public void TestWithUndefined3()
{
var a = RealNumber.NegativeInfinity();
var b = RealNumber.NegativeInfinity();
Assert.IsTrue(a * b == RealNumber.PositiveInfinity());
}
public void TestWithUndefined5()
{
var a = new RealNumber(4);
var b = new RealNumber(0.0m);
Assert.IsTrue(a / b == RealNumber.PositiveInfinity());
}
/// <summary>
/// Returns a set of all real numbers
/// </summary>
/// <returns></returns>
internal static Set R()
=> new Set
{
Pieces = new List <Piece>
{
Piece.Interval(
Number.Create(RealNumber.NegativeInfinity(), 0),
Number.Create(RealNumber.PositiveInfinity(), 0)
).AsInterval().SetLeftClosed(false).SetRightClosed(false)
}
};
[TestMethod] public void MOOMOOI() => Test(@"-\infty - \infty i", RealNumber.PositiveInfinity() * (-1 - MathS.i));
[TestMethod] public void OOPOOI() => Test(@"\infty + \infty i", RealNumber.PositiveInfinity() * (1 + MathS.i));
[TestMethod] public void OOMI() => Test(@"\infty - i", RealNumber.PositiveInfinity() - MathS.i);
[TestMethod] public void MOOAlternate() => Test(@"-\infty ", -RealNumber.PositiveInfinity());
[TestMethod] public void OO() => Test(@"\infty ", RealNumber.PositiveInfinity());
[TestMethod] public void Undefined() => TestSimplify(@"\mathrm{undefined}", RealNumber.PositiveInfinity() / RealNumber.PositiveInfinity());
/// <summary>
/// Calls the compiled function (synonim to Call)
/// </summary>
/// <param name="variables">
/// List arguments in the same order in which you compiled the function
/// </param>
/// <returns></returns>
public ComplexNumber Substitute(params ComplexNumber[] variables)
{
if (variables.Length != varCount)
{
throw new SysException("Wrong amount of parameters");
}
Instruction instruction;
for (int i = 0; i < instructions.Count; i++)
{
instruction = instructions[i];
switch (instruction.Type)
{
case Instruction.InstructionType.PUSHVAR:
stack.Push(variables[instruction.VarNumber].AsComplex());
break;
case Instruction.InstructionType.PUSHCONST:
stack.Push(instruction.Value);
break;
case Instruction.InstructionType.CALL:
switch (instruction.FuncNumber)
{
case 0:
stack.Push(stack.Pop() + stack.Pop());
break;
case 1:
stack.Push(stack.Pop() - stack.Pop());
break;
case 2:
stack.Push(stack.Pop() * stack.Pop());
break;
case 3:
stack.Push(stack.Pop() / stack.Pop());
break;
case 4:
stack.Push(Complex.Pow(stack.Pop(), stack.Pop()));
break;
case 5:
stack.Push(Complex.Sin(stack.Pop()));
break;
case 6:
stack.Push(Complex.Cos(stack.Pop()));
break;
case 7:
stack.Push(Complex.Tan(stack.Pop()));
break;
case 8:
stack.Push(1 / Complex.Tan(stack.Pop()));
break;
case 9:
stack.Push(Complex.Log(stack.Pop(), stack.Pop().Real));
break;
case 10:
stack.Push(Complex.Asin(stack.Pop()));
break;
case 11:
stack.Push(Complex.Acos(stack.Pop()));
break;
case 12:
stack.Push(Complex.Atan(stack.Pop()));
break;
case 13:
stack.Push(Complex.Atan(1 / stack.Pop()));
break;
}
break;
case Instruction.InstructionType.PULLCACHE:
stack.Push(Cache[instruction.CacheNumber]);
break;
default:
Cache[instruction.CacheNumber] = stack.Peek();
break;
}
}
var res = stack.Pop();
RealNumber Normalize(double value)
{
if (value > maxDecimal)
{
return(RealNumber.PositiveInfinity());
}
else if (value < minDecimal)
{
return(RealNumber.NegativeInfinity());
}
else
{
return(Number.Create(value));
}
}
var re = Normalize(res.Real);
var im = Normalize(res.Imaginary);
return(Number.Create(re, im));
}
public void TestWithUndefined13()
{
Assert.IsTrue(RealNumber.PositiveInfinity() / RealNumber.NegativeInfinity() == RealNumber.NaN());
}
public void TestWithUndefined11()
{
Assert.IsTrue(RealNumber.PositiveInfinity() / 5 == RealNumber.PositiveInfinity());
}
public void TestWithUndefined10()
{
var x = new RealNumber(0.5);
Assert.IsTrue(x / RealNumber.PositiveInfinity() == 0);
}
public void TestWithUndefined9()
{
var x = new RationalNumber(Number.Create(-1), Number.Create(2));
Assert.IsTrue(x / RealNumber.PositiveInfinity() == 0);
}