public override double Calc()
{
var rad1 = SolverUtils.Hypot(arc1.Center.X.Value - arc1.StartX, arc1.Center.Y.Value - arc1.StartY);
var temp = rad1 - circle1.Radius.Value;
return(temp * temp);
}
public override double Calc()
{
var temp = SolverUtils.Hypot(L1.P2.X.Value - L1.P1.X.Value, L1.P2.Y.Value - L1.P1.Y.Value) -
SolverUtils.Hypot(L2.P2.X.Value - L2.P1.X.Value, L2.P2.Y.Value - L2.P1.Y.Value);
return(temp * temp);
}
public override double Calc()
{
var dx = L1.P2.X.Value - L1.P1.X.Value;
var dy = L1.P2.Y.Value - L1.P1.Y.Value;
var hyp = SolverUtils.Hypot(dx, dy);
//Calculate the expected tangent intersection points
var rpx = circle1.Center.X.Value - dy / hyp * circle1.Radius.Value;
var rpy = circle1.Center.Y.Value + dx / hyp * circle1.Radius.Value;
var rpxN = circle1.Center.X.Value + dy / hyp * circle1.Radius.Value;
var rpyN = circle1.Center.Y.Value - dx / hyp * circle1.Radius.Value;
var error1 = (-dy * rpx + dx * rpy + (L1.P1.X.Value * L1.P2.Y.Value - L1.P2.X.Value * L1.P1.Y.Value)) / hyp;
var error2 = (-dy * rpxN + dx * rpyN + (L1.P1.X.Value * L1.P2.Y.Value - L1.P2.X.Value * L1.P1.Y.Value)) / hyp;
error1 = error1 * error1;
error2 = error2 * error2;
var error = 0.0;
if (error1 < error2)
{
error += error1;
}
else
{
error += error2;
}
return(error);
}
public override double Calc()
{
var rad1 = SolverUtils.Hypot(arc1.Center.X.Value - arc1.StartX, arc1.Center.Y.Value - Arc1StartY);
var rad2 = SolverUtils.Hypot(arc1.Center.X.Value - arc1.EndX, arc1.Center.Y.Value - arc1.EndY);
var temp = rad1 - Radius;
return(temp * temp);
}
public override double Calc()
{
//see what the current radius to the point is
var rad1 = SolverUtils.Hypot(circle1.Center.X.Value - P1.X.Value, circle1.Center.Y.Value - P1.Y.Value);
//Compare this radius to the radius of the circle, return the error squared
var temp = rad1 - circle1.Radius.Value;
return(temp * temp);
}
public override double Calc()
{
var rad1 = SolverUtils.Hypot(arc1.Center.X.Value - P1.X.Value, arc1.Center.Y.Value - P1.Y.Value);
var rad2 = SolverUtils.Hypot(arc1.Center.X.Value - arc1.StartX, arc1.Center.Y.Value - arc1.StartX);
//Compare this radius to the radius of the circle, return the error squared
var temp = rad1 - rad2;
return(temp * temp);
}
public override double Calc()
{
var dx = L1.P2.X.Value - L1.P1.X.Value;
var dy = L1.P2.Y.Value - L1.P1.Y.Value;
var t = -(L1.P1.X.Value * dx - P1.X.Value * dx + L1.P1.Y.Value * dy - P1.Y.Value * dy) / (dx * dx + dy * dy);
var xint = L1.P1.X.Value + dx * t;
var yint = L1.P1.Y.Value + dy * t;
var temp = SolverUtils.Hypot((P1.X.Value - xint), (P1.Y.Value - yint)) - Distance;
return(temp * temp / 10);
}
public override double Calc()
{
var dx = L1.P2.X.Value - L1.P1.X.Value;
var dy = L1.P2.Y.Value - L1.P1.Y.Value;
var dx2 = L2.P2.X.Value - L2.P1.X.Value;
var dy2 = L2.P2.Y.Value - L2.P1.Y.Value;
var hyp1 = SolverUtils.Hypot(dx, dy);
var hyp2 = SolverUtils.Hypot(dx2, dy2);
dx = dx / hyp1;
dy = dy / hyp1;
dx2 = dx2 / hyp2;
dy2 = dy2 / hyp2;
var temp = dy * dx2 - dx * dy2;
return((temp) * (temp));
}
public override double Calc()
{
var temp = SolverUtils.Hypot(arc1.Center.X.Value - arc2.Center.X.Value, arc1.Center.X.Value - arc2.Center.Y.Value);
return(temp * temp);
}
public override double Calc()
{
var temp = SolverUtils.Hypot(circle1.Center.X.Value - circle2.Center.X.Value, circle1.Center.Y.Value - circle2.Center.Y.Value);
return(temp * temp);
}
