/// <summary>
/// Adding quantities with different storage types
/// </summary>
/// <typeparam name="Q">Second Quantity Type</typeparam>
/// <param name="firstQuantity"></param>
/// <param name="secondQuantity"></param>
/// <returns></returns>
public static AnyQuantity <T> Add <Q>(AnyQuantity <T> firstQuantity, AnyQuantity <Q> secondQuantity)
{
if (firstQuantity.Equals(secondQuantity))
{
AnyQuantity <T> AQ = null;
try
{
AQ = QuantityDimension.QuantityFrom <T>(firstQuantity.Dimension);
//exception happen when adding two derived quantities together
}
catch (QuantityNotFoundException)
{
//keep the first quantity configuration.
AQ = (AnyQuantity <T>)firstQuantity.Clone();
}
T firstVal = (firstQuantity.Value);
Q secondVal = (secondQuantity.Value);
//correct the values according to left unit or first unit.
//the resulted quantity has the values of the first unit.
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//factor from second unit to first unit
UnitPathStack stof = secondQuantity.Unit.PathToUnit(firstQuantity.Unit);
secondVal = MultiplyScalarByGeneric <Q>(stof.ConversionFactor, secondVal);
}
var expr = Expression.Add(Expression.Constant(firstVal), Expression.Constant(secondVal));
// Construct Lambda function which return one object.
Expression <Func <T> > cq = Expression.Lambda <Func <T> >(expr);
// compile the function
Func <T> aqf = cq.Compile();
// execute the function
T result = aqf();
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//assign the unit of first quantity to the result.
AQ.Unit = firstQuantity.Unit;
}
AQ.Value = result;
return(AQ);
}
else
{
throw new QuantitiesNotDimensionallyEqualException();
}
}
public static bool Inequality(AnyQuantity <T> firstQuantity, AnyQuantity <T> secondQuantity)
{
if (firstQuantity.Equals(secondQuantity))
{
if (typeof(T) == typeof(decimal) || typeof(T) == typeof(double) || typeof(T) == typeof(float) || typeof(T) == typeof(int) || typeof(T) == typeof(short))
{
#region Premitive
//use direct calculations
double firstVal = (double)(object)firstQuantity.Value;
double secondVal = (double)(object)secondQuantity.Value;
//correct the values according to left unit or first unit.
//the resulted quantity has the values of the first unit.
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//factor from second unit to first unit
UnitPathStack stof = secondQuantity.Unit.PathToUnit(firstQuantity.Unit);
secondVal = stof.ConversionFactor * secondVal;
}
return(firstVal != secondVal);
#endregion
}
else
{
#region Custom Types
T firstVal = (firstQuantity.Value);
T secondVal = (secondQuantity.Value);
//correct the values according to left unit or first unit.
//the resulted quantity has the values of the first unit.
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//factor from second unit to first unit
UnitPathStack stof = secondQuantity.Unit.PathToUnit(firstQuantity.Unit);
secondVal = MultiplyScalarByGeneric(stof.ConversionFactor, secondVal);
}
var expr = Expression.NotEqual(Expression.Constant(firstVal), Expression.Constant(secondVal));
// Construct Lambda function which return one object.
Expression <Func <bool> > cq = Expression.Lambda <Func <bool> >(expr);
// compile the function
Func <bool> aqf = cq.Compile();
// execute the function
bool result = aqf();
return(result);
#endregion
}
}
else
{
throw new QuantitiesNotDimensionallyEqualException();
}
}
public static AnyQuantity <T> Subtract(AnyQuantity <T> firstQuantity, AnyQuantity <T> secondQuantity)
{
if (firstQuantity.Equals(secondQuantity))
{
AnyQuantity <T> AQ = null;
try
{
AQ = QuantityDimension.QuantityFrom <T>(firstQuantity.Dimension);
//exception happen when adding two derived quantities together
}
catch (QuantityNotFoundException)
{
//keep the first quantity configuration.
AQ = (AnyQuantity <T>)firstQuantity.Clone();
}
if (typeof(T) == typeof(decimal) || typeof(T) == typeof(double) || typeof(T) == typeof(float) || typeof(T) == typeof(int) || typeof(T) == typeof(short))
{
//use direct calculations
double firstVal = (double)(object)firstQuantity.Value;
double secondVal = (double)(object)secondQuantity.Value;
//correct the values according to left unit or first unit.
//the resulted quantity has the values of the first unit.
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//factor from second unit to first unit
UnitPathStack stof = secondQuantity.Unit.PathToUnit(firstQuantity.Unit);
secondVal = stof.ConversionFactor * secondVal;
}
////sum the values
double result = firstVal - secondVal;
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//assign the unit of first quantity to the result.
AQ.Unit = (Unit)firstQuantity.Unit.Clone();
}
AQ.Value = (T)(object)result;
return(AQ);
}
else
{
T firstVal = (firstQuantity.Value);
T secondVal = (secondQuantity.Value);
//correct the values according to left unit or first unit.
//the resulted quantity has the values of the first unit.
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//factor from second unit to first unit
UnitPathStack stof = secondQuantity.Unit.PathToUnit(firstQuantity.Unit);
secondVal = MultiplyScalarByGeneric(stof.ConversionFactor, secondVal);
}
var expr = Expression.Subtract(Expression.Constant(firstVal), Expression.Constant(secondVal));
// Construct Lambda function which return one object.
Expression <Func <T> > cq = Expression.Lambda <Func <T> >(expr);
// compile the function
Func <T> aqf = cq.Compile();
// execute the function
T result = aqf();
if (firstQuantity.Unit != null && secondQuantity.Unit != null)
{
//assign the unit of first quantity to the result.
AQ.Unit = firstQuantity.Unit;
}
AQ.Value = result;
return(AQ);
}
}
else
{
throw new QuantitiesNotDimensionallyEqualException();
}
}