//===========================================
// Entity::setShape
//===========================================
void Entity::setShape(std::unique_ptr<Shape> shape) {
Range bounds = m_boundary;
Shape* oldShape = m_shape ? dynamic_cast<Shape*>(m_shape->clone()) : NULL;
float32_t oldRot_abs = getRotation_abs();
m_shape = std::move(shape);
if (m_shape) {
m_shape->rotate(m_rot);
m_shape->scale(m_scale);
m_shape->setLineWidth(m_lineWidth);
m_shape->setFillColour(m_fillColour);
m_shape->setLineColour(m_lineColour);
}
recomputeBoundary();
if (!m_silent) {
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
EEvent* event2 = new EEntityShape(shared_from_this(), pShape_t(oldShape), oldRot_abs, pShape_t(dynamic_cast<Shape*>(m_shape->clone())), getRotation_abs());
onEvent(event1);
onEvent(event2);
m_eventManager.queueEvent(event1);
m_eventManager.queueEvent(event2);
}
}
//===========================================
// Entity::onParentTransformation
//===========================================
void Entity::onParentTransformation(float32_t a, const Vec2f& s) {
Range bounds = m_boundary;
recomputeBoundary();
float32_t x = m_transl.x * cos(DEG_TO_RAD(a))
- m_transl.y * sin(DEG_TO_RAD(a));
float32_t y = m_transl.x * sin(DEG_TO_RAD(a))
+ m_transl.y * cos(DEG_TO_RAD(a));
Vec2f oldTransl(x, y);
Vec2f oldTransl_abs = s + oldTransl;
float32_t oldRot_abs = a + m_rot;
if (!m_silent) {
float32_t rot_abs = getRotation_abs();
Vec2f transl_abs = getTranslation_abs();
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
EEvent* event2 = new EEntityRotation(shared_from_this(), m_rot, oldRot_abs, m_rot, rot_abs);
EEvent* event3 = new EEntityTranslation(shared_from_this(), m_transl, oldTransl_abs, m_transl, transl_abs);
onEvent(event1);
onEvent(event2);
onEvent(event3);
m_eventManager.queueEvent(event1);
m_eventManager.queueEvent(event2);
m_eventManager.queueEvent(event3);
}
for (set<pEntity_t>::iterator i = m_children.begin(); i != m_children.end(); ++i)
(*i)->onParentTransformation(oldRot_abs, oldTransl_abs);
}
//===========================================
// Entity::translate
//===========================================
void Entity::translate(float32_t x, float32_t y) {
Range bounds = m_boundary;
float32_t oldRot = getRotation_abs();
Vec2f oldTransl = getTranslation_abs();
m_transl = m_transl + Vec2f(x, y);
recomputeBoundary();
if (!m_silent) {
Vec2f t = getTranslation_abs();
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
EEvent* event2 = new EEntityTranslation(shared_from_this(), m_transl - Vec2f(x, y), oldTransl, m_transl, t);
onEvent(event1);
onEvent(event2);
m_eventManager.queueEvent(event1);
m_eventManager.queueEvent(event2);
}
for (set<pEntity_t>::iterator i = m_children.begin(); i != m_children.end(); ++i)
(*i)->onParentTransformation(oldRot, oldTransl);
}
void
NIVissimConnectionCluster::removeConnections(const NodeSubCluster& c) {
for (NodeSubCluster::ConnectionCont::const_iterator i = c.myConnections.begin(); i != c.myConnections.end(); i++) {
NIVissimConnection* conn = *i;
int connid = conn->getID();
std::vector<int>::iterator j = find(myConnections.begin(), myConnections.end(), connid);
if (j != myConnections.end()) {
myConnections.erase(j);
}
}
recomputeBoundary();
}
//===========================================
// Entity::rotate
//
// Pivot is in model space
//===========================================
void Entity::rotate(float32_t deg, const Vec2f& pivot) {
float32_t oldRot = m_rot;
float32_t oldRot_abs = getRotation_abs();
Vec2f oldTransl = m_transl;
Vec2f oldTransl_abs = getTranslation_abs();
// - Find model's origin (bottom-left corner) in parent's model space (o)
// - This is just m_transl (despite any prior rotations)
// - Find pivot in parent's model space (p)
// - p = (pivot rotated by m_rot) + o
// - Compute value of o rotated about p by deg degrees
// - Set m_transl to o
// - Add deg to m_rot
// Pivot in parent's model space (or world space if this is root)
float32_t px = pivot.x * cos(DEG_TO_RAD(m_rot)) - pivot.y * sin(DEG_TO_RAD(m_rot));
float32_t py = pivot.x * sin(DEG_TO_RAD(m_rot)) + pivot.y * cos(DEG_TO_RAD(m_rot));
Vec2f p(px + m_transl.x, py + m_transl.y);
// Rotate bottom-left corner around pivot
Vec2f o = m_transl - p;
o.x = o.x * cos(DEG_TO_RAD(deg)) - o.y * sin(DEG_TO_RAD(deg));
o.y = o.x * sin(DEG_TO_RAD(deg)) + o.y * cos(DEG_TO_RAD(deg));
m_transl.x = p.x + o.x;
m_transl.y = p.y + o.y;
m_rot += deg;
rotateShapes_r(deg);
Range bounds = m_boundary;
recomputeBoundary();
Vec2f ds = m_transl - oldTransl;
if (!m_silent) {
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
EEvent* event2 = new EEntityRotation(shared_from_this(), oldRot, oldRot_abs, m_rot, getRotation_abs());
EEvent* event3 = new EEntityTranslation(shared_from_this(), oldTransl, oldTransl_abs, m_transl, oldTransl_abs + ds);
onEvent(event1);
onEvent(event2);
onEvent(event3);
m_eventManager.queueEvent(event1);
m_eventManager.queueEvent(event2);
m_eventManager.queueEvent(event3);
}
for (set<pEntity_t>::iterator i = m_children.begin(); i != m_children.end(); ++i)
(*i)->onParentTransformation(oldRot_abs, oldTransl_abs);
}
NIVissimConnectionCluster::NIVissimConnectionCluster(
const std::vector<int>& connections, const Boundary& boundary,
int nodeCluster, const std::vector<int>& edges)
: myConnections(connections), myBoundary(boundary),
myNodeCluster(nodeCluster), myEdges(edges) {
myClusters.push_back(this);
recomputeBoundary();
assert(myBoundary.xmax() >= myBoundary.xmin());
// add information about incoming and outgoing edges
for (std::vector<int>::const_iterator i = connections.begin(); i != connections.end(); i++) {
NIVissimConnection* c = NIVissimConnection::dictionary(*i);
assert(c != 0);
myOutgoingEdges.push_back(c->getToEdgeID());
myIncomingEdges.push_back(c->getFromEdgeID());
assert(find(edges.begin(), edges.end(), c->getFromEdgeID()) != edges.end()
||
find(edges.begin(), edges.end(), c->getToEdgeID()) != edges.end());
}
VectorHelper<int>::removeDouble(myIncomingEdges);
VectorHelper<int>::removeDouble(myOutgoingEdges);
}
// ---------------------------------------------------------------------------
// NIVissimConnectionCluster - methods
// ---------------------------------------------------------------------------
NIVissimConnectionCluster::NIVissimConnectionCluster(
const std::vector<int>& connections, int nodeCluster, int edgeid)
: myConnections(connections), myNodeCluster(nodeCluster),
myBlaID(myStaticBlaID++) {
recomputeBoundary();
myClusters.push_back(this);
assert(edgeid > 0);
if (edgeid >= 0) {
myEdges.push_back(edgeid);
}
// add information about incoming and outgoing edges
for (std::vector<int>::const_iterator i = connections.begin(); i != connections.end(); i++) {
NIVissimConnection* c = NIVissimConnection::dictionary(*i);
assert(c != 0);
myOutgoingEdges.push_back(c->getToEdgeID());
myIncomingEdges.push_back(c->getFromEdgeID());
assert(c->getFromEdgeID() == edgeid || c->getToEdgeID() == edgeid);
}
VectorHelper<int>::removeDouble(myIncomingEdges);
VectorHelper<int>::removeDouble(myOutgoingEdges);
}
//===========================================
// Entity::scale
//===========================================
void Entity::scale(float32_t x, float32_t y) {
Range bounds = m_boundary;
pShape_t oldShape = m_shape ? pShape_t(dynamic_cast<Shape*>(m_shape->clone())) : pShape_t();
float32_t oldRot_abs = getRotation_abs();
if (m_shape) m_shape->scale(Vec2f(x, y));
m_scale.x *= x;
m_scale.y *= y;
recomputeBoundary();
if (!m_silent) {
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
EEvent* event2 = new EEntityShape(shared_from_this(), oldShape, oldRot_abs,
pShape_t(m_shape ? dynamic_cast<Shape*>(m_shape->clone()) : NULL), getRotation_abs());
onEvent(event1);
onEvent(event2);
m_eventManager.queueEvent(event1);
m_eventManager.queueEvent(event2);
}
}
//===========================================
// Entity::setParent
//===========================================
void Entity::setParent(Entity* parent) {
Entity* oldParent = m_parent;
if (m_parent) m_parent->removeChild(shared_from_this());
m_parent = parent;
m_parent->m_children.insert(shared_from_this());
rotateShapes_r(m_parent->getRotation_abs());
onParentTransformation(oldParent ? oldParent->getRotation_abs() : 0.f,
oldParent ? oldParent->getTranslation_abs() : Vec2f(0.f, 0.f));
Range bounds = m_boundary;
recomputeBoundary();
if (!m_silent) {
EEvent* event1 = new EEntityBoundingBox(shared_from_this(), bounds, m_boundary);
onEvent(event1);
m_eventManager.queueEvent(event1);
}
}
//===========================================
// Entity::Entity
//===========================================
Entity::Entity(const XmlNode data)
: Asset(internString("Entity")),
m_silent(false),
m_parent(NULL) {
AssetManager assetManager;
ShapeFactory shapeFactory;
try {
setSilent(true);
XML_NODE_CHECK(data, Entity);
XmlAttribute attr = data.firstAttribute();
XML_ATTR_CHECK(attr, type);
m_type = internString(attr.getString());
attr = attr.nextAttribute();
XML_ATTR_CHECK(attr, name);
m_name = internString(attr.getString());
attr = attr.nextAttribute();
XML_ATTR_CHECK(attr, x);
m_transl.x = attr.getFloat();
attr = attr.nextAttribute();
XML_ATTR_CHECK(attr, y);
m_transl.y = attr.getFloat();
attr = attr.nextAttribute();
XML_ATTR_CHECK(attr, z);
m_z = attr.getFloat();
// So that no Z values are 'exactly' equal
m_z += 0.1f * static_cast<float32_t>(rand()) / static_cast<float32_t>(RAND_MAX);
attr = attr.nextAttribute();
XML_ATTR_CHECK(attr, rot);
float32_t rot = attr.getFloat();
XmlNode node = data.firstChild();
if (!node.isNull() && node.name() == "shape") {
m_shape = unique_ptr<Shape>(shapeFactory.create(node.firstChild()));
node = node.nextSibling();
}
m_rot = 0;
setRotation(rot);
XML_NODE_CHECK(node, scale);
m_scale = Vec2f(1.f, 1.f);
setScale(Vec2f(node.firstChild()));
node = node.nextSibling();
XML_NODE_CHECK(node, fillColour);
m_fillColour = Colour(node.firstChild());
node = node.nextSibling();
XML_NODE_CHECK(node, lineColour);
m_lineColour = Colour(node.firstChild());
node = node.nextSibling();
XML_NODE_CHECK(node, lineWidth);
m_lineWidth = node.getInt();
node = node.nextSibling();
XML_NODE_CHECK(node, children);
XmlNode node_ = node.firstChild();
while (!node_.isNull() && node_.name() == "child") {
XmlAttribute attr = node_.firstAttribute();
if (!attr.isNull() && attr.name() == "ptr") {
long id = attr.getLong();
pEntity_t child = boost::dynamic_pointer_cast<Entity>(assetManager.getAssetPointer(id));
if (!child)
throw XmlException("Bad entity asset id", __FILE__, __LINE__);
addChild(child);
}
node_ = node_.nextSibling();
}
setSilent(false);
++m_count;
}
catch (XmlException& e) {
e.prepend("Error parsing XML for instance of class Entity; ");
throw;
}
recomputeBoundary();
}
//===========================================
// Entity::assignData
//===========================================
void Entity::assignData(const XmlNode data) {
if (data.isNull() || data.name() != "Entity") return;
AssetManager assetManager;
ShapeFactory shapeFactory;
try {
bool silent = isSilent();
setSilent(true);
XmlAttribute attr = data.firstAttribute();
if (!attr.isNull() && attr.name() == "type") {
m_type = internString(attr.getString());
attr = attr.nextAttribute();
}
if (!attr.isNull() && attr.name() == "name") {
m_name = internString(attr.getString());
attr = attr.nextAttribute();
}
Vec2f transl = m_transl;
if (!attr.isNull() && attr.name() == "x") {
transl.x = attr.getFloat();
attr = attr.nextAttribute();
}
if (!attr.isNull() && attr.name() == "y") {
transl.y = attr.getFloat();
attr = attr.nextAttribute();
}
setTranslation(transl);
if (!attr.isNull() && attr.name() == "z") {
m_z = attr.getFloat();
// So that no Z values are 'exactly' equal
m_z += 0.1f * static_cast<float32_t>(rand()) / static_cast<float32_t>(RAND_MAX);
attr = attr.nextAttribute();
}
XmlNode node = data.firstChild();
if (!node.isNull() && node.name() == "shape") {
m_shape = unique_ptr<Shape>(shapeFactory.create(node.firstChild()));
node = node.nextSibling();
}
if (!node.isNull() && node.name() == "scale") {
setScale(Vec2f(node.firstChild()));
node = node.nextSibling();
}
if (!attr.isNull() && attr.name() == "rot") {
setRotation(attr.getFloat());
}
if (!node.isNull() && node.name() == "fillColour") {
m_fillColour = Colour(node.firstChild());
node = node.nextSibling();
}
if (!node.isNull() && node.name() == "lineColour") {
m_lineColour = Colour(node.firstChild());
node = node.nextSibling();
}
if (!node.isNull() && node.name() == "lineWidth") {
m_lineWidth = node.getInt();
node = node.nextSibling();
}
if (!node.isNull() && node.name() == "children") {
XmlNode node_ = node.firstChild();
while (!node_.isNull() && node_.name() == "child") {
XmlAttribute attr = node_.firstAttribute();
if (!attr.isNull() && attr.name() == "ptr") {
long id = attr.getLong();
pEntity_t child = boost::dynamic_pointer_cast<Entity>(assetManager.getAssetPointer(id));
if (!child)
throw XmlException("Bad entity asset id", __FILE__, __LINE__);
addChild(child);
}
node_ = node_.nextSibling();
}
}
setSilent(silent);
}
catch (XmlException& e) {
e.prepend("Error parsing XML for instance of class Entity; ");
throw;
}
recomputeBoundary();
}