorHSLi hsl(color);
if (hsl.h != 0) fail();
if (hsl.s != 255) fail();
if (hsl.l != 128) fail();
if (hsl.a != 64) fail();
}
{
Color color(128, 255, 128, 64);
ColorHSLi hsl(color);
if (hsl.h != 120) fail();
if (hsl.s != 255) fail();
if (hsl.l < 191) fail();
if (hsl.l > 192) fail();
if (hsl.a != 64) fail();
}
{
Colorf colorf(0.5f, 1.0f, 0.5f, 1.0f);
ColorHSLi hsl(colorf);
if (hsl.h != 120) fail();
if (hsl.s != 255) fail();
if (hsl.l != 191) fail();
if (hsl.a != 255) fail();
}
{
Color color(0, 0, 128, 64);
ColorHSLi hsl(color);
if (hsl.h != 240) fail();
if (hsl.s != 255) fail();
if (hsl.l != 64) fail();
if (hsl.a != 64) fail();
}
{
Color color(64, 90, 136, 90);
ColorHSLi hsl(color);
if (hsl.h != 218) fail();
if (hsl.s != 92) fail();
if (hsl.l != 100) fail();
if (hsl.a != 90) fail();
}
{
Color color(128, 128, 128, 90);
ColorHSLi hsl(color);
if (hsl.h != 0) fail();
if (hsl.s != 0) fail();
if (hsl.l != 128) fail();
if (hsl.a != 90) fail();
}
{
Color color(64, 90, 136, 90);
ColorHSLi hsl(color);
Color color2(hsl);
int red = color2.get_red();
int green = color2.get_green();
int blue = color2.get_blue();
int alpha = color2.get_alpha();
if (red < 63) fail();
if (red > 65) fail();
if (green != 90) fail();
if (blue != 136) fail();
if (alpha != 90) fail();
}
Console::write_line(" Class: ColorHSLf");
Console::write_line(" Function: ColorHSLf()");
{
ColorHSLf hsl;
if (hsl.h !=0.0f) fail();
if (hsl.s !=0.0f) fail();
if (hsl.l !=0.0f) fail();
if (hsl.a !=0.0f) fail();
}
Console::write_line(" Function: ColorHSLf(float h, float s, float l, float a)");
{
ColorHSLf hsl(0.1f, 0.2f, 0.3f, 0.4f);
if (hsl.h != 0.1f) fail();
if (hsl.s != 0.2f) fail();
if (hsl.l != 0.3f) fail();
if (hsl.a != 0.4f) fail();
}
Console::write_line(" Function: ColorHSLf(const ColorHSLf ©)");
{
ColorHSLf hsl(0.1f, 0.2f, 0.3f, 0.4f);
ColorHSLf hsl_copy(hsl);
if (hsl_copy.h != 0.1f) fail();
if (hsl_copy.s != 0.2f) fail();
if (hsl_copy.l != 0.3f) fail();
if (hsl_copy.a != 0.4f) fail();
}
Console::write_line(" Function: ColorHSLf(const Colorf &color)");
{
Colorf color(1.0f, 0.0f, 0.0f, 0.2f);
ColorHSLf hsl(color);
if (hsl.h != 0.0f) fail();
if (hsl.s != 1.0f) fail();
if (hsl.l != 0.5f) fail();
if (hsl.a != 0.2f) fail();
}
{
Colorf color(0.5f, 1.0f, 0.5f, 0.2f);
ColorHSLf hsl(color);
if (hsl.h != 120.0f) fail();
if (hsl.s != 1.0f) fail();
if (hsl.l != 0.75f) fail();
if (hsl.a != 0.2f) fail();
}
{
Color color(127, 255, 127, 255);
ColorHSLf hsl(color);
if (hsl.h != 120.0f) fail();
if (hsl.s != 1.0f) fail();
if (hsl.l < 0.74f) fail();
if (hsl.l > 0.76f) fail();
if (hsl.a != 1.0f) fail();
}
{
Colorf color(0.0f, 0.0f, 0.5, 0.3f);
ColorHSLf hsl(color);
if (hsl.h != 240.0f) fail();
if (hsl.s != 1.0f) fail();
if (hsl.l < 0.24f) fail();
if (hsl.l > 0.26f) fail();
if (hsl.a != 0.3f) fail();
}
{
Colorf color(0.2f, 0.4f, 0.7f, 0.3f);
ColorHSLf hsl(color);
Colorf color2(hsl);
if (color.r < 0.1999f) fail();
if (color.r > 0.2001f) fail();
if (color.g < 0.3999f) fail();
if (color.g > 0.4001f) fail();
if (color.b < 0.6999f) fail();
if (color.b > 0.7001f) fail();
if (color.a < 0.2999f) fail();
if (color.a > 0.3001f) fail();
}
}