void CylinderTest::collisionPoint() {
Shapes::Cylinder3D cylinder({-1.0f, -1.0f, 0.0f}, {1.0f, 1.0f, 0.0f}, 2.0f);
Shapes::Point3D point({2.0f, 0.0f, 0.0f});
Shapes::Point3D point1({1.0f, 3.1f, 0.0f});
Shapes::Point3D point2({2.9f, -1.0f, 0.0f});
VERIFY_COLLIDES(cylinder, point);
VERIFY_COLLIDES(cylinder, point1);
VERIFY_NOT_COLLIDES(cylinder, point2);
}
static bool ClipToRect( long & x1, long & y1, long & x2, long & y2,
const WRect & clip )
//-----------------------------------------------------------------
// Cohen-Sutherland Clipping Algorithm from _Fundamentals of Interactive
// Computer Graphics_, page 148.
{
PointCode point1( x1, y1, CL_Inside );
PointCode point2( x2, y2, CL_Inside );
PointCode * p1;
PointCode * p2;
PointCode * tmp;
long top = clip.y();
long left = clip.x();
long bottom = clip.y() + clip.h();
long right = clip.x() + clip.w();
p1 = & point1;
p2 = & point2;
while( 1 ) {
CalcOut( *p1, top, left, bottom, right );
CalcOut( *p2, top, left, bottom, right );
if( p1->code == CL_Inside && p2->code == CL_Inside ) {
return TRUE; // trivial acceptance
}
if( (p1->code & p2->code) != 0 ) {
return FALSE; // trivial rejection
}
if( p1->code == 0 ) { // p1 inside -- swap so p1 outside
tmp = p1;
p1 = p2;
p2 = tmp;
}
// perform a subdivision; move p1 to the intersection point.
// use the formula y = y1 + slope * (x - x1),
// x = x1 + (y - y1) / slope.
if( p1->code & CL_Above ) { // divide at top
p1->x += ((p2->x - p1->x) * (top - p1->y)) / (p2->y - p1->y);
p1->y = top;
} else if( p1->code & CL_Below ) { // divide at bottom of
p1->x += ((p2->x - p1->x) * (bottom - p1->y)) / (p2->y - p1->y);
p1->y = bottom;
} else if( p1->code & CL_Right ) { // divide at right
p1->y += ((p2->y - p1->y) * (right - p1->x)) / (p2->x - p1->x);
p1->x = right;
} else if( p1->code & CL_Left ) { // divide at left
p1->y += ((p2->y - p1->y) * (left - p1->x)) / (p2->x - p1->x);
p1->x = left;
}
}
}
int main(){
int N = 3;
CGAL::Timer cost;
std::vector<Point_d> points;
std::vector<double> point;
point.push_back(6);
point.push_back(6);
point.push_back(6);
Point_d point1(3, point.begin(), point.end());
std::cout << point1[1] << std::endl;
// Point_d point1(1,3,5);
Point_d point2(4,8,10);
Point_d point3(2,7,9);
// Point_d point(1,2,3);
points.push_back(point1);
points.push_back(point2);
points.push_back(point3);
// D Dt(d);
// // CGAL_assertion(Dt.empty());
//
// // insert the points in the triangulation
// cost.reset();cost.start();
// std::cout << " Delaunay triangulation of "<<N<<" points in dim "<<d<< std::flush;
// std::vector<Point_d>::iterator it;
// for(it = points.begin(); it!= points.end(); ++it){
// Dt.insert(*it);
// }
// std::list<Simplex_handle> NL = Dt.all_simplices(D::NEAREST);
// std::cout << " done in "<<cost.time()<<" seconds." << std::endl;
// CGAL_assertion(Dt.is_valid() );
// CGAL_assertion(!Dt.empty());
//
//
// Vertex_handle v = Dt.nearest_neighbor(point);
// Simplex_handle s = Dt.simplex(v);
//
// std::vector<Point_d> Simplex_vertices;
// for(int j=0; j<=d; ++j){
// Vertex_handle vertex = Dt.vertex_of_simplex(s,j);
// Simplex_vertices.push_back(Dt.associated_point(vertex));
// }
//
// std::vector<K::FT> coords;
// K::Barycentric_coordinates_d BaryCoords;
// BaryCoords(Simplex_vertices.begin(), Simplex_vertices.end(),point,std::inserter(coords, coords.begin()));
// std::cout << coords[0] << std::endl;
// return 0;
}
// track object
void ObjectTrackingClass::track(cv::Mat& image, // output image
cv::Mat& image1, // previous frame
cv::Mat& image2, // next frame
std::vector<cv::Point2f>& points1, // previous points
std::vector<cv::Point2f>& points2, // next points
std::vector<uchar>& status, // status array
std::vector<float>& err) // error array
{
// tracking code
cv::calcOpticalFlowPyrLK(image1,
image2,
points1,
points2,
status,
err,
winSize,
maxLevel,
termcrit,
flags,
minEigThreshold);
// work out maximum X,Y keypoint values in the next_points keypoint vector
cv::Point2f min(FLT_MAX, FLT_MAX);
cv::Point2f max(FLT_MIN, FLT_MIN);
// refactor the points array to remove points lost due to tracking error
size_t i, k;
for( i = k = 0; i < points2.size(); i++ )
{
if( !status[i] )
continue;
points2[k++] = points2[i];
// find keypoints at the extremes
min.x = Min(min.x, points2[i].x);
min.y = Min(min.y, points2[i].y);
max.x = Max(max.x, points2[i].x);
max.y = Max(max.y, points2[i].y);
// draw points
cv::circle( image, points2[i], 3, cv::Scalar(0,255,0), -1, 8);
}
points2.resize(k);
// Draw lines between the extreme points (square)
cv::Point2f point0(min.x, min.y);
cv::Point2f point1(max.x, min.y);
cv::Point2f point2(max.x, max.y);
cv::Point2f point3(min.x, max.y);
cv::line( image, point0, point1, cv::Scalar( 0, 255, 0 ), 4 );
cv::line( image, point1, point2, cv::Scalar( 0, 255, 0 ), 4 );
cv::line( image, point2, point3, cv::Scalar( 0, 255, 0 ), 4 );
cv::line( image, point3, point0, cv::Scalar( 0, 255, 0 ), 4 );
}
//-----------------------------------------------------------------------------
void D2DDrawContext::drawPoint (const CPoint &point, const CColor& color)
{
saveGlobalState ();
setLineWidth (1);
setFrameColor (color);
CPoint point2 (point);
point2.h++;
moveTo (point);
lineTo (point2);
restoreGlobalState ();
}
void TestEndPosition()
{
osg::Vec3 point1(0.0f, 0.0f, 0.0f);
osg::Vec3 point2(10.0f, 10.0f, 10.0f);
mIsector->SetStartPosition(point1);
mIsector->SetEndPosition(point2);
CPPUNIT_ASSERT(mIsector->GetDirection() == (point2 - point1));
CPPUNIT_ASSERT_DOUBLES_EQUAL( mIsector->GetLength(), mIsector->GetDirection().length(), 0.001f );
}
point2 point2::rotate_relative_to(double angle, point2 const& p) const
{
double ox = p.x;
double oy = p.y;
double v1 = sin(angle);
double v2 = cos(angle);
double v3 = -oy + y;
double v4 = -ox + x;
return point2(ox - v1*v3 + v2*v4, oy + v2*v3 + v1*v4);
}
bool RTRBoundingBox::contain(const RTRBoundingBox& other) const
{
for (int i = 0; i < 3; i++)
{
if (point1(i)>other.point1(i) || point2(i) < other.point2(i))
{
return false;
}
}
return true;
}
FX_BOOL CPWL_EditCtrl::IsWndHorV()
{
CPDF_Matrix mt = GetWindowMatrix();
CPDF_Point point1(0,1);
CPDF_Point point2(1,1);
mt.Transform(point1.x, point1.y);
mt.Transform(point2.x, point2.y);
return point2.y == point1.y;
}
void TestSnapStrategy::testSquareDistanceToLine()
{
BoundingBoxSnapStrategy toTestOne;
const QPointF lineA(4,1);
const QPointF lineB(6,3);
const QPointF point(5,8);
QPointF pointOnLine(0,0);
qreal result = toTestOne.squareDistanceToLine(lineA, lineB, point, pointOnLine);
//Should be HUGE_VAL because scalar > diffLength
QVERIFY(result == HUGE_VAL);
BoundingBoxSnapStrategy toTestTwo;
QPointF lineA2(4,4);
QPointF lineB2(4,4);
QPointF point2(5,8);
QPointF pointOnLine2(0,0);
qreal result2 = toTestTwo.squareDistanceToLine(lineA2, lineB2, point2, pointOnLine2);
//Should be HUGE_VAL because lineA2 == lineB2
QVERIFY(result2 == HUGE_VAL);
BoundingBoxSnapStrategy toTestThree;
QPointF lineA3(6,4);
QPointF lineB3(8,6);
QPointF point3(2,2);
QPointF pointOnLine3(0,0);
qreal result3 = toTestThree.squareDistanceToLine(lineA3, lineB3, point3, pointOnLine3);
//Should be HUGE_VAL because scalar < 0.0
QVERIFY(result3 == HUGE_VAL);
BoundingBoxSnapStrategy toTestFour;
QPointF lineA4(2,2);
QPointF lineB4(8,6);
QPointF point4(3,4);
QPointF pointOnLine4(0,0);
QPointF diff(6,4);
//diff = lineB3 - point3 = 6,4
//diffLength = sqrt(52)
//scalar = (1*(6/sqrt(52)) + 2*(4/sqrt(52)));
//pointOnLine = lineA + scalar / diffLength * diff; lineA + ((1*(6/sqrt(52)) + 2*(4/sqrt(52))) / sqrt(52)) * 6,4;
QPointF distToPointOnLine = (lineA4 + ((1*(6/sqrt(52.0)) + 2*(4/sqrt(52.0))) / sqrt(52.0)) * diff)-point4;
qreal toCompWithFour = distToPointOnLine.x()*distToPointOnLine.x()+distToPointOnLine.y()*distToPointOnLine.y();
qreal result4 = toTestFour.squareDistanceToLine(lineA4, lineB4, point4, pointOnLine4);
//Normal case with example data
QVERIFY(qFuzzyCompare(result4, toCompWithFour));
}
//-----------------------------------------------------------------------------
void CGDrawContext::drawPoint (const CPoint &point, const CColor& color)
{
saveGlobalState ();
setLineWidth (1);
setFrameColor (color);
CPoint point2 (point);
point2.x++;
COffscreenContext::drawLine (point, point2);
restoreGlobalState ();
}
// gradient influence of vertex vx,vt to point y
double vertice_gradient(int vx, int vy, double x, double y) const
{
// distance
auto dx = x - vx;
auto dy = y - vy;
vx = (vx == W) ? 0 : vx;
vy = (vy == H) ? 0 : vy;
const gradient &g = m_matrix[point2(vx, vy)];
return dx * g.x + dy * g.y;
}
void drawTree2D(const std::vector<std::shared_ptr<Node<dim>>> &nodes, cv::Mat &image, Eigen::Vector3i colorNode,
Eigen::Vector3i colorEdge, int thickness) {
static_assert(dim == 2, "Dimension has to be 2");
for (auto &elem : nodes) {
cv::Point point(elem->getValue(0), elem->getValue(1));
// cv::circle(image, point, 3, cv::Scalar(colorNode[0], colorNode[1], colorNode[2]), 1);
if (elem->getParentNode() != nullptr) {
cv::Point point2(elem->getParentNode()->getValue(0), elem->getParentNode()->getValue(1));
cv::line(image, point, point2, cv::Scalar(colorEdge[0], colorEdge[1], colorEdge[2]), thickness);
}
}
}
int main(int argc, char **argv) {
std::cout
<< "¸.·´¯`·.¸¸.·´ BioFractalTree Version 0 Revision 1 `·.¸¸.·´¯`·.¸\n";
// set up a bcurve for testing early curve / surface viz algs
vector<double> coords0 = { 0.0, 0.0, 0.0 };
vector<double> coords1 = { 0.0, 0.3, 0.3 };
vector<double> coords2 = { 0.3, 0.0, 0.6 };
vector<double> coords3 = { 0.0, 0.0, 1.0 };
std::unique_ptr<point> point0(new point(coords0, 0));
std::unique_ptr<point> point1(new point(coords1, 1));
std::unique_ptr<point> point2(new point(coords2, 2));
std::unique_ptr<point> point3(new point(coords3, 3));
vector<point> curve0 = { *point0, *point1, *point2, *point3 };
std::unique_ptr<bcurve> thisCurve(new bcurve(curve0, 20));
// we set up a static Bernstein basis set for a given resolution
std::unique_ptr<bBasis> bBasis_20(new bBasis(20));
// this sets up a 4x21 vector of vector<double>
// 19 internal points plus the two endpoints
// we can return / output the basis set
vector<vector<double> > returnBasis;
bBasis_20->getBasis(returnBasis);
// std::cout << "Basis Set Output: \n";
// std::cout << " size : " << returnBasis.at(0).size();
for (int j = 0; j < 4; j++) {
// std::cout << "\n b[" << j << "] : ";
for (int i = 0; i < returnBasis.at(j).size(); i++) {
// std::cout << returnBasis.at(j).at(i) << " ";
}
}
// std::cout << "\n";
// now we can try getting some points on the bcurve
vector<point> returnPoints;
thisCurve->getPointsOnCurve(returnPoints, returnBasis, 4);
// only returnPoints gets modified by the above function
// it returns 21 points along the curve, including endpoints
std::cout << "points on curve : \n";
for (int i = 0; i < returnPoints.size(); i++) {
vector<double> tempCoord;
returnPoints.at(i).getCoord(tempCoord);
for (int j = 0; j < 3; j++) {
std::cout << tempCoord.at(j) << " ";
}
std::cout << "\n";
}
return 0;
}
// TODO: Uncomment and fix, see issue #339
TEST(PathConstructor, TestConstructPath) {
/* origin of OccupancyGrid */
// initialize origin of occupancy grid
geometry_msgs::Pose origin =
PathFinderTestUtils::constructPose(3.0, 3.0, 0.0);
/* mapMetaData of OccupancyGrid */
// initialize mapMetaData
nav_msgs::MapMetaData map_meta_data;
map_meta_data.resolution = 2.0;
map_meta_data.width = 2;
map_meta_data.height = 2;
// add origin to mapMetaData
map_meta_data.origin = origin;
/* OccupancyGridAdapter */
std::shared_ptr<OccupancyGridAdapter> occupancy_grid_adapter_ptr(
new OccupancyGridAdapter(map_meta_data));
/* first point in path*/
AStar::GridPoint point1(-99 - sqrt(3), -99 - 1);
/* second point in path*/
AStar::GridPoint point2(-99, -99);
/* add points to path */
std::stack<AStar::GridPoint> points;
points.push(point1);
points.push(point2);
PathConstructor path_constructor(occupancy_grid_adapter_ptr);
nav_msgs::Path path = path_constructor.constructPath(points);
tf::Quaternion q1;
tf::quaternionMsgToTF(path.poses[0].pose.orientation, q1);
/* we lose resolution by converting a point into a grid, so allow more
error
*/
EXPECT_NEAR(q1.getAngle(), M_PI + M_PI / 6, 0.5);
EXPECT_FLOAT_EQ(
path.poses[0].pose.position.x,
occupancy_grid_adapter_ptr->convertFromGridToMapPoint(point2).x);
EXPECT_FLOAT_EQ(
path.poses[0].pose.position.y,
occupancy_grid_adapter_ptr->convertFromGridToMapPoint(point2).y);
EXPECT_FLOAT_EQ(
path.poses[1].pose.position.x,
occupancy_grid_adapter_ptr->convertFromGridToMapPoint(point1).x);
EXPECT_FLOAT_EQ(
path.poses[1].pose.position.y,
occupancy_grid_adapter_ptr->convertFromGridToMapPoint(point1).y);
}
void AxisAlignedBoxTest::collisionPoint() {
Physics::AxisAlignedBox3D box({-1.0f, -2.0f, -3.0f}, {1.0f, 2.0f, 3.0f});
Physics::Point3D point1({-1.5f, -1.0f, 2.0f});
Physics::Point3D point2({0.5f, 1.0f, -2.5f});
randomTransformation(box);
randomTransformation(point1);
randomTransformation(point2);
VERIFY_NOT_COLLIDES(box, point1);
VERIFY_COLLIDES(box, point2);
}
void SphereTest::collisionPoint() {
Physics::Sphere3D sphere({1.0f, 2.0f, 3.0f}, 2.0f);
Physics::Point3D point({1.0f, 3.0f, 3.0f});
Physics::Point3D point2({1.0f, 3.0f, 1.0f});
randomTransformation(sphere);
randomTransformation(point);
randomTransformation(point2);
VERIFY_COLLIDES(sphere, point);
VERIFY_NOT_COLLIDES(sphere, point2);
}
Line CohenShutterlandAlgorithm::getLineInView(Line line,Point viewPortStart,Point viewPortEnd) {
Point linePosition = line.getPosition();
int x0 = line.getBeginPoint().x + linePosition.x;
int y0 = line.getBeginPoint().y + linePosition.y;
int x1 = line.getEndPoint().x + linePosition.x;
int y1 = line.getEndPoint().y + linePosition.y;
Point point1(x0,y0);
Point point2(x1,y1);
int outcode1 = computeOutcode(point1,viewPortStart,viewPortEnd);
int outcode2 = computeOutcode(point2,viewPortStart,viewPortEnd);
while(true) {
int outcodeOut = outcode1 ? outcode1 : outcode2;
if (!(outcode1|outcode2)){
return Line(Point(x0,y0),Point(x1,y1),line.getColor());
}
else if (outcode1 & outcode2){
return Line(Point(0,0),Point(0,0),Color(0,0,0,0));
}
else {
int x,y;
if ( outcodeOut & TOP ) {
x = x0 + (x1-x0) * (viewPortStart.y - y0) / (y1-y0) ;
y = viewPortStart.y;
} else if (outcodeOut & BOTTOM) {
x = x0 + (x1-x0) * (viewPortEnd.y - y0) / (y1-y0);
y = viewPortEnd.y;
} else if (outcodeOut & LEFT ) {
y = y0 + (y1-y0) * (viewPortStart.x - x0) / (x1-x0);
x = viewPortStart.x;
} else if (outcodeOut & RIGHT) {
y = y0 + (y1-y0) * (viewPortEnd.x - x0 ) / (x1-x0);
x = viewPortEnd.x;
}
if (outcodeOut == outcode1) {
x0 = x;
y0 = y;
outcode1 = computeOutcode(Point(x0,y0),viewPortStart,viewPortEnd);
}
else {
x1 = x;
y1 = y;
outcode2 = computeOutcode(Point(x1,y1),viewPortStart,viewPortEnd);
}
}
}
}
int main()
{
bg::model::point<double, 2, bg::cs::cartesian> point1;
bg::model::point<double, 3, bg::cs::cartesian> point2(1.0, 2.0, 3.0); /*< Construct, assigning three coordinates >*/
point1.set<0>(1.0); /*< Set a coordinate. [*Note]: prefer using `bg::set<0>(point1, 1.0);` >*/
point1.set<1>(2.0);
double x = point1.get<0>(); /*< Get a coordinate. [*Note]: prefer using `x = bg::get<0>(point1);` >*/
double y = point1.get<1>();
std::cout << x << ", " << y << std::endl;
return 0;
}
// Check that the base point scalar multiple routine matches the generic base point routine
void base_point_test(MinTLS_NamedCurve curve)
{
size_t const key_sz = mintls_ecdh_scalar_size(curve);
size_t const pt_sz = mintls_ecdh_point_size(curve);
// Scalar representing 1 (in big endian)
std::vector<uint8_t> one(key_sz,0);
one[key_sz-1] = 1;
// Extract out the base point
std::vector<uint8_t> base_point(pt_sz);
ASSERT_EQ(
mintls_ecdh_base_scalar_mult(
curve, // (I) Curve
&one[0], // (I) Private Key
one.size(), // (I) Private Key size
&base_point[0] // (O) Public Key
),
0
);
// Computer scalar multiple in two ways
std::vector<uint8_t> scalar(key_sz,0);
mintls_random(&scalar[0], key_sz);
std::vector<uint8_t> point1(pt_sz);
std::vector<uint8_t> point2(pt_sz);
ASSERT_EQ(
mintls_ecdh_base_scalar_mult(
curve, // (I) Curve
&scalar[0], // (I) Private Key
scalar.size(), // (I) Private Key Size
&point1[0] // (O) Public Key
),
0
);
ASSERT_EQ(
mintls_ecdh_scalar_mult(
curve, // (I) Curve
&scalar[0], // (I) Scalar (big endian using [5] 4.3.3)
scalar.size(), // (I) Scalar size
&base_point[0], // (I) Base point (uncompressed using [5] 4.3.6)
base_point.size(), // (I) Base point size
&point2[0] // (O) Point (uncompressed using [5] 4.3.6)
),
0
);
EXPECT_EQ(point1,point2);
}
void testOperatorMultiply()
{
FTPoint point1(1.0f, 2.0f, 3.0f);
FTPoint point2(1.0f, 2.0f, 3.0f);
FTPoint point3(2.0f, 4.0f, 6.0f);
FTPoint point4 = point1 * 2.0;
CPPUNIT_ASSERT(point4 == point3);
point4 = 2.0 * point2;
CPPUNIT_ASSERT(point4 == point3);
}
// Construct from dictionary
Foam::plane::plane(const dictionary& dict)
:
unitVector_(vector::zero),
basePoint_(point::zero)
{
word planeType(dict.lookup("planeType"));
if (planeType == "planeEquation")
{
const dictionary& subDict = dict.subDict("planeEquationDict");
scalarList C(4);
C[0] = readScalar(subDict.lookup("a"));
C[1] = readScalar(subDict.lookup("b"));
C[2] = readScalar(subDict.lookup("c"));
C[3] = readScalar(subDict.lookup("d"));
calcPntAndVec(C);
}
else if (planeType == "embeddedPoints")
{
const dictionary& subDict = dict.subDict("embeddedPoints");
point point1(subDict.lookup("point1"));
point point2(subDict.lookup("point2"));
point point3(subDict.lookup("point3"));
calcPntAndVec(point1, point2, point3);
}
else if (planeType == "pointAndNormal")
{
const dictionary& subDict = dict.subDict("pointAndNormalDict");
basePoint_ = subDict.lookup("basePoint");
unitVector_ = subDict.lookup("normalVector");
unitVector_ /= mag(unitVector_);
}
else
{
FatalIOErrorIn
(
"plane::plane(const dictionary&)",
dict
)
<< "Invalid plane type: " << planeType
<< abort(FatalIOError);
}
}
void CapsuleTest::collisionPoint() {
Physics::Capsule3D capsule({-1.0f, -1.0f, 0.0f}, {1.0f, 1.0f, 0.0f}, 2.0f);
Physics::Point3D point({2.0f, 0.0f, 0.0f});
Physics::Point3D point1({2.9f, 1.0f, 0.0f});
Physics::Point3D point2({1.0f, 3.1f, 0.0f});
randomTransformation(capsule);
randomTransformation(point);
randomTransformation(point1);
randomTransformation(point2);
VERIFY_COLLIDES(capsule, point);
VERIFY_COLLIDES(capsule, point1);
VERIFY_NOT_COLLIDES(capsule, point2);
}
// -----------------------------------------------------------------------------
// CTestPlatAlfVisual::TestTimedPointConstructor
// -----------------------------------------------------------------------------
//
TInt CTestPlatAlfVisual::TestTimedPointConstructor( CStifItemParser& /*aItem*/ )
{
// Print to UI
_LIT( KTestPlatAlfVisual, "TestPlatAlfVisual" );
_LIT( KTestTimedPointConstructor, "TestTimedPointConstructor" );
TestModuleIf().Printf( 0, KTestPlatAlfVisual, KTestTimedPointConstructor );
// Print to log file
iLog->Log( KTestTimedPointConstructor );
TAlfTimedPoint point1;
TAlfTimedPoint point2( 1.0, 1.0 );
TAlfTimedPoint point3( 1.0, 1.0, KGeneralNum );
return KErrNone;
}
void drawGraph2D(cv::Mat &image, const std::vector<std::shared_ptr<Node<dim>>> &nodes, Vector3i colorNode, Vector3i colorEdge,
int thickness) {
assert(dim >= 2);
for (auto &elem : nodes) {
cv::Point point(elem->getValue(0), elem->getValue(1));
// cv::circle(image, point, 3, cv::Scalar(colorNode[0], colorNode[1], colorNode[2]), 1);
for (auto &child : elem->getChildNodes()) {
if (child != nullptr) {
cv::Point point2(child->getValue(0), child->getValue(1));
cv::line(image, point, point2, cv::Scalar(colorEdge[0], colorEdge[1], colorEdge[2]), thickness);
}
}
}
}
void EyeCalibration::createTestData() {
CalibrationPoint point1(20, 5, osg::Vec3(-1.2f, -1.f, 2.f));
calibrationPoints.push_back(point1);
CalibrationPoint point2(700, 25, osg::Vec3(1.4f, -1.f, 1.6f));
calibrationPoints.push_back(point2);
CalibrationPoint point3(-10, 520, osg::Vec3(-0.8f, -1.f, -1.4f));
calibrationPoints.push_back(point3);
CalibrationPoint point4(730, 542, osg::Vec3(1.f, -1.f, -1.3f));
calibrationPoints.push_back(point4);
}
point2 poly2::RandInPoly() const
{
Double dx = xMax() - xMin();
Double dy = yMax() - yMin();
Double range = max(dx,dy); // VS2008
// rejection sampling logic
point2 p0;
do {
Double x = xMin() + range*RandU();
Double y = yMin() + range*RandU();
p0 = point2(x,y);
} while (!PointInPoly(p0));
return p0;
}
int QDeclarativePinchEvent::qt_metacall(QMetaObject::Call _c, int _id, void **_a)
{
_id = QObject::qt_metacall(_c, _id, _a);
if (_id < 0)
return _id;
#ifndef QT_NO_PROPERTIES
if (_c == QMetaObject::ReadProperty) {
void *_v = _a[0];
switch (_id) {
case 0: *reinterpret_cast< QPointF*>(_v) = center(); break;
case 1: *reinterpret_cast< QPointF*>(_v) = startCenter(); break;
case 2: *reinterpret_cast< QPointF*>(_v) = previousCenter(); break;
case 3: *reinterpret_cast< qreal*>(_v) = scale(); break;
case 4: *reinterpret_cast< qreal*>(_v) = previousScale(); break;
case 5: *reinterpret_cast< qreal*>(_v) = angle(); break;
case 6: *reinterpret_cast< qreal*>(_v) = previousAngle(); break;
case 7: *reinterpret_cast< qreal*>(_v) = rotation(); break;
case 8: *reinterpret_cast< QPointF*>(_v) = point1(); break;
case 9: *reinterpret_cast< QPointF*>(_v) = startPoint1(); break;
case 10: *reinterpret_cast< QPointF*>(_v) = point2(); break;
case 11: *reinterpret_cast< QPointF*>(_v) = startPoint2(); break;
case 12: *reinterpret_cast< int*>(_v) = pointCount(); break;
case 13: *reinterpret_cast< bool*>(_v) = accepted(); break;
}
_id -= 14;
} else if (_c == QMetaObject::WriteProperty) {
void *_v = _a[0];
switch (_id) {
case 13: setAccepted(*reinterpret_cast< bool*>(_v)); break;
}
_id -= 14;
} else if (_c == QMetaObject::ResetProperty) {
_id -= 14;
} else if (_c == QMetaObject::QueryPropertyDesignable) {
_id -= 14;
} else if (_c == QMetaObject::QueryPropertyScriptable) {
_id -= 14;
} else if (_c == QMetaObject::QueryPropertyStored) {
_id -= 14;
} else if (_c == QMetaObject::QueryPropertyEditable) {
_id -= 14;
} else if (_c == QMetaObject::QueryPropertyUser) {
_id -= 14;
}
#endif // QT_NO_PROPERTIES
return _id;
}
void MyPrimitive::GenerateCube(float a_mSize, vector3 a_vColor)
{
//If the size is less than this make it this large
if (a_mSize < 0.01f)
a_mSize = 0.01f;
//Clean up Memory
Release();
Init();
float fValue = 0.5f * a_mSize;
//3--2
//| |
//0--1
vector3 point0(-fValue, -fValue, fValue); //0
vector3 point1(fValue, -fValue, fValue); //1
vector3 point2(fValue, fValue, fValue); //2
vector3 point3(-fValue, fValue, fValue); //3
//7--6
//| |
//4--5
vector3 point4(-fValue, -fValue, -fValue); //4
vector3 point5(fValue, -fValue, -fValue); //5
vector3 point6(fValue, fValue, -fValue); //6
vector3 point7(-fValue, fValue, -fValue); //7
//F
AddQuad(point0, point1, point3, point2);
//B
AddQuad(point5, point4, point6, point7);
//L
AddQuad(point4, point0, point7, point3);
//R
AddQuad(point1, point5, point2, point6);
//U
AddQuad(point3, point2, point7, point6);
//D
AddQuad(point4, point5, point0, point1);
//Compile the object in this color and assign it this name
CompileObject(a_vColor);
}
void environment::start()
{
end();
m_time = 0;
m_running = true;
m_world.resize(settings::world_width, settings::world_height);
m_world.generate(m_settings.seed());
spawn_player(m_world.spawn() * point2(settings::cell_width, settings::cell_height));
// ui
tie_map();
m_ui->deactivate("title");
m_ui->activate("ingame");
// make chest
auto chest = m_factory->produce();
chest->add_appearance('$', { 1, 1, 1 });
chest->add_location({ 2, 2 });
auto body = chest->add_body(250, 150);
body->set_name("Iron chest");
chest->add_container();
m_terrain.add(*chest);
auto ore = std::make_shared<body_component::item_type>();
ore->add({ rl::effect::ore_power, 0x00, 10 });
ore->add({ rl::effect::value, 0x00, 5 });
ore->add({ rl::effect::weight, 0x00, 1 });
ore->set_name("Copper ore");
ore->set_tag("ore_copper");
auto vein = m_factory->produce();
vein->add_appearance('0');
vein->add_location({ 3, 3 });
vein->add_body();
auto v = vein->add_resource();
v->deposit(ore);
m_terrain.add(*vein);
auto anvil = m_factory->produce();
anvil->add_appearance('t');
anvil->add_location({ 3, 0 });
anvil->add_body();
anvil->add_container();
m_terrain.add(*anvil);
}
