void ofxLayout::loadAnimationsFromFile(string animationsFilename){
ofxJSONElement animationData;
if(animationData.open(animationsFilename)){
populateJSON(&animationData);
am.load(animationData);
applyAnimations();
}
contextTreeRoot.setState("default",true, true);
}
void SVGTimer::notifyAll()
{
if (m_enabledNotifySet.isEmpty())
return;
// First build a list of animation elements per target element
double elapsedSeconds = m_scheduler->elapsed() * 1000.0; // Take time now.
TargetAnimationMap targetMap = animationsByElement(elapsedSeconds);
// Then composite those animations down to final values and apply
applyAnimations(elapsedSeconds, targetMap);
}
void ClawUnitActor::act(Unit *unit)
{
// here we may want to cast the unit to ClawUnit or something...
UnitType *unitType = unit->getUnitType();
assert(unitType != NULL);
VC3 oldPosition = unit->getPosition();
bool rotated = false;
bool accelerated = false;
float rotationAngle = 0.0f;
float oldYRotation = unit->getRotation().y;
UnitActAnimationRequests animRequests;
// animated units don't do normal acting...
if (unit->isAnimated())
{
if(game->gameMap->isWellInScaledBoundaries(oldPosition.x, oldPosition.z))
{
// but update obstacles...
removeUnitObstacle(unit);
addUnitObstacle(unit);
}
return;
}
if (unit->isDestroyed())
{
// a destroyed unit, don't do much...
actDestroyed(unit, &animRequests);
} else {
VC3 waypoint = unit->getWaypoint();
bool doRotation = false;
bool doMove = false;
bool doForwardMove = false;
bool doLeftMove = false;
bool doRightMove = false;
bool doBackMove = false;
bool doLeftRotation = false;
bool doRightRotation = false;
bool doFire = false;
if (unit->getWalkDelay() > 0)
{
unit->setWalkDelay(unit->getWalkDelay() - 1);
// player cannot move yet...
// (probably fired a heavy weapon a moment ago)
//actNotYetAllowedToWalk(unit, &animRequests);
// HACK: ..
unit->setVelocity(VC3(0,0,0));
animRequests.setSpecialAnim = ANIM_STAND_TYPE1;
} else {
if (unit->isDirectControl())
{
// the unit is directly controlled by the player...
actDirectClawControls(unit);
} else {
// the unit is not directly controlled by the player,
// thus we need to use the AI to decide walking and turning...
decideTurnAndWalk(unit, &doMove, &doRotation, &rotationAngle);
actTurn(unit, &animRequests, doRotation, rotationAngle, doMove,
&rotated);
actWalk(unit, &animRequests, doMove, doForwardMove, doBackMove,
doLeftMove, doRightMove, rotated, &accelerated);
}
}
// target destroyed?
/*
if (unit->targeting.hasTarget())
{
if (unit->targeting.getTargetUnit() != NULL
&& unit->targeting.getTargetUnit()->isDestroyed())
{
unit->targeting.clearTarget();
game->gameUI->setPointersChangedFlag(unit->getOwner());
}
}
*/
//actTargeting(unit, &animRequests, doFire, rotated, doMove,
// doForwardMove, doBackMove, doLeftMove, doRightMove);
//actWeaponry(unit, &animRequests, doFire, doMove);
actMisc(unit, &animRequests);
}
if (!unit->isDestroyed()
|| (unit->getDisappearCounter() < (SimpleOptions::getInt(DH_OPT_I_CORPSE_DISAPPEAR_TIME) * 1000) / GAME_TICK_MSEC - UNIT_DISAPPEAR_FADE_TICKS)
|| SimpleOptions::getInt(DH_OPT_I_CORPSE_DISAPPEAR_TIME) == 0)
{
// change position based on velocity
actVelocity(unit, &animRequests, oldPosition);
actGravity(unit, &animRequests);
actHover(unit, &animRequests, accelerated);
VC3 position = unit->getPosition();
bool onground = false;
float mapY = game->gameMap->getScaledHeightAt(position.x, position.z);
if ((unitType->isSticky() && unit->isOnGround())
|| position.y <= mapY + 0.001f)
{
onground = true;
}
if (onground)
{
actOnGround(unit, &animRequests);
} else {
actAirborne(unit, &animRequests, accelerated);
}
}
actDelayedProjectiles(unit);
/*
VC3 curPosition = unit->getPosition();
if (game->gameMap->isWellInScaledBoundaries(oldPosition.x, oldPosition.z)
&& game->gameMap->isWellInScaledBoundaries(curPosition.x, curPosition.z))
{
actCollisions(unit, &animRequests, oldPosition);
}
*/
//actEffects(unit);
/*
float newYRotation = unit->getRotation().y;
if (unit->getIdString() != NULL
&& strcmp(unit->getIdString(), "player1") == 0)
{
static int fooRight = 0;
static int fooLeft = 0;
if (newYRotation > oldYRotation + 1.0f
|| newYRotation < oldYRotation - 180.0f)
{
//animRequests.turnRight = true;
if (fooRight < 16)
fooRight += 2;
} else {
if (fooRight > 0)
fooRight--;
}
if (newYRotation < oldYRotation - 1.0f
|| newYRotation > oldYRotation + 180.0f)
{
//animRequests.turnLeft = true;
if (fooLeft < 16)
fooLeft += 2;
} else {
if (fooLeft > 0)
fooLeft--;
}
if (fooRight > 14)
animRequests.turnRight = true;
if (fooLeft > 14)
animRequests.turnLeft = true;
}
*/
// finally set animation based on what we did...
if (!unit->isDirectControl())
{
applyAnimations(unit, animRequests);
}
}
bool Charts::Chart::update(void)
{
preUpdate();
const glm::float_t width = this->size.width;
const glm::float_t height = this->size.height;
if (!TR_VERIFY(width > 0.0 && height > 0.0)) {
return false;
}
bool changed = false;
if (title) {
changed = changed || title->versionChanged();
}
Margin internalMargin;
for (auto axis : axisList) {
addAxisInternalMargin(internalMargin, axis);
}
renderArgs.margin = Margin::add(margin, internalMargin);
if (renderArgs.screenSize.x != width || renderArgs.screenSize.y != height) {
if(!doRelayout) {
const glm::vec2 marginProjection(renderArgs.margin.left + renderArgs.margin.right, renderArgs.margin.top + renderArgs.margin.bottom);
const glm::vec2 newSize(width - marginProjection.x, height - marginProjection.y);
if (resizeMode == ResizeMode::Rescale) {
if (renderArgs.screenSize.x > 0.0 && renderArgs.screenSize.y > 0.0) {
const glm::vec2 oldSize(renderArgs.screenSize.x - marginProjection.x, renderArgs.screenSize.y - marginProjection.y);
scale *= (newSize / oldSize);
} else {
offset = glm::vec2(0.f);
scale = newSize;
}
} else if (resizeMode == ResizeMode::Relayout) {
offset = glm::vec2(0.f);
scale = newSize;
}
}
renderArgs.screenSize = glm::vec2(width, height);
renderArgs.contentScaleFactor = contentScaleFactor;
renderArgs.projection = glm::ortho(0.f, renderArgs.screenSize.x, 0.f, renderArgs.screenSize.y, -1000.f, +1000.f);
}
if (glm::float_t(contentScaleFactor) != renderArgs.contentScaleFactor) {
renderArgs.contentScaleFactor = contentScaleFactor;
}
renderArgs.areaStart = glm::vec2(renderArgs.margin.left, renderArgs.margin.bottom);
renderArgs.areaSize = renderArgs.screenSize - glm::vec2(renderArgs.margin.left + renderArgs.margin.right, renderArgs.margin.top + renderArgs.margin.bottom);
if (doRelayout) {
offset = glm::dvec2(0.f);
scale = renderArgs.areaSize;
doRelayout = false;
} else {
applyAnimations();
applyConstraints();
}
// must check this AFTER applying animations and constraints
changed = changed || versionChanged();
renderArgs.offset = offset;
renderArgs.scale = scale;
renderArgs.clearColor = Utils::colorToVec4(backgroundColor);
for (auto axis : axisList) {
//if (axis->isEnabled()) {
changed |= axis->update(renderArgs);
//}
}
for (auto series : seriesList) {
//if (series->isEnabled()) {
changed |= series->update(renderArgs);
//}
}
for (auto decoration : decorationList) {
//if (decoration->isEnabled()) {
changed |= decoration->update(renderArgs);
//}
}
if (!preRendered) {
// we mark the chart as changed if it has not been pre-rendered, the purpose of the update changed value is
// conditional rendering and if we update twice before calling render we will still need to render again.
changed = true;
}
if(changed) {
preRendered = false;
}
preUpdated = false;
markVersion();
if (title) {
title->markVersion();
}
updated = true;
return changed;
}