void ccClipBox::setBox(const ccBBox& box)
{
m_box = box;
update();
//send 'modified' signal
emit boxModified(&m_box);
}
void ccClipBox::shift(const CCVector3& v)
{
m_box.minCorner() += v;
m_box.maxCorner() += v;
update();
//send 'modified' signal
emit boxModified(&m_box);
}
void ccClipBox::set(const ccBBox& extents, const ccGLMatrix& transformation)
{
m_box = extents;
setGLTransformation(transformation);
update();
//send 'modified' signal
emit boxModified(&m_box);
}
void ccClipBox::reset()
{
m_box.clear();
resetGLTransformation();
if (m_associatedEntity)
{
m_box = m_associatedEntity->getOwnBB();
}
update();
//send 'modified' signal
emit boxModified(&m_box);
}
void ccClipBox::reset()
{
m_box.clear();
resetGLTransformation();
if (m_entityContainer.getChildrenNumber())
{
m_box = m_entityContainer.getBB_recursive();
}
update();
//send 'modified' signal
emit boxModified(&m_box);
}
bool ccClipBox::move3D(const CCVector3d& uInput)
{
if (m_activeComponent == NONE || !m_box.isValid())
return false;
CCVector3d u = uInput;
//Arrows
if (m_activeComponent >= X_MINUS_ARROW && m_activeComponent <= CROSS)
{
if (m_glTransEnabled)
m_glTrans.inverse().applyRotation(u);
switch(m_activeComponent)
{
case X_MINUS_ARROW:
m_box.minCorner().x += static_cast<PointCoordinateType>(u.x);
if (m_box.minCorner().x > m_box.maxCorner().x)
m_box.minCorner().x = m_box.maxCorner().x;
break;
case X_PLUS_ARROW:
m_box.maxCorner().x += static_cast<PointCoordinateType>(u.x);
if (m_box.minCorner().x > m_box.maxCorner().x)
m_box.maxCorner().x = m_box.minCorner().x;
break;
case Y_MINUS_ARROW:
m_box.minCorner().y += static_cast<PointCoordinateType>(u.y);
if (m_box.minCorner().y > m_box.maxCorner().y)
m_box.minCorner().y = m_box.maxCorner().y;
break;
case Y_PLUS_ARROW:
m_box.maxCorner().y += static_cast<PointCoordinateType>(u.y);
if (m_box.minCorner().y > m_box.maxCorner().y)
m_box.maxCorner().y = m_box.minCorner().y;
break;
case Z_MINUS_ARROW:
m_box.minCorner().z += static_cast<PointCoordinateType>(u.z);
if (m_box.minCorner().z > m_box.maxCorner().z)
m_box.minCorner().z = m_box.maxCorner().z;
break;
case Z_PLUS_ARROW:
m_box.maxCorner().z += static_cast<PointCoordinateType>(u.z);
if (m_box.minCorner().z > m_box.maxCorner().z)
m_box.maxCorner().z = m_box.minCorner().z;
break;
case CROSS:
m_box += CCVector3::fromArray(u.u);
break;
default:
assert(false);
return false;
}
//send 'modified' signal
emit boxModified(&m_box);
}
else if (m_activeComponent == SPHERE)
{
//handled by move2D!
return false;
}
else if (m_activeComponent >= X_MINUS_TORUS && m_activeComponent <= Z_PLUS_TORUS)
{
//we guess the rotation order by comparing the current screen 'normal'
//and the vector prod of u and the current rotation axis
CCVector3d Rb(0,0,0);
switch(m_activeComponent)
{
case X_MINUS_TORUS:
Rb.x = -1;
break;
case X_PLUS_TORUS:
Rb.x = 1;
break;
case Y_MINUS_TORUS:
Rb.y = -1;
break;
case Y_PLUS_TORUS:
Rb.y = 1;
break;
case Z_MINUS_TORUS:
Rb.z = -1;
break;
case Z_PLUS_TORUS:
Rb.z = 1;
break;
default:
assert(false);
return false;
}
CCVector3d R = Rb;
if (m_glTransEnabled)
m_glTrans.applyRotation(R);
CCVector3d RxU = R.cross(u);
//look for the most parallel dimension
int minDim = 0;
double maxDot = m_viewMatrix.getColumnAsVec3D(0).dot(RxU);
for (int i=1; i<3; ++i)
{
double dot = m_viewMatrix.getColumnAsVec3D(i).dot(RxU);
if (fabs(dot) > fabs(maxDot))
{
maxDot = dot;
minDim = i;
}
}
//angle is proportional to absolute displacement
double angle_rad = u.norm()/m_box.getDiagNorm() * M_PI;
if (maxDot < 0.0)
angle_rad = -angle_rad;
ccGLMatrixd rotMat;
rotMat.initFromParameters(angle_rad,Rb,CCVector3d(0,0,0));
CCVector3 C = m_box.getCenter();
ccGLMatrixd transMat;
transMat.setTranslation(-C);
transMat = rotMat * transMat;
transMat.setTranslation(transMat.getTranslationAsVec3D() + CCVector3d::fromArray(C.u));
m_glTrans = m_glTrans * ccGLMatrix(transMat.inverse().data());
enableGLTransformation(true);
}
else
{
assert(false);
return false;
}
update();
return true;
}