public void OhmsLawInBaseUnits()
{
var volts = ElectricPotential.Si <Volt>(12);
var ampere = ElectricCurrent.Si <Ampere>(3);
var expected = ElectricalResistance.Si <Ohm>(4);
var resistance = volts / ampere;
resistance.Matches(expected);
}
public void OhmsLawInPrefixedUnits()
{
var volts = ElectricPotential.Si <Milli, Volt>(12);
var ampere = ElectricCurrent.Si <Micro, Ampere>(3);
var expected = ElectricalResistance.Si <Kilo, Ohm>(4);
var resistance = volts / ampere;
resistance.Matches(expected);
}
public void PowerLawInBaseUnits()
{
var watts = Power.Si <Watt>(1380);
var ampere = ElectricCurrent.Si <Ampere>(6);
var expected = ElectricPotential.Si <Volt>(230);
var potential = watts / ampere;
potential.Matches(expected);
}
public void OhmsLawInBaseUnits()
{
var ohm = ElectricalResistance.Si <Ohm>(7);
var ampere = ElectricCurrent.Si <Ampere>(3);
var expected = ElectricPotential.Si <Volt>(21);
var potential = ohm * ampere;
potential.Matches(expected);
}
public void OhmsLawInPrefixedUnits()
{
var ohm = ElectricalResistance.Si <Kilo, Ohm>(7);
var ampere = ElectricCurrent.Si <Micro, Ampere>(3);
var expected = ElectricPotential.Si <Milli, Volt>(21);
var potential = ohm * ampere;
potential.Matches(expected);
}
public void PowerLawInBaseUnits()
{
var volts = ElectricPotential.Si <Volt>(12);
var ampere = ElectricCurrent.Si <Ampere>(3);
var expected = Power.Si <Watt>(36);
var power = volts * ampere;
power.Matches(expected);
}
public void PowerLawInPrefixedUnits()
{
var watts = Power.Si <Mega, Watt>(9);
var volts = ElectricPotential.Si <Kilo, Volt>(15);
var expected = ElectricCurrent.Si <Kilo, Ampere>(0.6);
var current = watts / volts;
current.Matches(expected);
}
public void PowerLawInBaseUnits()
{
var watts = Power.Si <Watt>(1380);
var volts = ElectricPotential.Si <Volt>(230);
var expected = ElectricCurrent.Si <Ampere>(6);
var current = watts / volts;
current.Matches(expected);
}
public void OhmsLawInPrefixedUnits()
{
var volts = ElectricPotential.Si <Kilo, Volt>(12);
var ohm = ElectricalResistance.Si <Mega, Ohm>(3);
var expected = ElectricCurrent.Si <Milli, Ampere>(4);
var current = volts / ohm;
current.Matches(expected);
}
public void OhmsLaw_SquarePotentialPerResistance()
{
var volts = ElectricPotential.Si <Kilo, Volt>(0.6);
var ohm = ElectricalResistance.Si <Kilo, Ohm>(3);
// ToDo: Implement rounding based on value!
var expected = Power.Si <Kilo, Watt>(0.120);
var power = volts * (volts / ohm);
power.Matches(expected);
}
public void OhmsLawInPrefixedUnits()
{
var volts = ElectricPotential.Si <Kilo, Volt>(70);
var ampere = ElectricCurrent.Si <Milli, Ampere>(300);
// ToDo: Implement rounding based on value!
var expected = Power.Si <Watt>(21000);
var power = ampere * volts;
power.Matches(expected);
}
public void PowerLawInPrefixedUnits()
{
var watts = Power.Si <Mega, Watt>(9);
var volts = ElectricPotential.Si <Kilo, Volt>(15);
var ampere = ElectricCurrent.Si <Ampere>(600);
// ToDo: Implement rounding based on value!
var expected = ElectricPotential.Si <Mega, Volt>(0.015);
var potential = watts / ampere;
potential.Matches(expected);
}
public void MilliVoltToString() => FormattingMatches(v => ElectricPotential.Si <Milli, Volt>(v), "mV");
public void MegaVoltToString() => FormattingMatches(v => ElectricPotential.Si <Mega, Volt>(v), "MV");
public void VoltToString() => FormattingMatches(v => ElectricPotential.Si <Volt>(v), "V");