// Another unary operator overloaded, ++;
public static UnaryBinaryOperatorOverloading operator ++(UnaryBinaryOperatorOverloading op1)
{
UnaryBinaryOperatorOverloading result = new UnaryBinaryOperatorOverloading();
result.x = ++op1.x; // These are integer additions
result.y = ++op1.y; // and the + retains its original
result.z = ++op1.z; // meaning relative to them.
return(result);
}
// Overload binary, but with an integer. That way, we can add an integer to the entire object.
public static UnaryBinaryOperatorOverloading operator +(UnaryBinaryOperatorOverloading op1, int shift)
{
UnaryBinaryOperatorOverloading result = new UnaryBinaryOperatorOverloading();
result.x = op1.x - shift; // These are integer additions
result.y = op1.y - shift; // and the + retains its original
result.z = op1.z - shift; // meaning relative to them.
return(result);
}
// Interestingly enough, you can override | and & operators as well. Note however to override && and ||, we must 4 things, which
public static UnaryBinaryOperatorOverloading operator |(UnaryBinaryOperatorOverloading op1, UnaryBinaryOperatorOverloading op2)
{
UnaryBinaryOperatorOverloading result = new UnaryBinaryOperatorOverloading();
result.x = op1.x + op2.x;
result.y = op1.y + op2.y;
result.z = op1.z + op2.z;
return(result);
}
// Overload unary.
public static UnaryBinaryOperatorOverloading operator -(UnaryBinaryOperatorOverloading op1)
{
UnaryBinaryOperatorOverloading result = new UnaryBinaryOperatorOverloading();
/* Note that the result is a new object, meaning we cannot write op1.x = -op1.x, which is quite important. */
result.x = -op1.x; // These are integer additions
result.y = -op1.y; // and the + retains its original
result.z = -op1.z; // meaning relative to them.
return(result);
}
// Overload binary +.
// Pay attention to the fact the method is static. And that it takes two objects op1 and op2. Had it taken one, it would have been a uniray
// operator, which is useful for defining -op1, as shown below.
public static UnaryBinaryOperatorOverloading operator +(UnaryBinaryOperatorOverloading op1, UnaryBinaryOperatorOverloading op2)
{
UnaryBinaryOperatorOverloading result = new UnaryBinaryOperatorOverloading();
/* This adds together the coordinates of the two points
* and returns the result. */
result.x = op1.x + op2.x; // These are integer additions
result.y = op1.y + op2.y; // and the + retains its original
result.z = op1.z + op2.z; // meaning relative to them.
return(result);
}
static void Main(string[] args)
{
RefAndOur access = new RefAndOur();
int i = 5;
access.Sqr(ref i); // Very good that you have to actually give the ref here. i has to be initialized, or else we get an error.
Console.WriteLine(i);
double frac;
i = access.GetParts(12.25, out frac); // This is interesting and potentially very useful, you must declare a variable being out.
// Contrary to the above, frac does not need to be initialized.
Console.WriteLine(i + " and " + frac);
// See for yourself!
RefToRef first = new RefToRef(1);
RefToRef second = new RefToRef(2);
RefToRef third;
first.SwapCreate(ref first, ref second, out third);
Console.WriteLine(first.member + " " + second.member + " " + third.member);
// Variable input
VariableFunctionIput variable1 = new VariableFunctionIput('a', 1, 2, 3);
VariableFunctionIput variable2 = new VariableFunctionIput('a');
VariableFunctionIput variable3 = new VariableFunctionIput('a', 1);
// Conversion due to overload is important
CoversionInOverloading coversionInOverloading = new CoversionInOverloading();
// Constructor overloading.
ConstructorOverloading constructorOverloading = new ConstructorOverloading();
ConstructorOverloading constructorOverloading1 = new ConstructorOverloading(1, 1);
ConstructorOverloading constructorOverloading2 = new ConstructorOverloading(constructorOverloading1);
ConstructorOverloading constructorOverloading3 = new ConstructorOverloading(1);
// How static classes work.
StaticClass.method1(); // Can be accessed from a static class.
ClassWithStaticMembers.method1();
// Instantiating a class with a static constructor
StaticConstructor ob = new StaticConstructor(); // The good thing is that the static constructor cannot be called separately from the dynamic one.
StaticConstructor ob1 = new StaticConstructor(); // The static constructor is also only called once, which is very good!
Console.WriteLine("Cons.alpha: " + StaticConstructor.alpha);
Console.WriteLine("ob.beta: " + ob.beta);
// Instantiating classes with overloaded operator.
UnaryBinaryOperatorOverloading unaryBinary = new UnaryBinaryOperatorOverloading(1, 2, 3);
unaryBinary = -unaryBinary; // Overloaded operator.
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
unaryBinary += 5; // Overloaded operator.
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
unaryBinary = unaryBinary + unaryBinary; // Overloaded operator.
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
unaryBinary++; // Overloaded operator.
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
if (unaryBinary)
{
Console.WriteLine("This object is non-zero, hence it is a true!");
}
unaryBinary = unaryBinary | unaryBinary; // Overloaded and!
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
// Type conversion.
// This is explicit type conversion, where we explicitly perform casting to convert types.
ExplicitTypeConversion typeConversion = new ExplicitTypeConversion(1, 2, 3, 4);
unaryBinary = (UnaryBinaryOperatorOverloading)typeConversion;
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
// This is implicit type conversion, where type conversion happens without casting (which I don't think is a good idea).
ImplicitTypeConversion implicitTypeConversion = new ImplicitTypeConversion(5, 6, 7, 8);
unaryBinary = implicitTypeConversion;
Console.WriteLine(unaryBinary.x + " " + unaryBinary.y + " " + unaryBinary.z);
Console.ReadLine();
}