/**
* Return true if this linearizer can linearize a specified 2D point.
*
* @param const int x
* @param const int y
*
* @return bool
*/
bool Linearizer2D::contains(const int x, const int y) const
{
return x >= getOffsetX()
&& y >= getOffsetY()
&& x < getWidth() + getOffsetX()
&& y < getHeight() + getOffsetY();
}
void GuiList<listType>::render()
{
const int cutoff = getOffsetY();
const int entrySize = mFont->getHeight() + 5;
int startEntry = 0;
//number of entries that can fit on the screen simultaniously
int screenCount = (Renderer::getScreenHeight() - cutoff) / entrySize;
//screenCount -= 1;
if((int)mRowVector.size() >= screenCount)
{
startEntry = mSelection - (int)(screenCount * 0.5);
if(startEntry < 0)
startEntry = 0;
if(startEntry >= (int)mRowVector.size() - screenCount)
startEntry = mRowVector.size() - screenCount;
}
int y = cutoff;
if(mRowVector.size() == 0)
{
Renderer::drawCenteredText("The list is empty.", 0, y, 0xFF0000FF, mFont);
return;
}
int listCutoff = startEntry + screenCount;
if(listCutoff > (int)mRowVector.size())
listCutoff = mRowVector.size();
for(int i = startEntry; i < listCutoff; i++)
{
//draw selector bar
if(mSelection == i)
{
Renderer::drawRect(getOffsetX(), y, Renderer::getScreenWidth(), mFont->getHeight(), mSelectorColor);
}
ListRow row = mRowVector.at((unsigned int)i);
if(mDrawCentered)
Renderer::drawCenteredText(row.name, getOffsetX(), y, (mSelection == i && mSelectedTextColorOverride != 0) ? mSelectedTextColorOverride : row.color, mFont);
else
Renderer::drawText(row.name, getOffsetX() + mTextOffsetX, y, (mSelection == i && mSelectedTextColorOverride != 0) ? mSelectedTextColorOverride : row.color, mFont);
y += entrySize;
}
}
void Ground::update(int deltaTime)
{
setOffsetX(getOffsetX() - (getVelocityX() * (deltaTime/1000.0f)));
//cout << "Ground Offset X: " << getOffsetX() << endl;
if (getOffsetX() <= -808.0f)
{
setOffsetX(0.0f);
}
//Shift the collision boxes
shiftCollisionBoxes();
}
void TextBox::drawText()
{
font->setColor(textColor);
float innerWidth = width - paddingLeft - paddingRight;
float innerHeight = height - paddingTop - paddingBottom;
float limitTop = y + paddingTop + font->getAscent();
float limitBottom = limitTop + innerHeight;
float yy = limitTop + getOffsetY();
font->beginSequence();
for (int i = 0; i < wrapper.size && yy < limitBottom; i++)
{
if (yy + lineHeight > limitTop)
{
int start = wrapper.offsets[i];
int end = start + wrapper.lengths[i];
float limitLeft = x + paddingLeft;
float limitRight = limitLeft + innerWidth;
float xx = limitLeft + getOffsetX(start, end);
drawTextSpan(xx, yy, start, end, limitLeft, limitRight);
}
yy += lineHeight;
}
font->endSequence();
}
void OffsetCameraDecorator::getProjection( Matrix &result,
UInt32 width, UInt32 height)
{
if(width == 0 || height == 0)
{
result.setIdentity();
return;
}
CameraPtr camera = getDecoratee();
if(camera == NullFC)
{
FWARNING(("OffsetCameraDecorator::getProjection: no decoratee!\n"));
result.setIdentity();
return;
}
if(getFullWidth() != 0)
width = getFullWidth();
if(getFullHeight() != 0)
height = getFullHeight();
camera->getProjection(result, width, height);
Real32 x = getOffsetX() / Real32(width);
Real32 y = getOffsetY() / Real32(height);
Matrix sm( 1, 0, 0, x,
0, 1, 0, y,
0, 0, 1, 0,
0, 0, 0, 1);
result.multLeft(sm);
}
/*
* Shift the collision boxes as the ground's location change
*/
void Ground::shiftCollisionBoxes()
{
for (int i = 0; i < collisionBoxes_.size(); i++)
{
collisionBoxes_[i].x = getOffsetX() + COLLISION_BOX_X[i];
collisionBoxes_[i].y = getOffsetY() + COLLISION_BOX_Y[i];
}
for (int i = 0; i < collisionBoxes_Loop_.size(); i++)
{
collisionBoxes_Loop_[i].x = getOffsetX() + COLLISION_BOX_X[i] + 808.0f;
collisionBoxes_Loop_[i].y = getOffsetY() + COLLISION_BOX_Y[i];
}
}
/*
* Shift the collision boxes as the plane's location changes
*/
void Plane::shiftCollisionBoxes()
{
for (int i = 0; i < collisionBoxes_.size(); i++)
{
collisionBoxes_[i].x = getOffsetX() + COLLISION_BOX_X[i];
collisionBoxes_[i].y = getOffsetY() + COLLISION_BOX_Y[i];
}
}
void ofxTextAlign::draw(string str, float x, float y, unsigned int flags)
{
const char *ptr = str.c_str();
float cursor_y = y+getOffsetY(ptr, flags, false);
int line_count = getLineCount(ptr);
float y_interval = line_count>1?(getDrawHeight(ptr, false)-getLineHeight())/(float)(line_count-1):0;
while(*ptr != '\0') {
float cursor_x = x+getOffsetX(ptr, flags, true);
ptr = drawLine(ptr, cursor_x, cursor_y);
cursor_y += y_interval;
}
}
void GuiImage::render()
{
if(mTextureID && getOpacity() > 0)
{
GLfloat points[12], texs[12];
GLubyte colors[6*4];
if(mTiled)
{
float xCount = ((float)mResizeWidth/mWidth);
float yCount = ((float)mResizeHeight/mHeight);
Renderer::buildGLColorArray(colors, 0xFFFFFF00 | (getOpacity()), 6);
buildImageArray(getOffsetX(), getOffsetY(), points, texs, xCount, yCount);
}else{
Renderer::buildGLColorArray(colors, 0xFFFFFF00 | (getOpacity()), 6);
buildImageArray(getOffsetX(), getOffsetY(), points, texs);
}
drawImageArray(points, texs, colors, 6);
}
}
string
PrecisionModel::toString() const
{
ostringstream s;
if (modelType == FLOATING) {
s<<"Floating";
} else if (modelType == FLOATING_SINGLE) {
s<<"Floating-Single";
} else if (modelType == FIXED) {
s <<"Fixed (Scale=" << getScale()
<< " OffsetX=" << getOffsetX()
<< " OffsetY=" << getOffsetY()
<< ")";
} else {
s<<"UNKNOWN";
}
return s.str();
}
/*
* AN index EQUAL TO numeric_limits<int>::min() MEANS: FIRST CHARACTER ON THE LINE
* AN index EQUAL TO numeric_limits<int>::max() MEANS: LAST CHARACTER ON THE LINE
*/
Vec2f TextBox::getLocationAt(int line, int index)
{
int start = wrapper.offsets[line];
int end = start + wrapper.lengths[line];
if (index == numeric_limits<int>::min())
{
index = start;
}
else if (index == numeric_limits<int>::max())
{
index = end;
}
float xx = x + paddingLeft + getOffsetX(start, end) + font->getSubStringAdvance(text, start, index);
float yy = y + paddingTop + getOffsetY() + line * lineHeight;
return Vec2f(xx, yy);
}
bool GlyphLayerShadowInset::render(
cairo_t* c,
cairo_glyph_t* glyph,
unsigned int width,
unsigned int height
) {
if(cairo_status(c) || !glyph) return false;
cairo_push_group(c);
cairo_glyph_path(c, glyph, 1);
cairo_clip(c);
cairo_translate(c, getOffsetX(), getOffsetY());
// cairo_set_line_join(c, CAIRO_LINE_JOIN_ROUND);
cairo_set_line_width(c, static_cast<double>(_radius) - 0.5f);
cairo_glyph_path(c, glyph, 1);
cairo_stroke(c);
cairo_pattern_t* pattern = cairo_pop_group(c);
cairo_surface_t* tmp = createBlurredSurface(CAIRO_FORMAT_A8, pattern, width, height);
cairo_set_source_surface(
c,
tmp,
-static_cast<double>(_getBlurSize()) * 2,
-static_cast<double>(_getBlurSize()) * 2
);
cairo_glyph_path(c, glyph, 1);
cairo_clip(c);
cairo_paint(c);
cairo_surface_destroy(tmp);
cairo_pattern_destroy(pattern);
return true;
}
float CameraSystem::getEndX() const
{
return _lookAtX + getOffsetX();
}
float CameraSystem::getStartX() const
{
return _lookAtX - getOffsetX();
}
/*
* This method takes in a graphics and image objects to be used into
* drawing the plane sprite onto the screen
*
* @param graphics is used for drawing the plane sprite
* @param image is the sprite sheet where the plane sprite is retrieve from
*/
void Plane::draw(Graphics* graphics, Image* image)
{
image->draw(getOffsetX(), getOffsetY(), SOURCE_SPRITE_OFFSET_X[color_][frameCounter_], SOURCE_SPRITE_OFFSET_Y[color_][frameCounter_], getSourceWidth(), getSourceHeight(), graphics);
puffCloud_.draw(graphics, image);
}
/**
* Called whenever the graphic view has changed.
* Adjusts the scrollbar ranges / steps.
*/
void QG_GraphicView::adjustOffsetControls()
{
if (scrollbars)
{
static bool running = false;
if (running) {
return;
}
running = true;
if (container==NULL || hScrollBar==NULL || vScrollBar==NULL) {
return;
}
int ox = getOffsetX();
int oy = getOffsetY();
RS_Vector min = container->getMin();
RS_Vector max = container->getMax();
// no drawing yet - still allow to scroll
if (max.x < min.x+1.0e-6 ||
max.y < min.y+1.0e-6 ||
max.x > RS_MAXDOUBLE ||
max.x < RS_MINDOUBLE ||
min.x > RS_MAXDOUBLE ||
min.x < RS_MINDOUBLE ||
max.y > RS_MAXDOUBLE ||
max.y < RS_MINDOUBLE ||
min.y > RS_MAXDOUBLE ||
min.y < RS_MINDOUBLE ) {
min = RS_Vector(-10,-10);
max = RS_Vector(100,100);
}
auto factor = getFactor();
int minVal = (int)(-getWidth()*0.75
+ std::min(min.x, 0.)*factor.x);
int maxVal = (int)(-getWidth()*0.25
+ std::max(max.x, 0.)*factor.x);
if (minVal<=maxVal) {
hScrollBar->setRange(minVal, maxVal);
}
minVal = (int)(+getHeight()*0.25
- std::max(max.y, 0.)*factor.y);
maxVal = (int)(+getHeight()*0.75
- std::min(min.y, 0.)*factor.y);
if (minVal<=maxVal) {
vScrollBar->setRange(minVal, maxVal);
}
hScrollBar->setPageStep(getWidth());
vScrollBar->setPageStep(getHeight());
hScrollBar->setValue(-ox);
vScrollBar->setValue(oy);
slotHScrolled(-ox);
slotVScrolled(oy);
// RS_DEBUG->print("H min: %d / max: %d / step: %d / value: %d\n",
// hScrollBar->minimum(), hScrollBar->maximum(),
// hScrollBar->pageStep(), ox);
// RS_DEBUG->print(/*RS_Debug::D_WARNING, */"V min: %d / max: %d / step: %d / value: %d\n",
// vScrollBar->minimum(), vScrollBar->maximum(),
// vScrollBar->pageStep(), oy);
running = false;
}
}
void Ground::draw(Graphics* graphics, Image* image)
{
image->draw(getOffsetX(), getOffsetY(), SOURCE_SPRITE_OFFSET_X[type_], SOURCE_SPRITE_OFFSET_Y[type_], getSourceWidth(), getSourceHeight(), graphics);
image->draw((getOffsetX() + GROUND_WIDTH), getOffsetY(), SOURCE_SPRITE_OFFSET_X[type_], SOURCE_SPRITE_OFFSET_Y[type_], getSourceWidth(), getSourceHeight(), graphics);
}
float wyScrollableLayer::getContainerPositionXPercent() {
return getOffsetX() / m_xExtent;
}
void Background::draw(Graphics* graphics, Image* image)
{
image->draw(getOffsetX(), getOffsetY(), SOURCE_SPRITE_OFFSET_X, SOURCE_SPRITE_OFFSET_Y, getSourceWidth(), getSourceHeight(), graphics);
}
/**
* Called whenever the graphic view has changed.
* Adjusts the scrollbar ranges / steps.
*/
void QG_GraphicView::adjustOffsetControls() {
static bool running = false;
if (running) {
return;
}
running = true;
RS_DEBUG->print("QG_GraphicView::adjustOffsetControls() begin");
if (container==NULL || hScrollBar==NULL || vScrollBar==NULL) {
return;
}
int ox = getOffsetX();
int oy = getOffsetY();
RS_Vector min = container->getMin();
RS_Vector max = container->getMax();
// no drawing yet - still allow to scroll
if (max.x < min.x+1.0e-6 ||
max.y < min.y+1.0e-6 ||
max.x > RS_MAXDOUBLE ||
max.x < RS_MINDOUBLE ||
min.x > RS_MAXDOUBLE ||
min.x < RS_MINDOUBLE ||
max.y > RS_MAXDOUBLE ||
max.y < RS_MINDOUBLE ||
min.y > RS_MAXDOUBLE ||
min.y < RS_MINDOUBLE ) {
min = RS_Vector(-10,-10);
max = RS_Vector(100,100);
}
int minVal = (int)(-ox-toGuiDX(getWidth())*0.5
- QG_SCROLLMARGIN - getBorderLeft());
int maxVal = (int)(-ox+toGuiDX(getWidth())*0.5
+ QG_SCROLLMARGIN + getBorderRight());
hScrollBar->setValue(0);
if (minVal<=maxVal) {
hScrollBar->setRange(minVal, maxVal);
}
//hScrollBar->setMinValue(minVal);
//hScrollBar->setMaxValue(maxVal);
minVal = (int)(oy-toGuiDY(getHeight())*0.5
- QG_SCROLLMARGIN - getBorderTop());
maxVal = (int)(oy+toGuiDY(getHeight())*0.5
+QG_SCROLLMARGIN + getBorderBottom());
if (minVal<=maxVal) {
vScrollBar->setRange(minVal, maxVal);
}
//vScrollBar->setMaxValue((int)(QG_SCROLLMARGIN + getBorderBottom()
// - (min.y * getFactor().y)));
//vScrollBar->setMinValue((int)(getHeight() -
// max.y * getFactor().y
// - QG_SCROLLMARGIN - getBorderTop()));
hScrollBar->setPageStep((int)(getWidth()));
vScrollBar->setPageStep((int)(getHeight()));
hScrollBar->setValue(-ox);
vScrollBar->setValue(oy);
slotHScrolled(-ox);
slotVScrolled(oy);
RS_DEBUG->print("H min: %d / max: %d / step: %d / value: %d\n",
hScrollBar->minimum(), hScrollBar->maximum(),
hScrollBar->pageStep(), ox);
// DEBUG_HEADER();
RS_DEBUG->print(/*RS_Debug::D_WARNING, */"V min: %d / max: %d / step: %d / value: %d\n",
vScrollBar->minimum(), vScrollBar->maximum(),
vScrollBar->pageStep(), oy);
RS_DEBUG->print("QG_GraphicView::adjustOffsetControls() end");
running = false;
}
int32_t LuaDrawable::getOffsetX(lua_State *L)
{
auto drawable = Lua::getObject<Drawable>(L, 1, LuaType::Drawable);
Lua::pushNumber(L, drawable->getOffsetX());
return 1;
}
