public void CanConvertLiterToMeterCubed()
{
const decimal liters = 1000m;
const decimal expectedCubicMeters = liters / 1000m;
var cubicMeters = MeterConverter.ToMetersFrom(liters, Volume.Liter);
Assert.Equal(expectedCubicMeters, cubicMeters);
}
/// <summary>
/// Multiplies the constant density of water and gravity of earth by the radius of the
/// pool to find the total internal pressure, measured in Pascals.
/// </summary>
/// <param name="radius"></param>
/// <returns></returns>
private static decimal GetInternalPressure(Length radius)
{
var waterDensity = new WaterDensity();
var gravity = new Gravity();
var radiusInMeters = MeterConverter.ToMetersFrom(radius.Value, radius.UnitOfMeasure);
var result = waterDensity.Value * gravity.Value * radiusInMeters;
return(result);
}
/// <summary>
/// Multiplies the wall's thickness by its tensile strength to find the maximum
/// internal pressure that it can withstand, measured in Kilograms per second square.
/// </summary>
/// <param name="wallMaterial">The material that the wall is made of.</param>
/// <returns></returns>
private static decimal GetMaximumInternalPressureWallCanWithstand(IWallMaterial wallMaterial)
{
var wallMaterialThicknessInMeters = MeterConverter.ToMetersFrom(
wallMaterial.Thickness.Value,
wallMaterial.Thickness.UnitOfMeasure
);
var wallMaterialTensileStrengthInPascals = PascalConverter.ToPascalFrom(
wallMaterial.TensileStrength.Value,
wallMaterial.TensileStrength.UnitOfMeasure
);
var result = wallMaterialThicknessInMeters * wallMaterialTensileStrengthInPascals;
return(result);
}
