Example #1
0
/*
 * Testing
 */
TEST(MathPoint, Sum_Equal_Operator_Equal) {
    int summer = 3;
    const int size = 5;

    int data1[size] = {0, 0, 0, 0, 0};
    int data2[size] = {3, 3, 3, 3, 3};

    Point<int> actualPoint(data1, size);
    Point<int> expectedPoint(data2, size);

    actualPoint += summer;
    EXPECT_EQ(expectedPoint, actualPoint);
}
Example #2
0
/*
 * Testing adding two pointers
 */
TEST(MathPoint, Add_Equal_Operator_Points_New_Point) {
    const int size = 5;

    int data1[size] = {3, 4, 5, 6, 7};
    int data2[size] = {6, 8, 10, 12, 14};

    Point<int> actualPoint(data1, size);
    Point<int> expectedPoint(data2, size);

    actualPoint += actualPoint;

    EXPECT_EQ(expectedPoint, actualPoint);

}
    void runOffsetTest(string const& inputWKT, string const& testPtWKT,
                       double offsetDistance, string const& expectedPtWKT)
    {
        GeomPtr input(reader.read(inputWKT));
        GeomPtr testPoint(reader.read(testPtWKT));
        GeomPtr expectedPoint(reader.read(expectedPtWKT));
        const Coordinate* testPt = testPoint->getCoordinate();
        const Coordinate* expectedPt = expectedPoint->getCoordinate();
        Coordinate offsetPt = extractOffsetAt(input.get(), *testPt, offsetDistance);

        bool isOk = offsetPt.distance(*expectedPt) < TOLERANCE_DIST;
        if (! isOk)
            cout << "Expected = " << *expectedPoint << "  Actual = " << offsetPt << endl;
        ensure(isOk);
    }
Example #4
0
/*
 * Testing
 */
TEST(MathPoint, Divider_Operator_Equal) {
    int divider = 3;
    const int size = 15;

    Point<int> expectedPoint(size);
    Point<int> actualPoint(size);

    for(int i = 0; i < size; i++){
        actualPoint[i] = 9;
    }
    actualPoint = actualPoint / divider;

    for(int i = 0; i < size; i++){
        expectedPoint[i] = divider;
    }

    EXPECT_EQ(expectedPoint, actualPoint);
}
Example #5
0
int testCoordTransToCart(FILE * f)
{
     fprintf (f, "\t+++++ Enter testCoordTransToCart() +++++\n");
     int ntests=0, res=0;
     Point Points[] = {
          Point(1, 2),
          Point(0, 0),
          Point(1, 0),
          Point(cos(pi/3), sin(pi/3)),
          Point(cos(pi/2), sin(pi/2)),
          Point(1,0),
          Point(cos(-pi/3), sin(-pi/3)),
          Point(cos(-pi/6), sin(-pi/6)),
          Point(cos(5*pi/6), sin(-2*pi/6)),
     };

     const int NPOINTS = sizeof(Points) / sizeof(*Points);
     double cosphi=1, sinphi=0;
     Point transPoint(0,0), expectedPoint(0,0);
     Point Center(0,0);
     fprintf (f, "\t\tcosphi=%.2f, sinphi=%.2f, Center(%.2f, %.2f)\n", cosphi, sinphi, Center._x, Center._y);
     for(int i=0; i<NPOINTS-1; i++) {
          transPoint = Points[i].TransformToCartesianCoordinates(Center, cosphi, sinphi);
          res += ( transPoint == Points[i] )?1:0; //phi==0!
          ntests++;
          fprintf (f, "%2d. res=%2d, P(%.2f, %.2f), T(%.2f, %.2f)\n", ntests, res, Points[i]._x, Points[i]._y, transPoint._x, transPoint._y);
     }
//--------------------------------------------------------------------------------------
     cosphi = 0.5; //  pi/3
     sinphi = 0.8660254037844386; //pi/3
     fprintf (f, "\t\tcosphi=%.2f, sinphi=%.2f, Center(%.2f, %.2f)\n", cosphi, sinphi, Center._x, Center._y);
     for(int i=0; i<NPOINTS-1; i++) {
          transPoint = Points[i].TransformToCartesianCoordinates(Center, cosphi, sinphi);
          expectedPoint = Points[i].Rotate(cosphi, sinphi);
          res += ( transPoint == expectedPoint )?1:0; //phi==0!
          ntests++;
          fprintf (f, "%2d. res=%2d, P(%.2f, %.2f), T(%.2f, %.2f), E(%.2f, %.2f)\n", ntests, res, Points[i]._x, Points[i]._y, transPoint._x, transPoint._y, expectedPoint._x, expectedPoint._y);
     }
//--------------------------------------------------------------------------------------
     cosphi = 0.5; //  -pi/3
     sinphi = -0.8660254037844386; //  -pi/3
     fprintf (f, "\t\tcosphi=%.2f, sinphi=%.2f, Center(%.2f, %.2f)\n", cosphi, sinphi, Center._x, Center._y);



     for(int i=0; i<NPOINTS-1; i++) {
          transPoint = Points[i].TransformToCartesianCoordinates(Center, cosphi, sinphi);
          expectedPoint = Points[i].Rotate(cosphi, sinphi);
          res += ( transPoint == expectedPoint )?1:0; //phi==0!
          ntests++;

          fprintf (f, "%2d. res=%2d, P(%.2f, %.2f), T(%.2f, %.2f), E(%.2f, %.2f)\n", ntests, res, Points[i]._x, Points[i]._y, transPoint._x, transPoint._y, expectedPoint._x, expectedPoint._y);

     }
//--------------------------------------------------------------------------------------

     Center._x =(1);
     Center._y =(1);
     cosphi = 0.5; //  pi/3

     sinphi = 0.8660254037844386; //pi/3

     fprintf (f, "\t\tcosphi=%.2f, sinphi=%.2f, Center(%.2f, %.2f)\n", cosphi, sinphi, Center._x, Center._y);
     for(int i=0; i<NPOINTS-1; i++) {
          transPoint = Points[i].TransformToCartesianCoordinates(Center, cosphi, sinphi);

          expectedPoint = Points[i].Rotate(cosphi, sinphi)+Center;
          res += ( transPoint == expectedPoint )?1:0; //phi==0!
          ntests++;

          fprintf (f, "%2d. res=%2d, P(%.2f, %.2f), T(%.2f, %.2f), E(%.2f, %.2f)\n", ntests, res, Points[i]._x, Points[i]._y, transPoint._x, transPoint._y, expectedPoint._x, expectedPoint._y);
     }

     fprintf (f, "\t+++++ Leave testCoordTransToCart() +++++\n\n");
     return (res==ntests)?1:0;
}