TEST(Proxy, Signal)
{
boost::shared_ptr<Foo> foo(new Foo);
qi::AnyObject gfoo = qi::AnyReference::from(foo).toObject();
ASSERT_TRUE(!!gfoo);
qi::detail::printMetaObject(std::cerr, gfoo.metaObject());
// The session must die before foo.
TestSessionPair p;
p.server()->registerService("foo", gfoo);
qi::AnyObject client = p.client()->service("foo");
ASSERT_EQ(0, client.call<int>("count1"));
qi::ProxySignal<void(int, int)> proxy1(client, "sig1");
foo->subscribe1();
proxy1(1, 2);
PERSIST_ASSERT(, foo->count1() == 3, 500);
// small hack, reuse foo function to test callback on proxy signal
Foo foo2;
qi::SignalLink l = proxy1.connect(boost::bind(&Foo::on1, &foo2, _1, _2));
proxy1(3, 4);
PERSIST_ASSERT(, foo->count1() == 10, 500);
PERSIST_ASSERT(, foo2.count1() == 7, 500);
proxy1.disconnect(l);
proxy1(1, 1);
PERSIST_ASSERT(, foo->count1() == 12, 500);
PERSIST_ASSERT(, foo2.count1() == 7, 500);
}
bool b3HullShape::TestSphere(b3TestSphereOutput* output, const b3Sphere& sphere, const b3Transform& xf) const
{
b3Transform xf1 = xf;
b3Transform xf2 = b3Transform_identity;
b3ShapeGJKProxy proxy1(this, 0);
b3GJKProxy proxy2;
proxy2.vertexCount = 1;
proxy2.vertexBuffer[0] = sphere.vertex;
proxy2.vertices = proxy2.vertexBuffer;
proxy2.radius = sphere.radius;
b3GJKOutput gjk = b3GJK(xf1, proxy1, xf2, proxy2);
float32 r1 = proxy1.radius;
float32 r2 = proxy2.radius;
float32 totalRadius = r1 + r2;
if (gjk.distance > totalRadius)
{
return false;
}
if (gjk.distance > 0.0f)
{
b3Vec3 c1 = gjk.point1;
b3Vec3 c2 = gjk.point2;
b3Vec3 n = (c2 - c1) / gjk.distance;
output->point = c1;
output->normal = n;
output->separation = gjk.distance - totalRadius;
return true;
}
// Perform computations in the local space of the first hull.
b3Vec3 support = b3MulT(xf1, sphere.vertex);
u32 maxIndex = ~0;
float32 maxSeparation = -B3_MAX_FLOAT;
for (u32 i = 0; i < m_hull->faceCount; ++i)
{
b3Plane plane = m_hull->GetPlane(i);
float32 separation = b3Distance(support, plane);
if (separation > totalRadius)
{
return false;
}
if (separation > maxSeparation)
{
maxIndex = i;
maxSeparation = separation;
}
}
B3_ASSERT(maxIndex != ~0);
b3Plane plane = b3Mul(xf1, m_hull->GetPlane(maxIndex));
output->point = b3ClosestPointOnPlane(sphere.vertex, plane);
output->separation = maxSeparation - totalRadius;
output->normal = plane.normal;
return true;
}