void Room::cacheProperties(const Hashtable& properties)
{
if(properties.contains(static_cast<nByte>(Properties::Room::MAX_PLAYERS)))
mMaxPlayers = ValueObject<nByte>(properties.getValue(static_cast<nByte>(Properties::Room::MAX_PLAYERS))).getDataCopy();
if(properties.contains(static_cast<nByte>(Properties::Room::IS_OPEN)))
mIsOpen = ValueObject<bool>(properties.getValue(static_cast<nByte>(Properties::Room::IS_OPEN))).getDataCopy();
if(properties.contains(static_cast<nByte>(Properties::Room::PLAYER_COUNT)))
mPlayerCount = ValueObject<nByte>(properties.getValue(static_cast<nByte>(Properties::Room::PLAYER_COUNT))).getDataCopy();
mCustomProperties.put(Utils::stripToCustomProperties(properties));
mCustomProperties = Utils::stripKeysWithNullValues(mCustomProperties);
}
static void clean_evaluate(bool aggressive, int depth, board_t board) {
check_board(board);
symmetry_t symmetry;
superstandardize(board).get(board,symmetry);
if (known.contains(tuple(depth,board)))
return;
cout << "clean evaluate: depth "<<depth<<", board "<<board<<endl;
clear_supertable();
const super_t all = ~super_t(0);
const side_t side0 = unpack(board,0), side1 = unpack(board,1);
auto data = super_shallow_evaluate(aggressive,depth,side0,side1,all);
superinfo_t info = data.lookup.info;
if (depth>=1)
info = super_evaluate_recurse<false>(aggressive,depth,side0,side1,data,all);
GEODE_ASSERT(info.known==all);
known.set(tuple(depth,board),info);
}
void LoadBalancingListener::afterRoomJoined(int localPlayerNr)
{
mpView->info( "afterRoomJoined: localPlayerNr=", localPlayerNr );
this->mLcalPlayerNr = localPlayerNr;
MutableRoom& myRoom = mpLbc->getCurrentlyJoinedRoom();
Hashtable props = myRoom.getCustomProperties();
updateGridSize(props);
if(props.contains("m"))
mMap = ((ValueObject<JString>*)props.getValue("m"))->getDataCopy();
mpView->initPlayers();
mpView->setupScene(mGridSize);
const JVector<Player*>& players = myRoom.getPlayers();
for(unsigned int i=0; i<players.getSize(); ++i)
{
const Player* p = players[i];
mpView->addPlayer(p->getNumber(), p->getName().UTF8Representation().cstr(), p->getNumber() == mpLbc->getLocalPlayer().getNumber());
}
mpView->changePlayerColor(localPlayerNr, mLocalPlayer.color);
raiseColorEvent();
}
GEODE_COLD static void assert_delaunay(const char* prefix,
const TriangleTopology& mesh, RawField<const Perturbed2,VertexId> X,
const Hashtable<Vector<VertexId,2>>& constrained=Tuple<>(),
const bool oriented_only=false,
const bool check_boundary=true) {
// Verify that all faces are correctly oriented
for (const auto f : mesh.faces()) {
const auto v = mesh.vertices(f);
GEODE_ASSERT(triangle_oriented(X,v.x,v.y,v.z));
}
if (oriented_only)
return;
// Verify that all internal edges are Delaunay
if (!constrained.size()) {
for (const auto e : mesh.interior_halfedges())
if (!mesh.is_boundary(mesh.reverse(e)) && mesh.src(e)<mesh.dst(e))
if (!is_delaunay(mesh,X,e))
throw RuntimeError(format("%snon delaunay edge: e%d, v%d v%d",prefix,e.id,mesh.src(e).id,mesh.dst(e).id));
} else {
for (const auto v : constrained)
if (!mesh.halfedge(v.x,v.y).valid())
throw RuntimeError(format("%smissing constraint edge: v%d v%d",prefix,v.x.id,v.y.id));
for (const auto e : mesh.interior_halfedges()) {
const auto s = mesh.src(e), d = mesh.dst(e);
if (!mesh.is_boundary(mesh.reverse(e)) && s<d && !constrained.contains(vec(s,d)))
if (!is_delaunay(mesh,X,e))
throw RuntimeError(format("%snon delaunay edge: e%d, v%d v%d",prefix,e.id,mesh.src(e).id,mesh.dst(e).id));
}
}
// Verify that all boundary vertices are convex
if (check_boundary)
for (const auto e : mesh.boundary_edges()) {
const auto v0 = mesh.src(mesh.prev(e)),
v1 = mesh.src(e),
v2 = mesh.dst(e);
GEODE_ASSERT(triangle_oriented(X,v2,v1,v0));
}
}
bool traced(bool aggressive, board_t board) {
return board_flags.contains(superstandardize(board).x|(uint64_t)aggressive<<aggressive_bit);
}
GEODE_NEVER_INLINE static void add_constraint_edges(MutableTriangleTopology& mesh, RawField<const EV,VertexId> X,
RawArray<const Vector<int,2>> edges, const bool validate) {
if (!edges.size())
return;
IntervalScope scope;
Hashtable<Vector<VertexId,2>> constrained;
Array<VertexId> left_cavity, right_cavity; // List of vertices for both cavities
const auto random = new_<Random>(key+7);
for (int i=0;i<edges.size();i++) {
// Randomly choose an edge to ensure optimal time complexity
const auto edge = edges[int(random_permute(edges.size(),key+5,i))].sorted();
auto v0 = VertexId(edge.x),
v1 = VertexId(edge.y);
const auto vs = vec(v0,v1);
GEODE_ASSERT(mesh.valid(v0) && mesh.valid(v1));
{
// Check if the edge already exists in the triangulation. To ensure optimal complexity,
// we loop around both vertices interleaved so that our time is O(min(degree(v0),degree(v1))).
const auto s0 = mesh.halfedge(v0),
s1 = mesh.halfedge(v1);
{
auto e0 = s0,
e1 = s1;
do {
if (mesh.dst(e0)==v1 || mesh.dst(e1)==v0)
goto success; // The edge already exists, so there's nothing to be done.
e0 = mesh.left(e0);
e1 = mesh.left(e1);
} while (e0!=s0 && e1!=s1);
}
// Find a triangle touching v0 or v1 containing part of the v0-v1 segment.
// As above, we loop around both vertices interleaved.
auto e0 = s0;
{
auto e1 = s1;
if (mesh.is_boundary(e0)) e0 = mesh.left(e0);
if (mesh.is_boundary(e1)) e1 = mesh.left(e1);
const auto x0 = Perturbed2(v0.id,X[v0]),
x1 = Perturbed2(v1.id,X[v1]);
const auto e0d = mesh.dst(e0),
e1d = mesh.dst(e1);
bool e0o = triangle_oriented(x0,Perturbed2(e0d.id,X[e0d]),x1),
e1o = triangle_oriented(x1,Perturbed2(e1d.id,X[e1d]),x0);
for (;;) { // No need to check for an end condition, since we're guaranteed to terminate
const auto n0 = mesh.left(e0),
n1 = mesh.left(e1);
const auto n0d = mesh.dst(n0),
n1d = mesh.dst(n1);
const bool n0o = triangle_oriented(x0,Perturbed2(n0d.id,X[n0d]),x1),
n1o = triangle_oriented(x1,Perturbed2(n1d.id,X[n1d]),x0);
if (e0o && !n0o)
break;
if (e1o && !n1o) {
// Swap v0 with v1 and e0 with e1 so that our ray starts at v0
swap(v0,v1);
swap(e0,e1);
break;
}
e0 = n0;
e1 = n1;
e0o = n0o;
e1o = n1o;
}
}
// If we only need to walk one step, the retriangulation is a single edge flip
auto cut = mesh.reverse(mesh.next(e0));
if (mesh.dst(mesh.next(cut))==v1) {
if (constrained.contains(vec(mesh.src(cut),mesh.dst(cut)).sorted()))
throw DelaunayConstraintConflict(vec(v0.id,v1.id),vec(mesh.src(cut).id,mesh.dst(cut).id));
cut = mesh.flip_edge(cut);
goto success;
}
// Walk from v0 to v1, collecting the two cavities.
const auto x0 = Perturbed2(v0.id,X[v0]),
x1 = Perturbed2(v1.id,X[v1]);
right_cavity.copy(vec(v0,mesh.dst(cut)));
left_cavity .copy(vec(v0,mesh.src(cut)));
mesh.erase(mesh.face(e0));
for (;;) {
if (constrained.contains(vec(mesh.src(cut),mesh.dst(cut)).sorted()))
throw DelaunayConstraintConflict(vec(v0.id,v1.id),vec(mesh.src(cut).id,mesh.dst(cut).id));
const auto n = mesh.reverse(mesh.next(cut)),
p = mesh.reverse(mesh.prev(cut));
const auto v = mesh.src(n);
mesh.erase(mesh.face(cut));
if (v == v1) {
left_cavity.append(v);
right_cavity.append(v);
break;
} else if (triangle_oriented(x0,x1,Perturbed2(v.id,X[v]))) {
left_cavity.append(v);
cut = n;
} else {
right_cavity.append(v);
cut = p;
}
}
// Retriangulate both cavities
left_cavity.reverse();
cavity_delaunay(mesh,X,left_cavity,random),
cavity_delaunay(mesh,X,right_cavity,random);
}
success:
constrained.set(vs);
}
// If desired, check that the final mesh is constrained Delaunay
if (validate)
assert_delaunay("constrained delaunay validate: ",mesh,X,constrained);
}
void MutableRoom::cacheProperties(const Hashtable& properties)
{
if(properties.contains(static_cast<nByte>(Properties::Room::IS_VISIBLE)))
mIsVisible = ValueObject<bool>(properties.getValue(static_cast<nByte>(Properties::Room::IS_VISIBLE))).getDataCopy();
super::cacheProperties(properties);
}