private AnyQuantity CalcHead()
{
var rho = SIUnitSystem.GetUnitizedQuantityOf <Density>((double)numDensity.Value);
var v = SIUnitSystem.GetUnitizedQuantityOf <Velocity>((double)numVelocity.Value);
var l = SIUnitSystem.Default <Metre>((double)numLength.Value);
var d = SIUnitSystem.Default <Metre>((double)numDiameter.Value);
var mue = SIUnitSystem.GetUnitizedQuantityOf <Viscosity>((double)numViscosity.Value);
var g2 = SIUnitSystem.GetUnitizedQuantityOf <Acceleration>(2 * 9.8);
var reynolds = CalcReynolds();
var f = 64 / reynolds.Value;
var fl = l * f;
var result = (fl / d) * (v * v / g2);
return(result);
}
static void test4()
{
Console.WriteLine();
Console.WriteLine("Test 4");
var l = SIUnitSystem.Default <Metre>(100);
var s = SIUnitSystem.Default <Second>(5);
var speed = l / s;
Console.WriteLine(speed.ToString());
var acceleration = speed / s;
Console.WriteLine(acceleration.ToString());
var f1 = SIUnitSystem.Default <Newton>(10);
var mass = SIUnitSystem.Mega <Gram>(10);
var f2 = mass * acceleration;
Console.WriteLine(f2.ToString());
var m = SIUnitSystem.Default <Metre>(10);
var result = (f2 - f1) * m;
Console.WriteLine(result.ToString());
}
static void test5()
{
Console.WriteLine();
Console.WriteLine("Test 5");
var t = SIUnitSystem.GetUnitizedQuantityOf <Torque>(100);
var f = SIUnitSystem.Default <Newton>(5);
var a = SIUnitSystem.GetUnitizedQuantityOf <Angle>(Math.PI);
var e = t * a;
var l = t / f;
var wr = f * l;
Console.WriteLine(e.ToString());
Console.WriteLine(l.ToString());
var a2 = e / t;
Console.WriteLine(a2.ToString());
}
static void test6()
{
Console.WriteLine();
Console.WriteLine("Test 6");
var pre = SIUnitSystem.Default <Pascal>(100);
var ts = SIUnitSystem.Default <Second>(12);
var tpr = pre * ts;
Console.WriteLine(tpr.ToString());
var vis = SIUnitSystem.GetUnitizedQuantityOf <Viscosity>(100);
Console.WriteLine(vis.ToString());
var a = SIUnitSystem.Default <Radian>(100);
var t = SIUnitSystem.Milli <Second>(35.5);
var angularSpeed = a / t;
Console.WriteLine(a / t);
Torque tor = (Torque)SIUnitSystem.GetUnitizedQuantityOf <Torque>(100);
Console.WriteLine(tor.ToString());
Console.WriteLine(tor * angularSpeed);
}
static void test1()
{
Console.WriteLine();
Console.WriteLine("Test 1");
var g = SIUnitSystem.Default <Gram>(100);
var m = SIUnitSystem.Default <Metre>(10);
var result = g * m; //1000 <g.m>
Console.WriteLine(result.ToString());
var kg = SIUnitSystem.Kilo <Gram>(100);
var km = SIUnitSystem.Kilo <Metre>(100);
result = kg * km; //10000 <kg.km>
Console.WriteLine(result.ToString()); //should be fixed
var acc = SIUnitSystem.GetUnitizedQuantityOf <Acceleration>(10);
result = kg * acc; //1000 N
Console.WriteLine(result.ToString()); //error, fixed
var l = SIUnitSystem.Kilo <Metre>(20);
var t = SIUnitSystem.Milli <Second>(10);
var velocity = l / t; // kilo/milli == 3 - -3 = 6=> 2 Mm/s
Console.WriteLine(velocity.ToString()); //velocity.
var kacc = velocity / t; // Mm/s /ms== 6 --3=9 => Gm/s^2
Console.WriteLine(kacc.ToString()); // acceleration.
result = g * kacc; //MN
Console.WriteLine(result.ToString());
result = kg * kacc; //GN
Console.WriteLine(result.ToString());
var Mg = SIUnitSystem.Mega <Gram>(200);
result = Mg * kacc; //TN
Console.WriteLine(result.ToString());
var kw = SIUnitSystem.Kilo <Watt>(100);
result = kw * t; //Kilo*Milli 3 + -3 =0 J
Console.WriteLine(result.ToString());
result = result / SIUnitSystem.Milli <Newton>(3); // J/mN == km
Console.WriteLine(result);
}
static void test3()
{
Console.WriteLine();
Console.WriteLine("Test 3");
var kPa = SIUnitSystem.Kilo <Pascal>(100);
var s = SIUnitSystem.Default <Second>(10);
var result = kPa * s; //viscosity
Console.WriteLine(result);
}
static void test2()
{
Console.WriteLine();
Console.WriteLine("Test 2");
var kw = SIUnitSystem.Kilo <Watt>(100);
var s = SIUnitSystem.Default <Second>(10);
var a = SIUnitSystem.GetUnitizedQuantityOf <Area>(50);
var p = SIUnitSystem.Kilo <Pascal>(5.5);
var result = kw * s / a / p;
Console.WriteLine(result);
}
private AnyQuantity CalcReynolds()
{
var rho = SIUnitSystem.GetUnitizedQuantityOf <Density>((double)numDensity.Value);
var v = SIUnitSystem.GetUnitizedQuantityOf <Velocity>((double)numVelocity.Value);
var l = SIUnitSystem.Default <Metre>((double)numLength.Value);
var d = SIUnitSystem.Default <Metre>((double)numDiameter.Value);
var mue = SIUnitSystem.GetUnitizedQuantityOf <Viscosity>((double)numViscosity.Value);
return(rho * v * d / mue);
}
private void button2_Click(object sender, EventArgs e)
{
var a = SIUnitSystem.Default <Radian>((double)numAngle.Value);
var time = SIUnitSystem.Default <Second>((double)numTime.Value);
var rl = new Length(1, LengthType.Radius);
rl.Unit = SIUnitSystem.UnitOf(rl);
rl.Value = (double)numRL.Value;
var l = SIUnitSystem.Default <Metre>((double)numRL.Value);
var f = SIUnitSystem.Default <Newton>((double)numForce.Value);
var Torque = f * rl;
lblTorque.Text = Torque.ToString();
var work = f * l;
lblWork.Text = work.ToString();
var AngularSpeed = a / time;
lblAngularSpeed.Text = AngularSpeed.ToString();
var power = Torque * AngularSpeed;
lblPower.Text = power.ToString();
}
