Uses of Interface
org.episteme.core.measure.quantity.ElectricPotential
Packages that use ElectricPotential
Package
Description
Implements a comprehensive units framework enabling type-safe
Defines interfaces for physical quantities, organized by
Provides classes and interfaces for org.episteme.natural.device.sim.
-
Uses of ElectricPotential in org.episteme.core.measure
Fields in org.episteme.core.measure with type parameters of type ElectricPotentialModifier and TypeFieldDescriptionstatic final Unit<ElectricPotential> Units.VOLTVolt: V (electric potential). 1 V = 1 W/A = 1 J/(Aâ‹…s)Methods in org.episteme.core.measure that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> QuantityUtils.volts(double value) -
Uses of ElectricPotential in org.episteme.core.measure.quantity
Subinterfaces with type arguments of type ElectricPotential in org.episteme.core.measure.quantity -
Uses of ElectricPotential in org.episteme.core.measure.units
Fields in org.episteme.core.measure.units with type parameters of type ElectricPotential -
Uses of ElectricPotential in org.episteme.natural.chemistry
Methods in org.episteme.natural.chemistry that return types with arguments of type ElectricPotentialConstructor parameters in org.episteme.natural.chemistry with type arguments of type ElectricPotentialModifierConstructorDescriptionChemicalCouple(String oxidant, String reductant, Quantity<ElectricPotential> e0) -
Uses of ElectricPotential in org.episteme.natural.chemistry.electrochemistry
Methods in org.episteme.natural.chemistry.electrochemistry that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> NernstEquation.calculatePotential(Quantity<ElectricPotential> standardPotential, Quantity<Temperature> temperature, int electrons, double reactionQuotient) Calculates the cell potential under non-standard conditions.static Quantity<ElectricPotential> NernstEquation.calculatePotentialAt25C(Quantity<ElectricPotential> standardPotential, int electrons, double reactionQuotient) Simplified Nernst equation at 25°C (298.15 K).GalvanicCell.getStandardPotential()Calculates the standard cell potential.HalfCell.getStandardPotential()Method parameters in org.episteme.natural.chemistry.electrochemistry with type arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> NernstEquation.calculatePotential(Quantity<ElectricPotential> standardPotential, Quantity<Temperature> temperature, int electrons, double reactionQuotient) Calculates the cell potential under non-standard conditions.static Quantity<ElectricPotential> NernstEquation.calculatePotentialAt25C(Quantity<ElectricPotential> standardPotential, int electrons, double reactionQuotient) Simplified Nernst equation at 25°C (298.15 K).Constructor parameters in org.episteme.natural.chemistry.electrochemistry with type arguments of type ElectricPotentialModifierConstructorDescriptionHalfCell(String reaction, Quantity<ElectricPotential> standardPotential) -
Uses of ElectricPotential in org.episteme.natural.device.sensors
Subinterfaces with type arguments of type ElectricPotential in org.episteme.natural.device.sensorsMethods in org.episteme.natural.device.sensors that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionOscilloscope.getTriggerLevel()Oscilloscope.getVoltageScale(int channel) Method parameters in org.episteme.natural.device.sensors with type arguments of type ElectricPotentialModifier and TypeMethodDescriptionvoidOscilloscope.setTriggerLevel(Quantity<ElectricPotential> volts) voidOscilloscope.setVoltageScale(int channel, Quantity<ElectricPotential> voltsPerDivision) -
Uses of ElectricPotential in org.episteme.natural.device.sim
Subclasses with type arguments of type ElectricPotential in org.episteme.natural.device.simMethods in org.episteme.natural.device.sim that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionSimulatedOscilloscope.getTriggerLevel()SimulatedOscilloscope.getVoltageScale(int channel) SimulatedOscilloscope.readValue()Method parameters in org.episteme.natural.device.sim with type arguments of type ElectricPotentialModifier and TypeMethodDescriptionvoidSimulatedOscilloscope.setTriggerLevel(Quantity<ElectricPotential> volts) voidSimulatedOscilloscope.setVoltageScale(int channel, Quantity<ElectricPotential> voltsPerDivision) -
Uses of ElectricPotential in org.episteme.natural.engineering.electrical
Methods in org.episteme.natural.engineering.electrical that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> CircuitAnalysis.capacitorChargingVoltage(Quantity<ElectricPotential> vmax, Quantity<Time> time, Quantity<Time> tau) Capacitor voltage during charging: V(t) = Vmax * (1 - e^(-t/Ï„))static Quantity<ElectricPotential> CircuitAnalysis.capacitorDischargingVoltage(Quantity<ElectricPotential> v0, Quantity<Time> time, Quantity<Time> tau) Capacitor voltage during discharging: V(t) = V0 * e^(-t/Ï„)static Quantity<ElectricPotential> CircuitAnalysis.voltage(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance) Voltage from current and resistance.static Quantity<ElectricPotential> CircuitAnalysis.voltageDivider(Quantity<ElectricPotential> vin, Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2) Output voltage of a voltage divider.Method parameters in org.episteme.natural.engineering.electrical with type arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> CircuitAnalysis.capacitorChargingVoltage(Quantity<ElectricPotential> vmax, Quantity<Time> time, Quantity<Time> tau) Capacitor voltage during charging: V(t) = Vmax * (1 - e^(-t/Ï„))static Quantity<ElectricPotential> CircuitAnalysis.capacitorDischargingVoltage(Quantity<ElectricPotential> v0, Quantity<Time> time, Quantity<Time> tau) Capacitor voltage during discharging: V(t) = V0 * e^(-t/Ï„)static Quantity<ElectricCurrent> CircuitAnalysis.current(Quantity<ElectricPotential> voltage, Quantity<ElectricResistance> resistance) Current from voltage and resistance.CircuitAnalysis.power(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current) Electrical power.CircuitAnalysis.powerFromVoltage(Quantity<ElectricPotential> voltage, Quantity<ElectricResistance> resistance) Power from voltage and resistance.static Quantity<ElectricResistance> CircuitAnalysis.resistance(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current) Resistance from voltage and current.static Quantity<ElectricPotential> CircuitAnalysis.voltageDivider(Quantity<ElectricPotential> vin, Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2) Output voltage of a voltage divider. -
Uses of ElectricPotential in org.episteme.natural.physics.classical.waves.electromagnetism.field
Methods in org.episteme.natural.physics.classical.waves.electromagnetism.field that return types with arguments of type ElectricPotentialModifier and TypeMethodDescriptionstatic Quantity<ElectricPotential> Electromagnetism.voltage(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance) Ohm's law: V = IR