/// <summary>
/// Initializes a new instance of the <see cref="TestableComplexMatrixDoubleMatrixDivision{TExpected}"/> class.
/// </summary>
/// <param name="expected">The expected result or exception.</param>
/// <param name="left">The left operand.</param>
/// <param name="right">The right operand.</param>
public TestableComplexMatrixDoubleMatrixDivision(
TExpected expected,
TestableComplexMatrix left,
TestableDoubleMatrix right) :
base(
expected,
left,
right,
leftWritableRightWritableOps:
new Func <ComplexMatrix, DoubleMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ComplexMatrix.Divide(l, r)
},
leftReadOnlyRightWritableOps:
new Func <ReadOnlyComplexMatrix, DoubleMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ReadOnlyComplexMatrix.Divide(l, r)
},
leftWritableRightReadOnlyOps:
new Func <ComplexMatrix, ReadOnlyDoubleMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ComplexMatrix.Divide(l, r)
},
leftReadOnlyRightReadOnlyOps:
new Func <ReadOnlyComplexMatrix, ReadOnlyDoubleMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ReadOnlyComplexMatrix.Divide(l, r)
}
)
{
}
public void Main()
{
// Create the left operand.
var data = new Complex[4] {
new Complex(0, 0), new Complex(2, 2),
new Complex(1, 1), new Complex(3, 3)
};
var left = ComplexMatrix.Dense(2, 2, data, StorageOrder.RowMajor);
Console.WriteLine("left =");
Console.WriteLine(left);
// Create the right operand.
data = new Complex[6] {
new Complex(1, -1), new Complex(5, -5),
new Complex(2, -2), new Complex(6, -6),
new Complex(3, -3), new Complex(7, -7)
};
var right = ComplexMatrix.Dense(3, 2, data, StorageOrder.RowMajor);
Console.WriteLine("right =");
Console.WriteLine(right);
// Divide left by right.
var result = left / right;
Console.WriteLine();
Console.WriteLine("left / right =");
Console.WriteLine(result);
// In .NET languages that do not support overloaded operators,
// you can use the alternative methods named Divide.
result = ComplexMatrix.Divide(left, right);
Console.WriteLine();
Console.WriteLine("ComplexMatrix.Divide(left, right) returns");
Console.WriteLine();
Console.WriteLine(result);
// Both operators and alternative methods are overloaded to
// support read-only matrix arguments.
// Compute the division using a read-only wrapper of left.
ReadOnlyComplexMatrix readOnlyLeft = left.AsReadOnly();
result = readOnlyLeft / right;
Console.WriteLine();
Console.WriteLine("readOnlyLeft / right =");
Console.WriteLine(result);
}
public TestableComplexMatrixDoubleScalarDivision(
TExpected expected,
TestableComplexMatrix left,
double right) :
base(
expected,
left,
right,
leftWritableRightScalarOps:
new Func <ComplexMatrix, double, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ComplexMatrix.Divide(l, r)
},
leftReadOnlyRightScalarOps:
new Func <ReadOnlyComplexMatrix, double, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ReadOnlyComplexMatrix.Divide(l, r)
}
)
{
}
public TestableDoubleScalarComplexMatrixDivision(
TExpected expected,
double left,
TestableComplexMatrix right) :
base(
expected,
left,
right,
leftScalarRightWritableOps:
new Func <double, ComplexMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ComplexMatrix.Divide(l, r)
},
leftScalarRightReadOnlyOps:
new Func <double, ReadOnlyComplexMatrix, ComplexMatrix>[2] {
(l, r) => l / r,
(l, r) => ReadOnlyComplexMatrix.Divide(l, r)
}
)
{
}
