namespace Dali
{
-
namespace Toolkit
{
-
namespace Internal
{
-
-CubeTransitionWaveEffect::CubeTransitionWaveEffect( unsigned int numRows, unsigned int numColumns )
-: CubeTransitionEffect( numRows, numColumns ),
- mSaddleAA( 1.f ),
- mSaddleBB( 1.f ),
- mSaddleB( 1.f )
+CubeTransitionWaveEffect::CubeTransitionWaveEffect(unsigned int numRows, unsigned int numColumns)
+: CubeTransitionEffect(numRows, numColumns),
+ mSaddleAA(1.f),
+ mSaddleBB(1.f),
+ mSaddleB(1.f)
{
}
-Toolkit::CubeTransitionWaveEffect CubeTransitionWaveEffect::New(unsigned int numRows, unsigned int numColumns )
+Toolkit::CubeTransitionWaveEffect CubeTransitionWaveEffect::New(unsigned int numRows, unsigned int numColumns)
{
// Create the implementation
- IntrusivePtr< CubeTransitionWaveEffect > internalCubeTransEffect = new CubeTransitionWaveEffect( numRows, numColumns );
+ IntrusivePtr<CubeTransitionWaveEffect> internalCubeTransEffect = new CubeTransitionWaveEffect(numRows, numColumns);
// Pass ownership to CustomActor handle
- Toolkit::CubeTransitionWaveEffect cubeTransEffect( *internalCubeTransEffect );
+ Toolkit::CubeTransitionWaveEffect cubeTransEffect(*internalCubeTransEffect);
//Initialization
internalCubeTransEffect->Initialize();
void CubeTransitionWaveEffect::OnInitialize()
{
- for( unsigned int idx = 0; idx < mTargetTiles.size(); idx++ )
+ for(unsigned int idx = 0; idx < mTargetTiles.size(); idx++)
{
- SetTargetRight( idx );
+ SetTargetRight(idx);
}
}
-void CubeTransitionWaveEffect::OnStartTransition( Vector2 panPosition, Vector2 panDisplacement )
+void CubeTransitionWaveEffect::OnStartTransition(Vector2 panPosition, Vector2 panDisplacement)
{
bool forward = panDisplacement.x < 0.0;
- CalculateSaddleSurfaceParameters( panPosition, forward ? panDisplacement : -panDisplacement );
+ CalculateSaddleSurfaceParameters(panPosition, forward ? panDisplacement : -panDisplacement);
float angle = Math::PI_2;
unsigned int idx;
- if( forward )
+ if(forward)
{
- for( idx = 0; idx < mTargetTiles.size(); idx++ )
+ for(idx = 0; idx < mTargetTiles.size(); idx++)
{
- SetTargetRight( idx );
+ SetTargetRight(idx);
}
}
else
{
angle = -angle;
- for( idx = 0; idx < mTargetTiles.size(); idx++ )
+ for(idx = 0; idx < mTargetTiles.size(); idx++)
{
- SetTargetLeft( idx );
+ SetTargetLeft(idx);
}
}
float thirdAnimationDuration = mAnimationDuration / 3.f;
- for( unsigned int y = 0; y < mRows; y++ )
+ for(unsigned int y = 0; y < mRows; y++)
{
idx = y * mColumns;
- for( unsigned int x = 0; x < mColumns; x++, idx++)
+ for(unsigned int x = 0; x < mColumns; x++, idx++)
{
// the delay value is within 0.f ~ 2.f*thirdAnimationDuration
- float delay = thirdAnimationDuration * CalculateDelay( x * mTileSize.width, y * mTileSize.height, forward );
+ float delay = thirdAnimationDuration * CalculateDelay(x * mTileSize.width, y * mTileSize.height, forward);
- mAnimation.AnimateTo( Property( mBoxes[ idx ], Actor::Property::ORIENTATION ), Quaternion( Radian( -angle ), Vector3::YAXIS ),
- AlphaFunction::EASE_OUT_SINE, TimePeriod( delay, thirdAnimationDuration ) );
- mAnimation.AnimateBy( Property( mBoxes[idx], Actor::Property::POSITION ), Vector3( 0.f, 0.f, -mCubeDisplacement ),
- AlphaFunction::BOUNCE, TimePeriod( delay, thirdAnimationDuration ) );
+ mAnimation.AnimateTo(Property(mBoxes[idx], Actor::Property::ORIENTATION), Quaternion(Radian(-angle), Vector3::YAXIS), AlphaFunction::EASE_OUT_SINE, TimePeriod(delay, thirdAnimationDuration));
+ mAnimation.AnimateBy(Property(mBoxes[idx], Actor::Property::POSITION), Vector3(0.f, 0.f, -mCubeDisplacement), AlphaFunction::BOUNCE, TimePeriod(delay, thirdAnimationDuration));
- mAnimation.AnimateTo( Property( mCurrentTiles[ idx ], Actor::Property::COLOR ), HALF_BRIGHTNESS,
- AlphaFunction::EASE_OUT, TimePeriod( delay, thirdAnimationDuration ) );
- mAnimation.AnimateTo( Property( mTargetTiles[ idx ], Actor::Property::COLOR ), FULL_BRIGHTNESS,
- AlphaFunction::EASE_IN, TimePeriod( delay, thirdAnimationDuration ) );
+ mAnimation.AnimateTo(Property(mCurrentTiles[idx], Actor::Property::COLOR), HALF_BRIGHTNESS, AlphaFunction::EASE_OUT, TimePeriod(delay, thirdAnimationDuration));
+ mAnimation.AnimateTo(Property(mTargetTiles[idx], Actor::Property::COLOR), FULL_BRIGHTNESS, AlphaFunction::EASE_IN, TimePeriod(delay, thirdAnimationDuration));
}
}
mIsAnimating = true;
}
-void CubeTransitionWaveEffect::CalculateSaddleSurfaceParameters( Vector2 position, Vector2 displacement )
+void CubeTransitionWaveEffect::CalculateSaddleSurfaceParameters(Vector2 position, Vector2 displacement)
{
- const Vector2 size = Self().GetCurrentProperty< Vector3 >( Actor::Property::SIZE ).GetVectorXY();
+ const Vector2 size = Self().GetCurrentProperty<Vector3>(Actor::Property::SIZE).GetVectorXY();
// the line passes through 'position' and has the direction of 'displacement'
float coefA, coefB, coefC; //line equation: Ax+By+C=0;
coefA = displacement.y;
coefB = -displacement.x;
- coefC = -displacement.y*position.x + displacement.x*position.y;
+ coefC = -displacement.y * position.x + displacement.x * position.y;
- float inversedAABB = 1.f / (coefA*coefA+coefB*coefB);
+ float inversedAABB = 1.f / (coefA * coefA + coefB * coefB);
float inversedSqrtAABB = sqrtf(inversedAABB);
float saddleA;
if(displacement.y > 0)
{
//distance from (0,0) to the line
- float distanceTopLeft = fabsf(coefC) * inversedSqrtAABB;
+ float distanceTopLeft = fabsf(coefC) * inversedSqrtAABB;
//distance from (viewAreaSize.x, viewAreaSize.y) to the line
- float distanceBottomRight = fabsf(coefA*size.x+coefB*size.y+coefC) * inversedSqrtAABB;
- saddleA = std::max( distanceTopLeft, distanceBottomRight );
+ float distanceBottomRight = fabsf(coefA * size.x + coefB * size.y + coefC) * inversedSqrtAABB;
+ saddleA = std::max(distanceTopLeft, distanceBottomRight);
//foot of a perpendicular: (viewAreaSize.x,0) to the line
- float footX1 = ( coefB*coefB*size.x - coefA*coefC) * inversedAABB;
- float footY1 = (-coefA*coefB*size.x - coefB*coefC) * inversedAABB;
+ float footX1 = (coefB * coefB * size.x - coefA * coefC) * inversedAABB;
+ float footY1 = (-coefA * coefB * size.x - coefB * coefC) * inversedAABB;
//foot of a perpendicular: (0,viewAreaSize.y) to the line
- float footX2 = (-coefA*coefB*size.y - coefA*coefC) * inversedAABB;
- float footY2 = ( coefA*coefA*size.y - coefB*coefC) * inversedAABB;
- mSaddleBB = (footX1-footX2)*(footX1-footX2) + (footY1-footY2)*(footY1-footY2);
- mTranslation = Vector2(-footX2,-footY2);
+ float footX2 = (-coefA * coefB * size.y - coefA * coefC) * inversedAABB;
+ float footY2 = (coefA * coefA * size.y - coefB * coefC) * inversedAABB;
+ mSaddleBB = (footX1 - footX2) * (footX1 - footX2) + (footY1 - footY2) * (footY1 - footY2);
+ mTranslation = Vector2(-footX2, -footY2);
}
else
{
//distance from(viewAreaSize.x,0) to the line
- float distanceTopRight = fabsf(coefA*size.x+coefC) * inversedSqrtAABB;
+ float distanceTopRight = fabsf(coefA * size.x + coefC) * inversedSqrtAABB;
//distance from(0,viewAreaSize.y) to the line
- float distanceBottomLeft = fabsf(coefB*size.y+coefC) * inversedSqrtAABB;
- saddleA = std::max( distanceTopRight, distanceBottomLeft );
+ float distanceBottomLeft = fabsf(coefB * size.y + coefC) * inversedSqrtAABB;
+ saddleA = std::max(distanceTopRight, distanceBottomLeft);
//foot of a perpendicular: (0,0) to the line
- float footX3 = (-coefA*coefC) * inversedAABB;
- float footY3 = (-coefB*coefC) * inversedAABB;
+ float footX3 = (-coefA * coefC) * inversedAABB;
+ float footY3 = (-coefB * coefC) * inversedAABB;
//foot of a perpendicular: (viewAreaSize.x,viewAreaSize.y) to the line
- float footX4 = ( coefB*coefB*size.x - coefA*coefB*size.y - coefA*coefC) * inversedAABB;
- float footY4 = (-coefA*coefB*size.x + coefA*coefA*size.y - coefB*coefC) * inversedAABB;
- mSaddleBB = (footX3-footX4)*(footX3-footX4) + (footY3-footY4)*(footY3-footY4);
+ float footX4 = (coefB * coefB * size.x - coefA * coefB * size.y - coefA * coefC) * inversedAABB;
+ float footY4 = (-coefA * coefB * size.x + coefA * coefA * size.y - coefB * coefC) * inversedAABB;
+ mSaddleBB = (footX3 - footX4) * (footX3 - footX4) + (footY3 - footY4) * (footY3 - footY4);
mTranslation = Vector2(-footX3, -footY3);
}
}
else if(mSaddleB < saddleA)
{
- mSaddleB = saddleA;
- mSaddleBB = mSaddleB*mSaddleB;
+ mSaddleB = saddleA;
+ mSaddleBB = mSaddleB * mSaddleB;
}
- mSaddleAA = saddleA*saddleA;
+ mSaddleAA = saddleA * saddleA;
mRotation = Vector2(-displacement.x, displacement.y);
mRotation.Normalize();
}
-float CubeTransitionWaveEffect::CalculateDelay( float x, float y, bool forward )
+float CubeTransitionWaveEffect::CalculateDelay(float x, float y, bool forward)
{
- float tx = x + mTranslation.x;
- float ty = y + mTranslation.y;
+ float tx = x + mTranslation.x;
+ float ty = y + mTranslation.y;
float valueX = mRotation.x * tx - mRotation.y * ty;
float valueY = mRotation.y * tx + mRotation.x * ty;
- if( !forward ) // to previous image
+ if(!forward) // to previous image
{
valueX = mSaddleB - valueX;
}
//the return value is a float number between 0.f and 2.f
- return (1.f + valueY*valueY / mSaddleAA - valueX*valueX / mSaddleBB);
+ return (1.f + valueY * valueY / mSaddleAA - valueX * valueX / mSaddleBB);
}
} // namespace Internal
projects / platform / core / uifw / dali-toolkit.git / blobdiff