public void VerifyAllEnums()
{
var acceleration = new Acceleration(1, AccelerationUnit.BaseUnit);
var angle = new Angle(1, AngleUnit.BaseUnit);
var angularAcceleration = new AngularAcceleration(1, AngularAccelerationUnit.BaseUnit);
var area = new Area(1, AreaUnit.BaseUnit);
var density = new MassDensity(1, MassDensityUnit.BaseUnit);
var electricCurrent = new ElectricCurrent(1, ElectricCurrentUnit.BaseUnit);
var electricResistance = new ElectricResistance(1, ElectricResistanceUnit.BaseUnit);
var electricVoltage = new ElectricPotential(1, ElectricPotentialUnit.BaseUnit);
var energy = new Energy(1, EnergyUnit.BaseUnit);
var force = new Force(1, ForceUnit.BaseUnit);
var frequency = new Frequency(1, FrequencyUnit.BaseUnit);
var jerk = new Jerk(1, JerkUnit.BaseUnit);
var length = new Length(1, LengthUnit.BaseUnit);
var mass = new Mass(1, MassUnit.BaseUnit);
var massFlowRate = new MassFlowRate(1, MassFlowRateUnit.BaseUnit);
var momentum = new Momentum(1, MomentumUnit.BaseUnit);
var numeric = new Numeric(1, NumericUnit.BaseUnit);
var power = new Power(1, PowerUnit.BaseUnit);
var pressure = new Pressure(1, PressureUnit.BaseUnit);
var speed = new Speed(1, SpeedUnit.BaseUnit);
var temperature = new Temperature(1, TemperatureUnit.BaseUnit);
var time = new Time(1, TimeUnit.BaseUnit);
var torque = new Torque(1, TorqueUnit.BaseUnit);
var volume = new Volume(1, VolumeUnit.BaseUnit);
var volumetricFlowRate = new VolumetricFlowRate(1, VolumetricFlowRateUnit.BaseUnit);
}
public void OpAddition()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(1, ElectricPotentialUnit.Kilovolt);
var expected = new ElectricPotential(4000, ElectricPotentialUnit.Volt);
(voltage1 + voltage2).ShouldEqual(expected);
(voltage2 + voltage1).ShouldEqual(expected);
}
/// <summary>
/// Initializes a new instance of the <see cref="AmplitudeRatio"/> struct from the specified electric potential
/// referenced to one volt RMS. This assumes both the specified electric potential and the one volt reference have the same
/// resistance.
/// </summary>
/// <param name="voltage">The electric potential referenced to one volt.</param>
public AmplitudeRatio(ElectricPotential voltage)
: this()
{
if (voltage.Volts <= 0)
throw new ArgumentOutOfRangeException(
"voltage", "The base-10 logarithm of a number ≤ 0 is undefined. Voltage must be greater than 0 V.");
// E(dBV) = 20*log10(value(V)/reference(V))
_decibelVolts = 20 * Math.Log10(voltage / ElectricPotential.FromVolts(1));
}
public void OpDivision()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(3, ElectricPotentialUnit.Kilovolt);
(voltage1 / voltage2).ShouldBeWithinEpsilonOf(1);
(voltage2 / voltage1).ShouldBeWithinEpsilonOf(1);
(voltage1 / 2).ShouldEqual(new ElectricPotential(1500, ElectricPotentialUnit.Volt));
(voltage2 / 2).ShouldEqual(new ElectricPotential(1.5, ElectricPotentialUnit.Kilovolt));
}
public void OpInverseEquals()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(3, ElectricPotentialUnit.Kilovolt);
var voltage3 = new ElectricPotential(10, ElectricPotentialUnit.Kilovolt);
(voltage1 != voltage2).ShouldBeFalse();
(voltage2 != voltage1).ShouldBeFalse();
(voltage1 != voltage3).ShouldBeTrue();
(voltage3 != voltage1).ShouldBeTrue();
}
public void OpGreaterThanOrEqual()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(3, ElectricPotentialUnit.Kilovolt);
var voltage3 = new ElectricPotential(10, ElectricPotentialUnit.Kilovolt);
(voltage1 >= voltage3).ShouldBeFalse();
(voltage3 >= voltage1).ShouldBeTrue();
(voltage1 >= voltage2).ShouldBeTrue();
(voltage2 >= voltage1).ShouldBeTrue();
}
public void OpEquals()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(3, ElectricPotentialUnit.Kilovolt);
var voltage3 = new ElectricPotential(10, ElectricPotentialUnit.Kilovolt);
(voltage1 == voltage2).ShouldBeTrue();
(voltage2 == voltage1).ShouldBeTrue();
(voltage1 == voltage3).ShouldBeFalse();
(voltage3 == voltage1).ShouldBeFalse();
voltage1.Equals(voltage2)
.ShouldBeTrue();
voltage1.Equals((object)voltage2)
.ShouldBeTrue();
voltage2.Equals(voltage1)
.ShouldBeTrue();
voltage2.Equals((object)voltage1)
.ShouldBeTrue();
}
/// <inheritdoc cref="ElectricPotential.FromMicrovolts(double?)"/> public static ElectricPotential?Microvolts(this float?value) => ElectricPotential.FromMicrovolts(value);
/// <inheritdoc cref="ElectricPotential.FromMegavolts(double)"/> public static ElectricPotential Megavolts(this float value) => ElectricPotential.FromMegavolts(value);
public void ElectricCurrentMultipliedByElectricPotentialEqualsPower()
{
Power p = ElectricCurrent.FromAmperes(2) * ElectricPotential.FromVolts(10);
Assert.Equal(20, p.Watts);
}
public void NegationOperator_ReturnsQuantity_WithNegatedValue(double value)
{
var quantity = ElectricPotential.FromVolts(value);
Assert.Equal(ElectricPotential.FromVolts(-value), -quantity);
}
public void Convert_ChangeType_InvalidType_ThrowsInvalidCastException()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Throws <InvalidCastException>(() => Convert.ChangeType(quantity, typeof(QuantityFormatter)));
}
public void Convert_ChangeType_QuantityType_EqualsQuantityType()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(QuantityType.ElectricPotential, Convert.ChangeType(quantity, typeof(QuantityType)));
}
public void Convert_ToString_EqualsToString()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(quantity.ToString(), Convert.ToString(quantity));
}
public void OpMultiplicationScaler()
{
var voltage = new ElectricPotential(1, ElectricPotentialUnit.Volt);
var expected = new ElectricPotential(2, ElectricPotentialUnit.Volt);
(voltage * 2).ShouldEqual(expected);
(2 * voltage).ShouldEqual(expected);
}
/// <summary>
/// Initializes a new instance of the <see cref="Tmp36Connection"/> class.
/// </summary>
/// <param name="inputPin">The input pin.</param>
/// <param name="referenceVoltage">The reference voltage.</param>
public Tmp36Connection(IInputAnalogPin inputPin, ElectricPotential referenceVoltage)
{
this.inputPin = inputPin;
this.referenceVoltage = referenceVoltage;
}
public void OpLessThan()
{
var voltage1 = new ElectricPotential(3000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(3, ElectricPotentialUnit.Kilovolt);
var voltage3 = new ElectricPotential(10, ElectricPotentialUnit.Kilovolt);
(voltage1 < voltage3).ShouldBeTrue();
(voltage3 < voltage1).ShouldBeFalse();
(voltage1 < voltage2).ShouldBeFalse();
(voltage2 < voltage1).ShouldBeFalse();
}
/// <inheritdoc cref="ElectricPotential.FromMicrovolts(double?)"/> public static ElectricPotential?Microvolts(this decimal?value) => ElectricPotential.FromMicrovolts(value == null ? (double?)null : Convert.ToDouble(value.Value));
public void Convert_ChangeType_SelfType_EqualsSelf()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(quantity, Convert.ChangeType(quantity, typeof(ElectricPotential)));
}
public void ToBaseUnit_ReturnsQuantityWithBaseUnit()
{
var quantityInBaseUnit = ElectricPotential.FromVolts(1).ToBaseUnit();
Assert.Equal(ElectricPotential.BaseUnit, quantityInBaseUnit.Unit);
}
public void OpSubtraction()
{
var voltage1 = new ElectricPotential(7000, ElectricPotentialUnit.Volt);
var voltage2 = new ElectricPotential(1, ElectricPotentialUnit.Kilovolt);
(voltage1 - voltage2).ShouldEqual(new ElectricPotential(6000, ElectricPotentialUnit.Volt));
(voltage2 - voltage1).ShouldEqual(new ElectricPotential(-6, ElectricPotentialUnit.Kilovolt));
}
public void Convert_ToSingle_EqualsValueAsSameType()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal((float)quantity.Value, Convert.ToSingle(quantity));
}
public void CompareToThrowsOnTypeMismatch()
{
ElectricPotential volt = ElectricPotential.FromVolts(1);
Assert.Throws <ArgumentException>(() => volt.CompareTo(new object()));
}
public void Convert_ToUInt64_EqualsValueAsSameType()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal((ulong)quantity.Value, Convert.ToUInt64(quantity));
}
public void CompareToThrowsOnNull()
{
ElectricPotential volt = ElectricPotential.FromVolts(1);
Assert.Throws <ArgumentNullException>(() => volt.CompareTo(null));
}
public void Convert_ChangeType_UnitType_EqualsUnit()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(quantity.Unit, Convert.ChangeType(quantity, typeof(ElectricPotentialUnit)));
}
public void Equals_NegativeRelativeTolerance_ThrowsArgumentOutOfRangeException()
{
var v = ElectricPotential.FromVolts(1);
Assert.Throws <ArgumentOutOfRangeException>(() => v.Equals(ElectricPotential.FromVolts(1), -1, ComparisonType.Relative));
}
public void Convert_ChangeType_BaseDimensions_EqualsBaseDimensions()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(ElectricPotential.BaseDimensions, Convert.ChangeType(quantity, typeof(BaseDimensions)));
}
public void EqualsReturnsFalseOnTypeMismatch()
{
ElectricPotential volt = ElectricPotential.FromVolts(1);
Assert.False(volt.Equals(new object()));
}
public void GetHashCode_Equals()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(new { ElectricPotential.QuantityType, quantity.Value, quantity.Unit }.GetHashCode(), quantity.GetHashCode());
}
public void EqualsReturnsFalseOnNull()
{
ElectricPotential volt = ElectricPotential.FromVolts(1);
Assert.False(volt.Equals(null));
}
public void ElectricCurrentTimesElectricResistanceEqualsElectricPotential(float current, float resistance, float expected)
{
ElectricPotential potential = ElectricCurrent.FromAmperes(current) * ElectricResistance.FromOhms(resistance);
Assert.Equal(expected, potential.Volts);
}
public void ToString_NullArgs_ThrowsArgumentNullException()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Throws <ArgumentNullException>(() => quantity.ToString(null, "g", null));
}
protected void Read()
{
//read data from SPI channel
prevSample = sample;
sample = referenceVoltage * (double)spiInput.Read().Relative;
}
public void ToString_NullProvider_EqualsCurrentUICulture()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal(quantity.ToString(CultureInfo.CurrentUICulture, "g"), quantity.ToString(null, "g"));
}
/// <inheritdoc cref="ElectricPotential.FromMicrovolts(double)"/> public static ElectricPotential Microvolts(this double value) => ElectricPotential.FromMicrovolts(value);
public void Convert_ToDateTime_ThrowsInvalidCastException()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Throws <InvalidCastException>(() => Convert.ToDateTime(quantity));
}
/// <inheritdoc cref="ElectricPotential.FromMicrovolts(double)"/> public static ElectricPotential Microvolts(this decimal value) => ElectricPotential.FromMicrovolts(Convert.ToDouble(value));
public void Convert_ToDecimal_EqualsValueAsSameType()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal((decimal)quantity.Value, Convert.ToDecimal(quantity));
}
/// <inheritdoc cref="ElectricPotential.FromMillivolts(double)"/> public static ElectricPotential Millivolts(this int value) => ElectricPotential.FromMillivolts(value);
public void Convert_ToInt32_EqualsValueAsSameType()
{
var quantity = ElectricPotential.FromVolts(1.0);
Assert.Equal((int)quantity.Value, Convert.ToInt32(quantity));
}
/// <summary>
/// Gets an <see cref="AmplitudeRatio"/> in decibels (dB) relative to 1 volt RMS from an <see cref="ElectricPotential"/>.
/// </summary>
/// <param name="voltage">The voltage (electric potential) relative to one volt RMS.</param>
public static AmplitudeRatio FromElectricPotential(ElectricPotential voltage)
{
return new AmplitudeRatio(voltage);
}
/// <summary>
/// Initializes a new instance of the <see cref="Mcp9701a"/> class.
/// </summary>
/// <param name="inputPin">The input pin.</param>
/// <param name="referenceVoltage">The reference voltage.</param>
public Mcp9701a(InputAnalogPin inputPin, ElectricPotential referenceVoltage)
{
this.inputPin = inputPin;
this.referenceVoltage = referenceVoltage;
}