public Scale(double scale, dc_Func input) : base(input)
{
_scale = scale;
}
public Affine2(double scale, double shift, dc_Func input) : base(input)
{
_shift = shift; _scale = scale;
}
public Square(dc_Func input) : base(input)
{
}
public Abs(dc_Func input) : base(input)
{
}
public void AddEQ(dc_Func f, dc_Func g)
{
_equalities.Add(new dc_FGPair(f, g));
}
public Diff(dc_Func input1, dc_Func input2) : base(input1, input2)
{
}
public void AddLE(dc_Func f, dc_Func g)
{
_inequalities.Add(new dc_FGPair(f, g));
}
public void AddGE(dc_Func f, dc_Func g)
{
AddLE(g, f);
}
public dc_Func Fn_Abs(dc_Func input)
{
return(new dc_Ops.Abs(input));
}
public void SetObjective(dc_Func f, dc_Func g)
{
_objective = new dc_FGPair(f, g);
}
public dc_Func Fn_Square(dc_Func input)
{
return(new dc_Ops.Square(input));
}
public dc_Func Fn_Diff(dc_Func input1, dc_Func input2)
{
return(new dc_Ops.Diff(input1, input2));
}
public dc_Func Fn_Affine(double scale, double shift, dc_Func input)
{
return(new dc_Ops.Affine2(scale, shift, input));
}
public dc_Func Fn_Negative(dc_Func input)
{
return(new dc_Ops.Scale(-1, input));
}
public dc_Func Fn_Scale(double scale, dc_Func input)
{
return(new dc_Ops.Scale(scale, input));
}