Uses of Interface
org.episteme.core.measure.Quantity

Packages that use Quantity

Package	Description
org.episteme.core.device	Defines generic interfaces for
org.episteme.core.device.sim	Provides classes and interfaces for org.episteme.core.device.sim.
org.episteme.core.mathematics	Includes subpackages for:
org.episteme.core.measure	Implements a comprehensive units framework enabling type-safe
org.episteme.core.measure.adapters
org.episteme.core.measure.metrology	Implements the science of measurement following ISO/IEC Guide
org.episteme.core.measure.quantity	Defines interfaces for physical quantities, organized by
org.episteme.core.methodology	Core functionality for the org.episteme.core.methodology package in the Episteme library.
org.episteme.core.ui	User interface components and internationalization support for Episteme applications.
org.episteme.core.util
org.episteme.jni.jni.devices
org.episteme.nativ.physics.classical.mechanics.collision.backends.genesis
org.episteme.nativ.physics.classical.mechanics.collision.backends.jbullet
org.episteme.nativ.physics.classical.mechanics.collision.backends.ode
org.episteme.natural.biology
org.episteme.natural.biology.cell
org.episteme.natural.biology.ecology
org.episteme.natural.biology.loaders.sbml	Systems Biology Markup Language (SBML) loader for Episteme.
org.episteme.natural.chemistry
org.episteme.natural.chemistry.biochemistry
org.episteme.natural.chemistry.electrochemistry
org.episteme.natural.chemistry.kinetics
org.episteme.natural.chemistry.loaders
org.episteme.natural.chemistry.thermochemistry
org.episteme.natural.chemistry.thermodynamics
org.episteme.natural.computing.ml
org.episteme.natural.device.actuators
org.episteme.natural.device.sensors
org.episteme.natural.device.sim	Provides classes and interfaces for org.episteme.natural.device.sim.
org.episteme.natural.device.transducers
org.episteme.natural.earth
org.episteme.natural.earth.atmosphere
org.episteme.natural.earth.coordinates
org.episteme.natural.earth.geodesy
org.episteme.natural.earth.geology	Core functionality for the org.episteme.natural.earth.geology package in the Episteme library.
org.episteme.natural.earth.geophysics
org.episteme.natural.earth.seismology
org.episteme.natural.engineering.control
org.episteme.natural.engineering.electrical
org.episteme.natural.engineering.fluids
org.episteme.natural.engineering.mechanics
org.episteme.natural.engineering.robotics
org.episteme.natural.engineering.structural
org.episteme.natural.engineering.thermal
org.episteme.natural.medicine	Provides the org.episteme.social.medicine module.
org.episteme.natural.medicine.anthropometry
org.episteme.natural.medicine.epidemiology
org.episteme.natural.medicine.imaging
org.episteme.natural.medicine.pharmacology
org.episteme.natural.physics	Covers:
org.episteme.natural.physics.astronomy
org.episteme.natural.physics.astronomy.mechanics
org.episteme.natural.physics.astronomy.spectroscopy
org.episteme.natural.physics.classical.matter
org.episteme.natural.physics.classical.mechanics
org.episteme.natural.physics.classical.mechanics.collision
org.episteme.natural.physics.classical.thermodynamics
org.episteme.natural.physics.classical.waves.electromagnetism.field
org.episteme.natural.physics.classical.waves.optics
org.episteme.natural.physics.loaders
org.episteme.natural.physics.loaders.thermoml	ThermoML loader for IUPAC/NIST thermodynamic property data.
org.episteme.natural.physics.nuclear
org.episteme.natural.physics.quantum
org.episteme.natural.physics.relativity
org.episteme.social.architecture	Provides mathematical and analytical models for architectural engineering, building physics, and urban history.
org.episteme.social.architecture.traffic	Provides models and simulation engines for urban traffic flow analysis.
org.episteme.social.architecture.urbanism	Provides mathematical and computational models for urban planning, land-use analysis, and urban climatology.
org.episteme.social.arts	- artworks, music, literature classification.
org.episteme.social.arts.music	- musical notes, instruments, compositions.
org.episteme.social.device.sim	Provides classes and interfaces for org.episteme.core.device.sim.
org.episteme.social.economics	Provides comprehensive mathematical models for economic systems, agent-based modeling, and financial analysis.
org.episteme.social.economics.models
org.episteme.social.economics.money	Provides classes for monetary and financial operations.
org.episteme.social.economics.resources	Provides classes and interfaces for representing economic resources.
org.episteme.social.geography	Provides classes for social geography, human settlements, and mapping.
org.episteme.social.geography.loaders
org.episteme.social.history	- historical events, timelines, and chronology.
org.episteme.social.history.archeology	Provides classes and interfaces for archaeological research and analysis.
org.episteme.social.history.clock	Provides the org.episteme.social.history.time module.
org.episteme.social.history.time	Temporal coordinate and interval support for historical analysis.
org.episteme.social.philosophy.epistemology	Provides classes for modeling epistemology, the study of knowledge and justified belief.
org.episteme.social.politics	Provides the org.episteme.social.politics module.
org.episteme.social.psychology	Provides the org.episteme.social.psychology module.
org.episteme.social.sociology	- social structures, persons, and cultural modeling.
org.episteme.social.sports	Provides classes and interfaces for sports science, athletic performance analysis, and competition modeling.

Uses of Quantity in org.episteme.core.device

Classes in org.episteme.core.device with type parameters of type Quantity

Modifier and Type	Class	Description
class	AbstractSensor<Q extends Quantity<Q>>	Base implementation for sensor devices.
interface	Sensor<Q extends Quantity<Q>>	Represents a sensor device that produces data.

Fields in org.episteme.core.device declared as Quantity

Modifier and Type	Field	Description
protected Quantity<?>	AbstractDevice.accuracy
protected Quantity<?>	AbstractDevice.currentValue
protected Quantity<?>	AbstractDevice.maxRange
protected Quantity<?>	AbstractDevice.minRange
protected Quantity<?>	AbstractDevice.resolution
protected Quantity<?>	AbstractDevice.sensitivity

Methods in org.episteme.core.device that return Quantity

Modifier and Type	Method	Description
Quantity<?>	AbstractDevice.Record.getValue()
Quantity<?>	Device.Record.getValue()
Quantity<Q>	Sensor.readValue()	Reads a value from the sensor.
Quantity<?>	AbstractDevice.Record.value()	Returns the value of the value record component.

Methods in org.episteme.core.device that return types with arguments of type Quantity

Modifier and Type	Method	Description
Optional<Quantity<?>>	AbstractDevice.getAccuracy()
default Optional<Quantity<?>>	Device.getAccuracy()	Returns the accuracy of the device.
Optional<Quantity<?>>	AbstractDevice.getMaxRange()
default Optional<Quantity<?>>	Device.getMaxRange()	Returns the maximum measurement range.
List<Class<? extends Quantity<?>>>	AbstractDevice.getMeasurableQuantities()
default List<Class<? extends Quantity<?>>>	Device.getMeasurableQuantities()	Returns the types of quantities this instrument can measure.
Optional<Quantity<?>>	AbstractDevice.getMinRange()
default Optional<Quantity<?>>	Device.getMinRange()	Returns the minimum measurement range.
Optional<Quantity<?>>	AbstractDevice.getResolution()
default Optional<Quantity<?>>	Device.getResolution()	Returns the resolution of the device.
Optional<Quantity<?>>	AbstractDevice.getSensitivity()
default Optional<Quantity<?>>	Device.getSensitivity()	Returns the sensitivity of the device.
Optional<Quantity<?>>	AbstractDevice.getValue()
Optional<Quantity<?>>	AbstractSensor.getValue()
Optional<Quantity<?>>	Device.getValue()	Returns the current primary value of the device (e.g. sensor reading).
Optional<Quantity<?>>	AbstractDevice.measure()
default Optional<Quantity<?>>	Device.measure()	Takes a measurement.

Methods in org.episteme.core.device with parameters of type Quantity

Modifier and Type	Method	Description
void	AbstractDevice.calibrate(Quantity<?> reference)
default void	Device.calibrate(Quantity<?> reference)	Calibrates the device using a reference value.
protected void	AbstractDevice.performCalibration(Quantity<?> reference)	Performs actual calibration logic.
protected void	AbstractDevice.recordMeasurement(Quantity<?> value)	Records a value in the device history with a timestamp.
protected void	AbstractDevice.setAccuracy(Quantity<?> accuracy)
protected void	AbstractDevice.setCurrentValue(Quantity<?> value)	Updates the current value and records it in history.
protected void	AbstractDevice.setMaxRange(Quantity<?> maxRange)
protected void	AbstractDevice.setMinRange(Quantity<?> minRange)
protected void	AbstractDevice.setResolution(Quantity<?> resolution)
protected void	AbstractDevice.setSensitivity(Quantity<?> sensitivity)

Constructors in org.episteme.core.device with parameters of type Quantity

Modifier	Constructor	Description
	Record(Instant timestamp, Quantity<?> value)	Creates an instance of a Record record class.

Uses of Quantity in org.episteme.core.device.sim

Classes in org.episteme.core.device.sim with type parameters of type Quantity

Modifier and Type	Class	Description
class	AbstractSimulatedSensor<Q extends Quantity<Q>>	Abstract base implementation for simulated sensors.

Uses of Quantity in org.episteme.core.mathematics

Fields in org.episteme.core.mathematics declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Dimensionless>	MathConstants.E_QTY
static final Quantity<Dimensionless>	MathConstants.GAMMA_QTY
static final Quantity<Dimensionless>	MathConstants.GOLDEN_RATIO_QTY
static final Quantity<Dimensionless>	MathConstants.HALF_PI_QTY
static final Quantity<Dimensionless>	MathConstants.LOG10_QTY
static final Quantity<Dimensionless>	MathConstants.LOG2_QTY
static final Quantity<Dimensionless>	MathConstants.PI_QTY
static final Quantity<Dimensionless>	MathConstants.SQRT2_QTY
static final Quantity<Dimensionless>	MathConstants.SQRT2PI_QTY
static final Quantity<Dimensionless>	MathConstants.TWO_PI_QTY

Uses of Quantity in org.episteme.core.measure

Classes in org.episteme.core.measure with type parameters of type Quantity

Modifier and Type	Interface	Description
interface	Quantity<Q extends Quantity<Q>>	A physical quantity combining a numerical value with a unit of measurement.
class	StandardUnit<Q extends Quantity<Q>>
interface	Unit<Q extends Quantity<Q>>	A unit of measurement for a physical quantity.

Methods in org.episteme.core.measure with type parameters of type Quantity

Modifier and Type	Method	Description
default <R extends Quantity<R>> Quantity<R>	Quantity.asType(Class<R> type)	Casts this quantity to the specified type.
default <R extends Quantity<R>> Unit<R>	Unit.asType(Class<R> type)	Casts this unit to a specific quantity type.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(double value, Unit<Q> unit)	Creates a quantity from a double value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(int value, Unit<Q> unit)	Creates a quantity from an int value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(long value, Unit<Q> unit)	Creates a quantity from a long value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(Real value, Unit<Q> unit)	Creates a quantity from a Real value and unit.
<R extends Quantity<R>> Quantity<?>	Quantity.divide(Quantity<R> other)	Divides this quantity by another quantity.
<R extends Quantity<R>> Quantity<?>	Quantity.multiply(Quantity<R> other)	Multiplies this quantity by another quantity.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.parse(String text, Unit<Q> expectedUnit)	Parses a quantity from a string representation.

Methods in org.episteme.core.measure that return Quantity

Modifier and Type	Method	Description
Quantity<Q>	Quantity.abs()	Returns the absolute value of this quantity.
Quantity<Q>	Quantity.add(Quantity<Q> other)	Adds another quantity to this one.
static Quantity<ElectricCurrent>	QuantityUtils.amperes(double value)
default <R extends Quantity<R>> Quantity<R>	Quantity.asType(Class<R> type)	Casts this quantity to the specified type.
static Quantity<Pressure>	QuantityUtils.atmospheres(double value)
static Quantity<Pressure>	QuantityUtils.bars(double value)
static Quantity<Temperature>	QuantityUtils.celsius(double value)
static Quantity<Length>	QuantityUtils.centimeters(double value)
static Quantity<ElectricCharge>	QuantityUtils.coulombs(double value)
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(double value, Unit<Q> unit)	Creates a quantity from a double value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(int value, Unit<Q> unit)	Creates a quantity from an int value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(long value, Unit<Q> unit)	Creates a quantity from a long value and unit.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.create(Real value, Unit<Q> unit)	Creates a quantity from a Real value and unit.
default Quantity<Q>	Quantity.divide(double scalar)	Divides this quantity by a scalar value.
Quantity<Q>	Quantity.divide(Real scalar)	Divides this quantity by a scalar value.
<R extends Quantity<R>> Quantity<?>	Quantity.divide(Quantity<R> other)	Divides this quantity by another quantity.
static Quantity<Energy>	QuantityUtils.electronVolts(double value)
static Quantity<Temperature>	QuantityUtils.fahrenheit(double value)
static Quantity<Mass>	QuantityUtils.grams(double value)
static Quantity<Frequency>	QuantityUtils.hertz(double value)
static Quantity<Time>	QuantityUtils.hours(double value)
static Quantity<Energy>	QuantityUtils.joules(double value)
static Quantity<Temperature>	QuantityUtils.kelvin(double value)
static Quantity<Mass>	QuantityUtils.kilograms(double value)
static Quantity<Frequency>	QuantityUtils.kilohertz(double value)
static Quantity<Energy>	QuantityUtils.kilojoules(double value)
static Quantity<Length>	QuantityUtils.kilometers(double value)
static Quantity<Power>	QuantityUtils.kilowatts(double value)
static Quantity<Frequency>	QuantityUtils.megahertz(double value)
static Quantity<Length>	QuantityUtils.meters(double value)
static Quantity<Mass>	QuantityUtils.milligrams(double value)
static Quantity<Length>	QuantityUtils.millimeters(double value)
static Quantity<Time>	QuantityUtils.minutes(double value)
default Quantity<Q>	Quantity.multiply(double scalar)	Multiplies this quantity by a scalar value.
Quantity<Q>	Quantity.multiply(Real scalar)	Multiplies this quantity by a scalar value.
<R extends Quantity<R>> Quantity<?>	Quantity.multiply(Quantity<R> other)	Multiplies this quantity by another quantity.
Quantity<Q>	Quantity.negate()	Returns the negation of this quantity.
static Quantity<Force>	QuantityUtils.newtons(double value)
static Quantity<?>	Quantities.parse(String text)	Parses a quantity from a string representation without specifying unit type.
static <Q extends Quantity<Q>> Quantity<Q>	Quantities.parse(String text, Unit<Q> expectedUnit)	Parses a quantity from a string representation.
static Quantity<Pressure>	QuantityUtils.pascals(double value)
Quantity<?>	Quantity.pow(int exponent)	Returns this quantity raised to the specified exponent.
static Quantity<Time>	QuantityUtils.seconds(double value)
Quantity<?>	Quantity.sqrt()	Returns the square root of this quantity.
Quantity<Q>	Quantity.subtract(Quantity<Q> other)	Subtracts another quantity from this one.
Quantity<Q>	Quantity.to(Unit<Q> targetUnit)	Converts this quantity to the specified unit.
static Quantity<ElectricPotential>	QuantityUtils.volts(double value)
static Quantity<Power>	QuantityUtils.watts(double value)

Methods in org.episteme.core.measure with parameters of type Quantity

Modifier and Type	Method	Description
Quantity<Q>	Quantity.add(Quantity<Q> other)	Adds another quantity to this one.
int	Quantity.compareTo(Quantity<Q> other)	Compares this quantity with another for order.
<R extends Quantity<R>> Quantity<?>	Quantity.divide(Quantity<R> other)	Divides this quantity by another quantity.
boolean	Quantity.equals(Quantity<Q> other, Real tolerance)	Checks if this quantity equals another within tolerance.
default boolean	Quantity.isGreaterThan(Quantity<Q> other)	Checks if this quantity is strictly greater than another quantity.
default boolean	Quantity.isGreaterThanOrEqualTo(Quantity<Q> other)	Checks if this quantity is greater than or equal to another quantity.
default boolean	Quantity.isLessThan(Quantity<Q> other)	Checks if this quantity is strictly less than another quantity.
default boolean	Quantity.isLessThanOrEqualTo(Quantity<Q> other)	Checks if this quantity is less than or equal to another quantity.
<R extends Quantity<R>> Quantity<?>	Quantity.multiply(Quantity<R> other)	Multiplies this quantity by another quantity.
Quantity<Q>	Quantity.subtract(Quantity<Q> other)	Subtracts another quantity from this one.

Uses of Quantity in org.episteme.core.measure.adapters

Methods in org.episteme.core.measure.adapters with type parameters of type Quantity

Modifier and Type	Method	Description
static <Q extends Quantity<Q>> Real	RealQuantityAdapter.getValue(Quantity<Q> quantity, Unit<Q> unit)	Extracts the numeric value from a Quantity as a Real.
static <Q extends Quantity<Q>> Quantity<Q>	RealQuantityAdapter.toQuantity(Real value, Unit<Q> unit)	Converts a Episteme Real to a JSR-385 Quantity.

Methods in org.episteme.core.measure.adapters that return Quantity

Modifier and Type	Method	Description
static <Q extends Quantity<Q>> Quantity<Q>	RealQuantityAdapter.toQuantity(Real value, Unit<Q> unit)	Converts a Episteme Real to a JSR-385 Quantity.

Methods in org.episteme.core.measure.adapters with parameters of type Quantity

Modifier and Type	Method	Description
static <Q extends Quantity<Q>> Real	RealQuantityAdapter.getValue(Quantity<Q> quantity, Unit<Q> unit)	Extracts the numeric value from a Quantity as a Real.
static Real	RealQuantityAdapter.toExactReal(Quantity<?> quantity)	Converts a JSR-385 Quantity to a Episteme exact Real.
static Real	RealQuantityAdapter.toReal(Quantity<?> quantity)	Converts a JSR-385 Quantity to a Episteme Real.

Uses of Quantity in org.episteme.core.measure.metrology

Classes in org.episteme.core.measure.metrology with type parameters of type Quantity

Modifier and Type	Interface	Description
interface	MeasuredQuantity<Q extends Quantity<Q>>	A measured physical quantity with associated uncertainty.
class	MeasurementSeries<Q extends Quantity<Q>>	Statistical analysis of repeated measurements.
class	UncertaintyBudget<Q extends Quantity<Q>>	An uncertainty budget following ISO/IEC Guide 98-3 (GUM) methodology.

Methods in org.episteme.core.measure.metrology with type parameters of type Quantity

Modifier and Type	Method	Description
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.create(Quantity<Q> value, Quantity<Q> uncertainty)	Creates a measured quantity with 95% confidence (k=2).
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.create(Quantity<Q> value, Quantity<Q> uncertainty, double confidenceLevel)	Creates a measured quantity with absolute uncertainty.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.createRelative(Quantity<Q> value, double relativeUncertainty)	Creates a measured quantity with relative uncertainty at 95% confidence.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.createRelative(Quantity<Q> value, double relativeUncertainty, double confidenceLevel)	Creates a measured quantity with relative uncertainty.
<R extends Quantity<R>> MeasuredQuantity<?>	MeasuredQuantity.divide(MeasuredQuantity<R> other)	Divides by another measured quantity.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.exact(Quantity<Q> value)	Creates an exact measurement (zero uncertainty).
<R extends Quantity<R>> MeasuredQuantity<?>	MeasuredQuantity.multiply(MeasuredQuantity<R> other)	Multiplies by another measured quantity.

Methods in org.episteme.core.measure.metrology that return Quantity

Modifier and Type	Method	Description
Quantity<Q>	UncertaintyBudget.getCombinedUncertainty()	Returns the combined standard uncertainty.
Quantity<Q>	UncertaintyBudget.getExpandedUncertainty(double coverageFactor)	Returns the expanded uncertainty.
Quantity<Q>	MeasurementSeries.getMean()	Returns the arithmetic mean of all measurements.
Quantity<Q>	MeasurementSeries.getStandardDeviation()	Returns the sample standard deviation.
Quantity<Q>	MeasurementSeries.getStandardError()	Returns the standard error of the mean (SEM).
Quantity<Q>	MeasuredQuantity.getUncertainty()	Returns the absolute uncertainty (±).
Quantity<Q>	MeasuredQuantity.getValue()	Returns the central (best estimate) value of this measurement.

Methods in org.episteme.core.measure.metrology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Set<Quantity<Q>>	MeasurementSeries.detectOutliers(MeasurementSeries.OutlierMethod method)	Detects outliers using the specified method.

Methods in org.episteme.core.measure.metrology with parameters of type Quantity

Modifier and Type	Method	Description
void	MeasurementSeries.addMeasurement(Quantity<Q> value)	Adds a measurement to the series.
void	UncertaintyBudget.addSource(String name, Quantity<Q> uncertainty, UncertaintyBudget.UncertaintyType type)	Adds an uncertainty source to the budget.
void	UncertaintyBudget.addSource(String name, Quantity<Q> uncertainty, UncertaintyBudget.UncertaintyType type, Real sensitivityCoefficient)	Adds an uncertainty source with sensitivity coefficient.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.create(Quantity<Q> value, Quantity<Q> uncertainty)	Creates a measured quantity with 95% confidence (k=2).
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.create(Quantity<Q> value, Quantity<Q> uncertainty, double confidenceLevel)	Creates a measured quantity with absolute uncertainty.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.createRelative(Quantity<Q> value, double relativeUncertainty)	Creates a measured quantity with relative uncertainty at 95% confidence.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.createRelative(Quantity<Q> value, double relativeUncertainty, double confidenceLevel)	Creates a measured quantity with relative uncertainty.
static <Q extends Quantity<Q>> MeasuredQuantity<Q>	MeasuredQuantities.exact(Quantity<Q> value)	Creates an exact measurement (zero uncertainty).

Uses of Quantity in org.episteme.core.measure.quantity

Subinterfaces of Quantity in org.episteme.core.measure.quantity

Modifier and Type	Interface	Description
interface	Acceleration
interface	Action	Represents an action (energy × time).
interface	AmountOfSubstance
interface	Angle	Represents a plane angle.
interface	Area
interface	Dimensionless	Represents a dimensionless quantity (unit 1).
interface	ElectricCapacitance
interface	ElectricCharge
interface	ElectricConductance	Represents electric conductance.
interface	ElectricConductivity	Represents electric conductivity.
interface	ElectricCurrent
interface	ElectricPermittivity	Represents electric permittivity (electric capacitance / length).
interface	ElectricPotential
interface	ElectricResistance
interface	Energy
interface	Entropy	Represents entropy or heat capacity (energy / temperature).
interface	Force
interface	Frequency	Frequency quantity (events per unit time).
interface	Inductance
interface	Length	Represents a length quantity.
interface	LuminousIntensity
interface	MagneticFlux
interface	MagneticFluxDensity
interface	MagneticPermeability	Represents magnetic permeability (inductance / length).
interface	Mass	Represents a mass quantity.
interface	MassDensity	Represents mass density (mass per unit volume).
interface	Power
interface	Pressure
interface	SpecificHeatCapacity	Represents the heat capacity per unit mass.
interface	Temperature
interface	ThermalConductivity	Represents thermal conductivity.
interface	Time	Represents a time quantity.
interface	Velocity	Represents velocity (speed in a direction).
interface	Volume
interface	VolumetricFlowRate	Quantity representing the volume of fluid which passes per unit time.
interface	WaveNumber	Represents a wave number (inverse length).

Uses of Quantity in org.episteme.core.methodology

Methods in org.episteme.core.methodology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Optional<Quantity<?>>	Sample.getAmount()
Map<String, Quantity<?>>	ScientificReport.getQuantitativeResults()
Map<String, Quantity<?>>	ScientificExperiment.getQuantities()

Methods in org.episteme.core.methodology with parameters of type Quantity

Modifier and Type	Method	Description
void	ScientificReport.addResult(String key, Quantity<?> quantity)	Stores a quantitative result.
void	Sample.setAmount(Quantity<?> amount)

Uses of Quantity in org.episteme.core.ui

Classes in org.episteme.core.ui with type parameters of type Quantity

Modifier and Type	Class	Description
class	QuantityParameter<Q extends Quantity<Q>>	Metadata for a physical quantity parameter (e.g.

Subclasses with type arguments of type Quantity in org.episteme.core.ui

Modifier and Type	Class	Description
class	QuantityParameter<Q extends Quantity<Q>>	Metadata for a physical quantity parameter (e.g.

Methods in org.episteme.core.ui that return Quantity

Modifier and Type	Method	Description
Quantity<Q>	QuantityParameter.getMax()
Quantity<Q>	QuantityParameter.getMin()
Quantity<Q>	QuantityParameter.getStep()

Constructors in org.episteme.core.ui with parameters of type Quantity

Modifier	Constructor	Description
	QuantityParameter(String name, String description, Quantity<Q> min, Quantity<Q> max, Quantity<Q> step, Quantity<Q> defaultValue, Unit<Q> unit, Consumer<Quantity<Q>> onValueChange)	Creates a new QuantityParameter.

Constructor parameters in org.episteme.core.ui with type arguments of type Quantity

Modifier	Constructor	Description
	QuantityParameter(String name, String description, Quantity<Q> min, Quantity<Q> max, Quantity<Q> step, Quantity<Q> defaultValue, Unit<Q> unit, Consumer<Quantity<Q>> onValueChange)	Creates a new QuantityParameter.

Uses of Quantity in org.episteme.core.util

Methods in org.episteme.core.util that return types with arguments of type Quantity

Modifier and Type	Method	Description
default Map<String, Quantity<?>>	UniversalDataModel.getQuantities()	Returns the primary physical values associated with this model.

Uses of Quantity in org.episteme.jni.jni.devices

Methods in org.episteme.jni.jni.devices that return Quantity

Modifier and Type	Method	Description
Quantity<Time>	MassSpectra.getIntegrationTime()
Quantity<Dimensionless>	MassSpectra.getIntensityAt(Quantity<Length> wavelength)
Quantity<Length>	MassSpectra.getMaxWavelength()
Quantity<Length>	MassSpectra.getMinWavelength()
Quantity<Length>	MassSpectra.getSpectralResolution()
Quantity<Dimensionless>	MassSpectra.readValue()

Methods in org.episteme.jni.jni.devices with parameters of type Quantity

Modifier and Type	Method	Description
void	MassSpectra.calibrate(Quantity<Length>[] referenceWavelengths, Quantity<Length>[] measuredWavelengths)
Quantity<Dimensionless>	MassSpectra.getIntensityAt(Quantity<Length> wavelength)
void	MassSpectra.setIntegrationTime(Quantity<Time> time)

Uses of Quantity in org.episteme.nativ.physics.classical.mechanics.collision.backends.genesis

Methods in org.episteme.nativ.physics.classical.mechanics.collision.backends.genesis with parameters of type Quantity

Modifier and Type	Method	Description
void	GenesisWorld.stepSimulation(Quantity<Time> timeStep)
void	GenesisWorld.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)
void	NativeGenesisWorld.stepSimulation(Quantity<Time> timeStep)
void	NativeGenesisWorld.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)

Uses of Quantity in org.episteme.nativ.physics.classical.mechanics.collision.backends.jbullet

Methods in org.episteme.nativ.physics.classical.mechanics.collision.backends.jbullet with parameters of type Quantity

Modifier and Type	Method	Description
void	JBulletWorld.stepSimulation(Quantity<Time> timeStep)
void	JBulletWorld.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)

Uses of Quantity in org.episteme.nativ.physics.classical.mechanics.collision.backends.ode

Methods in org.episteme.nativ.physics.classical.mechanics.collision.backends.ode with parameters of type Quantity

Modifier and Type	Method	Description
void	NativeODEWorld.stepSimulation(Quantity<Time> timeStep)
void	NativeODEWorld.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)
void	ODEWorld.stepSimulation(Quantity<Time> timeStep)
void	ODEWorld.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)

Uses of Quantity in org.episteme.natural.biology

Methods in org.episteme.natural.biology that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	Virus.getCapsidDiameter()
Quantity<Length>	VirusSpecies.getTypicalDiameter()

Methods in org.episteme.natural.biology with parameters of type Quantity

Modifier and Type	Method	Description
VirusSpecies	VirusSpecies.setTypicalDiameter(Quantity<Length> diameter)

Constructors in org.episteme.natural.biology with parameters of type Quantity

Modifier	Constructor	Description
	Virus(String name, String family, VirusGenomeType genomeType, VirusMorphology morphology, BioSequence genome, Quantity<Length> capsidDiameter)

Uses of Quantity in org.episteme.natural.biology.cell

Methods in org.episteme.natural.biology.cell that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	Metabolism.atpHydrolysisEnergy(Real moles)	Calculates energy released from ATP hydrolysis.

Uses of Quantity in org.episteme.natural.biology.ecology

Methods in org.episteme.natural.biology.ecology that return Quantity

Modifier and Type	Method	Description
static Quantity<Dimensionless>	PopulationDynamics.exponentialGrowth(Quantity<Dimensionless> p0, Quantity<Frequency> r, Quantity<Time> t)	Exponential growth model using Quantities.
static Quantity<Dimensionless>	PopulationDynamics.logisticGrowth(Quantity<Dimensionless> p0, Quantity<Frequency> r, Quantity<Dimensionless> K, Quantity<Time> t)	Logistic growth model using Quantities.

Methods in org.episteme.natural.biology.ecology with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Dimensionless>	PopulationDynamics.exponentialGrowth(Quantity<Dimensionless> p0, Quantity<Frequency> r, Quantity<Time> t)	Exponential growth model using Quantities.
static Quantity<Dimensionless>	PopulationDynamics.logisticGrowth(Quantity<Dimensionless> p0, Quantity<Frequency> r, Quantity<Dimensionless> K, Quantity<Time> t)	Logistic growth model using Quantities.

Uses of Quantity in org.episteme.natural.biology.loaders.sbml

Methods in org.episteme.natural.biology.loaders.sbml that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	SBMLModel.getQuantities()

Uses of Quantity in org.episteme.natural.chemistry

Fields in org.episteme.natural.chemistry declared as Quantity

Modifier and Type	Field	Description
static final Quantity<?>	ChemistryConstants.AVOGADRO	Avogadro's constant.
static final Quantity<?>	ChemistryConstants.BOLTZMANN_CONSTANT	Boltzmann's constant (k_B).
static final Quantity<?>	ChemistryConstants.MOLAR_GAS_CONSTANT	Molar gas constant (R).
static final Quantity<Volume>	ChemistryConstants.MOLAR_VOLUME_SATP	Molar volume of an ideal gas at SATP (25°C, 100 kPa).
static final Quantity<Volume>	ChemistryConstants.MOLAR_VOLUME_STP	Molar volume of an ideal gas at STP (0°C, 1 atm).
static final Quantity<?>	ChemistryConstants.STEFAN_BOLTZMANN_CONSTANT	Stefan-Boltzmann constant (sigma).

Methods in org.episteme.natural.chemistry that return Quantity

Modifier and Type	Method	Description
Quantity<Frequency>	ChemicalReaction.calculateRateConstant(Quantity<Temperature> temperature)	Calculates the reaction rate constant k using the Arrhenius equation. k = A * exp(-Ea / (R * T))
Quantity<Length>	Atom.distanceTo(Atom other)	Distance to another atom.
Quantity<Mass>	Element.getAtomicMass()
Quantity<Length>	Element.getAtomicRadius()
Quantity<Temperature>	Element.getBoilingPoint()
Quantity<Length>	Element.getCovalentRadius()
Quantity<MassDensity>	Element.getDensity()
Quantity<Energy>	Element.getElectronAffinity()
Quantity<Energy>	ChemicalReaction.getEnthalpy()
Quantity<ElectricCharge>	Atom.getFormalCharge()
Quantity<Energy>	ChemicalReaction.getGibbsFreeEnergy()
Quantity<Energy>	Element.getIonizationEnergy()
Quantity<Length>	Bond.getLength()	Bond length (distance between atoms).
Quantity<Mass>	Isotope.getMass()
Quantity<Temperature>	Element.getMeltingPoint()
Quantity<Mass>	Molecule.getMolecularWeight()	Molecular weight (sum of atomic masses).
Quantity<SpecificHeatCapacity>	Element.getSpecificHeat()
Quantity<ElectricPotential>	ChemicalCouple.getStandardPotential()
Quantity<ThermalConductivity>	Element.getThermalConductivity()
Quantity<Mass>	ChemicalReaction.massToMass(String reactant, Quantity<Mass> massReactant, Quantity<Mass> reactantMW, String product, Quantity<Mass> productMW)	Calculate mass of product from mass of reactant.
Quantity<AmountOfSubstance>	ChemicalReaction.stoichiometry(String reactant, Quantity<AmountOfSubstance> molesReactant, String product)	Calculate moles of product given moles of a limiting reactant.

Methods in org.episteme.natural.chemistry with parameters of type Quantity

Modifier and Type	Method	Description
Quantity<Frequency>	ChemicalReaction.calculateRateConstant(Quantity<Temperature> temperature)	Calculates the reaction rate constant k using the Arrhenius equation. k = A * exp(-Ea / (R * T))
Quantity<Mass>	ChemicalReaction.massToMass(String reactant, Quantity<Mass> massReactant, Quantity<Mass> reactantMW, String product, Quantity<Mass> productMW)	Calculate mass of product from mass of reactant.
void	Element.setAtomicMass(Quantity<Mass> atomicMass)
void	Element.setAtomicRadius(Quantity<Length> atomicRadius)
void	Element.setBoilingPoint(Quantity<Temperature> boilingPoint)
void	Element.setCovalentRadius(Quantity<Length> covalentRadius)
void	Element.setDensity(Quantity<MassDensity> density)
void	Element.setElectronAffinity(Quantity<Energy> electronAffinity)
void	ChemicalReaction.setEnthalpy(Quantity<Energy> enthalpy)
void	Atom.setFormalCharge(Quantity<ElectricCharge> charge)
void	ChemicalReaction.setGibbsFreeEnergy(Quantity<Energy> gibbs)
void	Element.setIonizationEnergy(Quantity<Energy> ionizationEnergy)
void	ChemicalReaction.setKinetics(Quantity<Energy> activationEnergy, Quantity<Frequency> preExponentialFactor)
void	Element.setMeltingPoint(Quantity<Temperature> meltingPoint)
void	Element.setSpecificHeat(Quantity<SpecificHeatCapacity> specificHeat)
void	Element.setThermalConductivity(Quantity<ThermalConductivity> thermalConductivity)
Quantity<AmountOfSubstance>	ChemicalReaction.stoichiometry(String reactant, Quantity<AmountOfSubstance> molesReactant, String product)	Calculate moles of product given moles of a limiting reactant.

Constructors in org.episteme.natural.chemistry with parameters of type Quantity

Modifier	Constructor	Description
	ChemicalCouple(String oxidant, String reductant, Quantity<ElectricPotential> e0)

Uses of Quantity in org.episteme.natural.chemistry.biochemistry

Methods in org.episteme.natural.chemistry.biochemistry that return Quantity

Modifier and Type	Method	Description
Quantity<Mass>	AminoAcid.getMolecularWeight()	Returns the molecular weight.

Uses of Quantity in org.episteme.natural.chemistry.electrochemistry

Methods in org.episteme.natural.chemistry.electrochemistry that return Quantity

Modifier and Type	Method	Description
static Quantity<Mass>	FaradayLaws.calculateMass(Quantity<ElectricCharge> charge, double molarMassGramPerMol, int valence)	Type-safe version using Units.
static 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).
Quantity<ElectricPotential>	GalvanicCell.getStandardPotential()	Calculates the standard cell potential.
Quantity<ElectricPotential>	HalfCell.getStandardPotential()

Methods in org.episteme.natural.chemistry.electrochemistry with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Mass>	FaradayLaws.calculateMass(Quantity<ElectricCharge> charge, double molarMassGramPerMol, int valence)	Type-safe version using Units.
static 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).

Constructors in org.episteme.natural.chemistry.electrochemistry with parameters of type Quantity

Modifier	Constructor	Description
	HalfCell(String reaction, Quantity<ElectricPotential> standardPotential)

Uses of Quantity in org.episteme.natural.chemistry.kinetics

Methods in org.episteme.natural.chemistry.kinetics that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	ArrheniusEquation.calculateActivationEnergy(Real k1, Real k2, Quantity<Temperature> t1, Quantity<Temperature> t2)	Activation energy using Quantity types

Methods in org.episteme.natural.chemistry.kinetics with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	ArrheniusEquation.calculateActivationEnergy(Real k1, Real k2, Quantity<Temperature> t1, Quantity<Temperature> t2)	Activation energy using Quantity types
static Real	ArrheniusEquation.calculateK(Real A, Quantity<Energy> Ea, Quantity<Temperature> temperature)	Rate constant using Quantity types

Uses of Quantity in org.episteme.natural.chemistry.loaders

Methods in org.episteme.natural.chemistry.loaders that return Quantity

Modifier and Type	Method	Description
Quantity<Mass>	CompoundInfo.getMolecularWeightQuantity()	Returns the molecular weight as a type-safe Quantity.

Uses of Quantity in org.episteme.natural.chemistry.thermochemistry

Methods in org.episteme.natural.chemistry.thermochemistry that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	HessLaw.calculateEnthalpyOfReaction(Map<String,Real[]> productEnthalpies, Map<String,Real[]> reactantEnthalpies)	Calculates the enthalpy of reaction using Hess's Law.

Methods in org.episteme.natural.chemistry.thermochemistry with parameters of type Quantity

Modifier and Type	Method	Description
static boolean	HessLaw.isExothermic(Quantity<Energy> enthalpyOfReaction)	Determines if reaction is exothermic or endothermic.

Uses of Quantity in org.episteme.natural.chemistry.thermodynamics

Methods in org.episteme.natural.chemistry.thermodynamics that return Quantity

Modifier and Type	Method	Description
Quantity<?>	ThermodynamicProperty.getPressure()
Quantity<?>	ThermodynamicProperty.getTemperature()

Methods in org.episteme.natural.chemistry.thermodynamics with parameters of type Quantity

Modifier and Type	Method	Description
void	ThermodynamicProperty.setPressure(Quantity<?> pressure)
void	ThermodynamicProperty.setTemperature(Quantity<?> temperature)

Uses of Quantity in org.episteme.natural.computing.ml

Methods in org.episteme.natural.computing.ml that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	Model.getQuantities()

Uses of Quantity in org.episteme.natural.device.actuators

Subinterfaces with type arguments of type Quantity in org.episteme.natural.device.actuators

Modifier and Type	Interface	Description
interface	Centrifuge	Interface for centrifuges.

Methods in org.episteme.natural.device.actuators that return Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	Centrifuge.calculateRCF(Quantity<Length> radius)
Quantity<Frequency>	Centrifuge.getCurrentRPM()
Quantity<Dimensionless>	Centrifuge.getMaxRCF()
Quantity<Frequency>	Centrifuge.getMaxRPM()

Methods in org.episteme.natural.device.actuators with parameters of type Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	Centrifuge.calculateRCF(Quantity<Length> radius)
void	Centrifuge.start(Quantity<Frequency> rpm)

Uses of Quantity in org.episteme.natural.device.sensors

Methods in org.episteme.natural.device.sensors that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	Microscope.getApparentSize(Quantity<Length> actualSize)
Quantity<Frequency>	Oscilloscope.getBandwidth()
Quantity<Dimensionless>	Microscope.getCurrentMagnification()
Quantity<Dimensionless>	PHMeter.getHydrogenConcentration(Quantity<Dimensionless> pH)
Quantity<Time>	Spectrometer.getIntegrationTime()
Quantity<Dimensionless>	Spectrometer.getIntensityAt(Quantity<Length> wavelength)
Quantity<Dimensionless>	Microscope.getMaxMagnification()
Quantity<Pressure>	PressureGauge.getMaxPressure()
Quantity<Temperature>	TemperatureProbe.getMaxTemp()
Quantity<Length>	Spectrometer.getMaxWavelength()
Quantity<Pressure>	PressureGauge.getMinPressure()
Quantity<Temperature>	TemperatureProbe.getMinTemp()
Quantity<Length>	Spectrometer.getMinWavelength()
Quantity<Length>	Microscope.getOpticalResolution()
Quantity<Dimensionless>	HumidityProbe.getRelativeHumidity()
Quantity<Frequency>	Oscilloscope.getSampleRate()
Quantity<Length>	Spectrometer.getSpectralResolution()
Quantity<Time>	Oscilloscope.getTimeBase()
Quantity<ElectricPotential>	Oscilloscope.getTriggerLevel()
Quantity<ElectricPotential>	Oscilloscope.getVoltageScale(int channel)
Quantity<Dimensionless>	HumidityProbe.measure(Quantity<Dimensionless> actualHumidity)	Measures the humidity given a physical actual humidity.
Quantity<Dimensionless>	PHMeter.measure(Quantity<Dimensionless> actualPH)	Measure the pH given an actual physical pH value.
Quantity<Dimensionless>	Seismograph.readMagnitude()	Reads the current magnitude.

Methods in org.episteme.natural.device.sensors with parameters of type Quantity

Modifier and Type	Method	Description
void	Spectrometer.calibrate(Quantity<Length>[] referenceWavelengths, Quantity<Length>[] measuredWavelengths)
String	PHMeter.classify(Quantity<Dimensionless> pH)	Classifies the pH value (Acidic, Alkaline, Neutral).
Quantity<Length>	Microscope.getApparentSize(Quantity<Length> actualSize)
Quantity<Dimensionless>	PHMeter.getHydrogenConcentration(Quantity<Dimensionless> pH)
Quantity<Dimensionless>	Spectrometer.getIntensityAt(Quantity<Length> wavelength)
boolean	Microscope.isResolvable(Quantity<Length> featureSize)
Quantity<Dimensionless>	HumidityProbe.measure(Quantity<Dimensionless> actualHumidity)	Measures the humidity given a physical actual humidity.
Quantity<Dimensionless>	PHMeter.measure(Quantity<Dimensionless> actualPH)	Measure the pH given an actual physical pH value.
void	Spectrometer.setIntegrationTime(Quantity<Time> time)
void	Microscope.setMagnification(Quantity<Dimensionless> magnification)
void	Oscilloscope.setSampleRate(Quantity<Frequency> samplesPerSecond)
void	Oscilloscope.setTimeBase(Quantity<Time> secondsPerDivision)
void	Oscilloscope.setTriggerLevel(Quantity<ElectricPotential> volts)
void	Oscilloscope.setVoltageScale(int channel, Quantity<ElectricPotential> voltsPerDivision)

Uses of Quantity in org.episteme.natural.device.sim

Subclasses with type arguments of type Quantity in org.episteme.natural.device.sim

Modifier and Type	Class	Description
class	SimulatedCentrifuge	Simulated implementation of Centrifuge.

Fields in org.episteme.natural.device.sim declared as Quantity

Modifier and Type	Field	Description
protected Quantity<Angle>	SimulatedTelescope.dec
protected Quantity<Angle>	SimulatedTelescope.ra

Methods in org.episteme.natural.device.sim that return Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	SimulatedCentrifuge.calculateRCF(Quantity<Length> radius)
Quantity<Length>	SimulatedMicroscope.getApparentSize(Quantity<Length> actualSize)
Quantity<Frequency>	SimulatedOscilloscope.getBandwidth()
Quantity<Angle>[]	SimulatedTelescope.getBottomRightFOV()
Quantity<Dimensionless>	SimulatedMicroscope.getCurrentMagnification()
Quantity<Frequency>	SimulatedCentrifuge.getCurrentRPM()
Quantity<Angle>	SimulatedTelescope.getDeclination()
Quantity<Dimensionless>	SimulatedPHMeter.getHydrogenConcentration(Quantity<Dimensionless> pH)
Quantity<Time>	SimulatedSpectrometer.getIntegrationTime()
Quantity<Dimensionless>	SimulatedSpectrometer.getIntensityAt(Quantity<Length> wavelength)
Quantity<Dimensionless>	SimulatedMicroscope.getMaxMagnification()
Quantity<Pressure>	SimulatedPressureGauge.getMaxPressure()
Quantity<Dimensionless>	SimulatedCentrifuge.getMaxRCF()
Quantity<Frequency>	SimulatedCentrifuge.getMaxRPM()
Quantity<Temperature>	SimulatedTemperatureProbe.getMaxTemp()
Quantity<Length>	SimulatedSpectrometer.getMaxWavelength()
Quantity<Pressure>	SimulatedPressureGauge.getMinPressure()
Quantity<Temperature>	SimulatedTemperatureProbe.getMinTemp()
Quantity<Length>	SimulatedSpectrometer.getMinWavelength()
Quantity<Length>	SimulatedMicroscope.getOpticalResolution()
Quantity<Dimensionless>	SimulatedHumidityProbe.getRelativeHumidity()
Quantity<Angle>	SimulatedTelescope.getRightAscension()
Quantity<Frequency>	SimulatedOscilloscope.getSampleRate()
Quantity<Length>	SimulatedSpectrometer.getSpectralResolution()
Quantity<Time>	SimulatedOscilloscope.getTimeBase()
Quantity<Angle>[]	SimulatedTelescope.getTopLeftFOV()
Quantity<ElectricPotential>	SimulatedOscilloscope.getTriggerLevel()
Quantity<ElectricPotential>	SimulatedOscilloscope.getVoltageScale(int channel)
Quantity<Dimensionless>	SimulatedHumidityProbe.measure(Quantity<Dimensionless> actualHumidity)
Quantity<Dimensionless>	SimulatedPHMeter.measure(Quantity<Dimensionless> actualPH)
Quantity<Dimensionless>	SimulatedSeismograph.readMagnitude()
Quantity<Dimensionless>	SimulatedHumidityProbe.readValue()
Quantity<Dimensionless>	SimulatedMicroscope.readValue()
Quantity<Dimensionless>	SimulatedMultimeter.readValue()
Quantity<ElectricPotential>	SimulatedOscilloscope.readValue()
Quantity<Dimensionless>	SimulatedPHMeter.readValue()
Quantity<Pressure>	SimulatedPressureGauge.readValue()
Quantity<Dimensionless>	SimulatedSeismograph.readValue()
Quantity<Dimensionless>	SimulatedSpectrometer.readValue()
Quantity<Angle>	SimulatedTelescope.readValue()
Quantity<Temperature>	SimulatedTemperatureProbe.readValue()

Methods in org.episteme.natural.device.sim that return types with arguments of type Quantity

Modifier and Type	Method	Description
Optional<Quantity<?>>	SimulatedVitalSignsMonitor.getValue()

Methods in org.episteme.natural.device.sim with parameters of type Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	SimulatedCentrifuge.calculateRCF(Quantity<Length> radius)
void	SimulatedSpectrometer.calibrate(Quantity<Length>[] ref, Quantity<Length>[] measured)
String	SimulatedPHMeter.classify(Quantity<Dimensionless> pH)
Quantity<Length>	SimulatedMicroscope.getApparentSize(Quantity<Length> actualSize)
Quantity<Dimensionless>	SimulatedPHMeter.getHydrogenConcentration(Quantity<Dimensionless> pH)
Quantity<Dimensionless>	SimulatedSpectrometer.getIntensityAt(Quantity<Length> wavelength)
boolean	SimulatedMicroscope.isResolvable(Quantity<Length> featureSize)
Quantity<Dimensionless>	SimulatedHumidityProbe.measure(Quantity<Dimensionless> actualHumidity)
Quantity<Dimensionless>	SimulatedPHMeter.measure(Quantity<Dimensionless> actualPH)
void	SimulatedMultimeter.probe(Quantity<Dimensionless> value)	Mocks probing a value.
void	SimulatedCentrifuge.send(Quantity<Frequency> command)
void	SimulatedSpectrometer.setIntegrationTime(Quantity<Time> time)
void	SimulatedMicroscope.setMagnification(Quantity<Dimensionless> magnification)
void	SimulatedOscilloscope.setSampleRate(Quantity<Frequency> samplesPerSecond)
void	SimulatedOscilloscope.setTimeBase(Quantity<Time> secondsPerDivision)
void	SimulatedOscilloscope.setTriggerLevel(Quantity<ElectricPotential> volts)
void	SimulatedOscilloscope.setVoltageScale(int channel, Quantity<ElectricPotential> voltsPerDivision)
void	SimulatedTelescope.slewTo(Quantity<Angle> ra, Quantity<Angle> dec)
void	SimulatedCentrifuge.start(Quantity<Frequency> rpm)
void	SimulatedTelescope.syncTo(Quantity<Angle> ra, Quantity<Angle> dec)

Constructors in org.episteme.natural.device.sim with parameters of type Quantity

Modifier	Constructor	Description
	SimulatedCentrifuge(Identification id, Quantity<Frequency> maxRPM, Quantity<Dimensionless> maxRCF, Centrifuge.RotorType rotorType)

Uses of Quantity in org.episteme.natural.device.transducers

Methods in org.episteme.natural.device.transducers that return Quantity

Modifier and Type	Method	Description
Quantity<Angle>[]	Telescope.getBottomRightFOV()	Returns the bottom-right coordinate of the current field of view.
Quantity<Angle>	Telescope.getDeclination()	Returns the current Declination.
Quantity<Angle>	Telescope.getRightAscension()	Returns the current Right Ascension.
Quantity<Angle>[]	Telescope.getTopLeftFOV()	Returns the top-left coordinate of the current field of view.

Methods in org.episteme.natural.device.transducers with parameters of type Quantity

Modifier and Type	Method	Description
void	Telescope.slewTo(Quantity<Angle> ra, Quantity<Angle> dec)	Slews the telescope to the given Right Ascension and Declination.
void	Telescope.syncTo(Quantity<Angle> ra, Quantity<Angle> dec)	Synchronizes the telescope to the given Right Ascension and Declination.

Uses of Quantity in org.episteme.natural.earth

Fields in org.episteme.natural.earth declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Mass>	EarthSciencesConstants.EARTH_MASS	Earth mass (kg)
static final Quantity<Length>	EarthSciencesConstants.EARTH_RADIUS_EQUATORIAL	WGS84 Earth equatorial radius (meters)
static final Quantity<Length>	EarthSciencesConstants.EARTH_RADIUS_MEAN	Mean Earth radius (meters)
static final Quantity<Length>	EarthSciencesConstants.EARTH_RADIUS_POLAR	WGS84 Earth polar radius (meters)
static final Quantity<Dimensionless>	EarthSciencesConstants.FLATTENING	WGS84 flattening

Methods in org.episteme.natural.earth that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	Place.distanceTo(Place other)
Quantity<Length>	Place.getUncertaintyRadius()

Methods in org.episteme.natural.earth with parameters of type Quantity

Modifier and Type	Method	Description
void	Place.setUncertaintyRadius(Quantity<Length> radius)

Uses of Quantity in org.episteme.natural.earth.atmosphere

Fields in org.episteme.natural.earth.atmosphere declared as Quantity

Modifier and Type	Field	Description
static final Quantity<?>	ClimateModel.SOLAR_CONSTANT
static final Quantity<?>	ClimateModel.STEFAN_BOLTZMANN

Methods in org.episteme.natural.earth.atmosphere that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	AtmosphericPressure.altitudeFromPressure(Quantity<Pressure> pressure)	Calculates altitude from pressure (inverse barometric).
static Quantity<Temperature>	ClimateModel.calculateBlackbodyTemperature(double albedo)	Calculates equilibrium temperature without greenhouse effect.
static Quantity<?>	ClimateModel.ch4RadiativeForcing(double currentCH4, double preindustrialCH4)	Calculates radiative forcing from methane.
static Quantity<?>	ClimateModel.co2RadiativeForcing(double currentCO2, double preindustrialCO2)	Calculates radiative forcing from CO2 concentration.
static Quantity<Temperature>	Psychrometrics.dewPoint(Quantity<Temperature> temperature, Real relativeHumidity)	Calculates Dew Point temperature.
Quantity<Temperature>	WeatherInfo.getFeelsLike()	Returns "feels like" temperature as Quantity in Kelvin.
Quantity<Pressure>	WeatherInfo.getPressure()	Returns pressure as type-safe Quantity in Pascal.
Quantity<Temperature>	WeatherInfo.getTemperature()	Returns temperature as type-safe Quantity in Kelvin.
Quantity<Velocity>	WeatherInfo.getWindSpeed()	Returns wind speed as type-safe Quantity in m/s.
Quantity<Temperature>	ClimateModel.ClimateState.globalMeanTemperature()	Returns the value of the globalMeanTemperature record component.
static Quantity<Pressure>	AtmosphericPressure.pressureAtAltitude(Quantity<Length> altitude)	Barometric formula for pressure at altitude.
Quantity<?>	ClimateModel.ClimateState.radiativeForcing()	Returns the value of the radiativeForcing record component.
Quantity<Length>	ClimateModel.ClimateState.seaLevel()	Returns the value of the seaLevel record component.
static Quantity<Temperature>	ClimateModel.temperatureChange(Quantity<?> radiativeForcing, double climateSensitivity)	Converts radiative forcing to temperature change.

Methods in org.episteme.natural.earth.atmosphere that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	ClimateModel.getQuantities()

Methods in org.episteme.natural.earth.atmosphere with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Length>	AtmosphericPressure.altitudeFromPressure(Quantity<Pressure> pressure)	Calculates altitude from pressure (inverse barometric).
static Quantity<Temperature>	Psychrometrics.dewPoint(Quantity<Temperature> temperature, Real relativeHumidity)	Calculates Dew Point temperature.
static Real	Psychrometrics.enthalpy(Quantity<Temperature> temperature, Real humidityRatio)	Calculates Enthalpy of moist air (kJ/kg). h = cpa*t + w*(hwe + cpw*t)
static Quantity<Pressure>	AtmosphericPressure.pressureAtAltitude(Quantity<Length> altitude)	Barometric formula for pressure at altitude.
static Real	Psychrometrics.relativeHumidity(Quantity<Temperature> temperature, Quantity<Temperature> dewPoint)	Calculates Relative Humidity.
static Real	Psychrometrics.saturationVaporPressure(Quantity<Temperature> temperature)	Calculates Saturation Vapor Pressure (hPa) using Magnus-Tetens formula.
static Quantity<Temperature>	ClimateModel.temperatureChange(Quantity<?> radiativeForcing, double climateSensitivity)	Converts radiative forcing to temperature change.

Constructors in org.episteme.natural.earth.atmosphere with parameters of type Quantity

Modifier	Constructor	Description
	ClimateState(Quantity<Temperature> globalMeanTemperature, double co2Concentration, double ch4Concentration, Quantity<?> radiativeForcing, Quantity<Length> seaLevel, int year)	Creates an instance of a ClimateState record class.

Uses of Quantity in org.episteme.natural.earth.coordinates

Methods in org.episteme.natural.earth.coordinates that return Quantity

Modifier and Type	Method	Description
default Quantity<Length>	EarthCoordinate.distanceTo(EarthCoordinate other)	Calculates the distance to another Earth coordinate.
Quantity<Length>	ECEFCoordinate.distanceTo(ECEFCoordinate other)	Calculates distance to another ECEF coordinate.
Quantity<Angle>	AERCoordinate.getAzimuth()
Quantity<Length>	ENUCoordinate.getEast()
Quantity<Length>	AlbersEqualAreaCoordinate.getEasting()
Quantity<Length>	BonneCoordinate.getEasting()
Quantity<Length>	CassiniSoldnerCoordinate.getEasting()
Quantity<Length>	LambertAzimuthalEqualAreaCoordinate.getEasting()
Quantity<Length>	LambertConformalConicCoordinate.getEasting()
Quantity<Length>	PolyconicCoordinate.getEasting()
Quantity<Length>	UPSCoordinate.getEasting()
Quantity<Length>	UTMCoordinate.getEasting()
Quantity<Angle>	AERCoordinate.getElevation()
Quantity<Length>	GeodeticCoordinate.getHeight()
Quantity<Angle>	GeodeticCoordinate.getLatitude()
Quantity<Angle>	GeodeticCoordinate.getLongitude()
Quantity<Length>	ENUCoordinate.getNorth()
Quantity<Length>	AlbersEqualAreaCoordinate.getNorthing()
Quantity<Length>	BonneCoordinate.getNorthing()
Quantity<Length>	CassiniSoldnerCoordinate.getNorthing()
Quantity<Length>	LambertAzimuthalEqualAreaCoordinate.getNorthing()
Quantity<Length>	LambertConformalConicCoordinate.getNorthing()
Quantity<Length>	PolyconicCoordinate.getNorthing()
Quantity<Length>	UPSCoordinate.getNorthing()
Quantity<Length>	UTMCoordinate.getNorthing()
Quantity<Length>	AERCoordinate.getRange()
Quantity<Length>	ReferenceEllipsoid.getSemiMajorAxis()
Quantity<Length>	ReferenceEllipsoid.getSemiMinorAxis()
Quantity<Length>	ENUCoordinate.getUp()
Quantity<Length>	ECEFCoordinate.getX()
Quantity<Length>	MercatorCoordinate.getX()
Quantity<Length>	ECEFCoordinate.getY()
Quantity<Length>	MercatorCoordinate.getY()
Quantity<Length>	ECEFCoordinate.getZ()

Constructors in org.episteme.natural.earth.coordinates with parameters of type Quantity

Modifier	Constructor	Description
	GeodeticCoordinate(Quantity<Angle> latitude, Quantity<Angle> longitude, Quantity<Length> height, ReferenceEllipsoid ellipsoid)
	UTMCoordinate(int zoneNumber, char zoneLetter, Quantity<Length> easting, Quantity<Length> northing, ReferenceEllipsoid ellipsoid)

Uses of Quantity in org.episteme.natural.earth.geodesy

Methods in org.episteme.natural.earth.geodesy that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	GeodeticCalculator.calculateDistance(GeodeticCoordinate start, GeodeticCoordinate end)	Calculates the geodetic distance between two coordinates on the surface of the ellipsoid.
static Quantity<Length>	Geodesy.haversineDistance(Real lat1, Real lon1, Real lat2, Real lon2)	Haversine formula for great-circle distance.

Uses of Quantity in org.episteme.natural.earth.geology

Methods in org.episteme.natural.earth.geology that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	VolcanoHazardModel.getAshThickness(Quantity<Length> distance, Quantity<Length> thicknessAtVent)	Estimates ash fall thickness using a spatial decay model.
Quantity<Length>	VolcanoHazardModel.getPlumeHeight()	Calculates the plume height using the Morton, Taylor and Turner (MTT) model.
Quantity<Length>	VolcanoHazardModel.getPyroclasticRunout()	Predicts Pyroclastic Flow runout distance using the "Energy Cone" model (H/L ratio).

Methods in org.episteme.natural.earth.geology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	VolcanoHazardModel.getQuantities()

Methods in org.episteme.natural.earth.geology with parameters of type Quantity

Modifier and Type	Method	Description
Quantity<Length>	VolcanoHazardModel.getAshThickness(Quantity<Length> distance, Quantity<Length> thicknessAtVent)	Estimates ash fall thickness using a spatial decay model.
void	VolcanoHazardModel.setMassDischargeRate(Quantity<?> rate)
void	VolcanoHazardModel.setVentHeight(Quantity<Length> height)
void	VolcanoHazardModel.setWindSpeed(Quantity<Velocity> speed)

Uses of Quantity in org.episteme.natural.earth.geophysics

Methods in org.episteme.natural.earth.geophysics that return Quantity

Modifier and Type	Method	Description
Quantity<Temperature>	Atmosphere.getAverageTemperature()
Quantity<Velocity>	PlateVector.getEastVelocity()
Quantity<Length>	Atmosphere.getHeight()
Quantity<Angle>	PlateVector.getLatitude()
Quantity<Angle>	PlateVector.getLongitude()
Quantity<Velocity>	PlateVector.getNorthVelocity()
Quantity<Pressure>	Atmosphere.getPressureValue()

Methods in org.episteme.natural.earth.geophysics with parameters of type Quantity

Modifier and Type	Method	Description
static double	VincentyUtils.distance(Quantity<Angle> lat1, Quantity<Angle> lon1, Quantity<Angle> lat2, Quantity<Angle> lon2)	Calculates the distance between two points on the ellipsoid.
static PlateVector	PlateMotionCalculator.predictPosition(PlateVector start, Quantity<Time> duration)	Projects the position of a site into the future based on its velocity vector.
void	Atmosphere.setAverageTemperature(Quantity<Temperature> averageTemperature)
void	Atmosphere.setHeight(Quantity<Length> height)
void	Atmosphere.setPressureValue(Quantity<Pressure> pressureValue)

Constructors in org.episteme.natural.earth.geophysics with parameters of type Quantity

Modifier	Constructor	Description
	Atmosphere(Quantity<Length> height, String composition)
	PlateVector(String siteId, Quantity<Angle> latitude, Quantity<Angle> longitude, Quantity<Velocity> northVelocity, Quantity<Velocity> eastVelocity)

Uses of Quantity in org.episteme.natural.earth.seismology

Fields in org.episteme.natural.earth.seismology declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Length>	Seismology.EARTH_RADIUS	Earth's radius (km)
static final Quantity<Velocity>	Seismology.VP_CRUST	P-wave velocity in Earth's crust: ~6.0 km/s
static final Quantity<Velocity>	Seismology.VS_CRUST	S-wave velocity in Earth's crust: ~3.5 km/s

Methods in org.episteme.natural.earth.seismology that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	Seismology.averageSlip(Real magnitude)	Estimate average slip from magnitude. log10(D) = 0.5 * M - 3.58 (meters)
Quantity<Length>	EpicenterTriangulator.StationRecord.distance()	Returns the value of the distance record component.
static Quantity<Length>	Seismology.distanceFromSpTime(Quantity<Time> spTime)	Estimate distance from S-P time difference.
static Quantity<Energy>	Seismology.energyReleased(Real magnitude)	Estimate energy released by earthquake. log10(E) = 1.5 * M + 4.8 (Joules)
Quantity<Length>	Earthquake.getDepth()
Quantity<Angle>	Earthquake.getLatitude()
Quantity<Angle>	Earthquake.getLongitude()
static Quantity<Time>	Seismology.pWaveTravelTime(Quantity<Length> distance)	P-wave travel time for crustal path.
static Quantity<Length>	Seismology.ruptureLength(Real magnitude)	Estimate fault rupture length from seismic moment.
static Quantity<Time>	Seismology.spTimeDifference(Quantity<Length> distance)	S-P time difference (used for locating earthquakes).
static Quantity<Time>	Seismology.sWaveTravelTime(Quantity<Length> distance)	S-wave travel time for crustal path.

Methods in org.episteme.natural.earth.seismology with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Length>	Seismology.distanceFromSpTime(Quantity<Time> spTime)	Estimate distance from S-P time difference.
static int	Seismology.estimateIntensity(Real magnitude, Quantity<Length> distance)	Estimate Modified Mercalli Intensity from magnitude and distance.
static Quantity<Time>	Seismology.pWaveTravelTime(Quantity<Length> distance)	P-wave travel time for crustal path.
static Quantity<Time>	Seismology.spTimeDifference(Quantity<Length> distance)	S-P time difference (used for locating earthquakes).
static Quantity<Time>	Seismology.sWaveTravelTime(Quantity<Length> distance)	S-wave travel time for crustal path.

Constructors in org.episteme.natural.earth.seismology with parameters of type Quantity

Modifier	Constructor	Description
	Earthquake(Quantity<Angle> latitude, Quantity<Angle> longitude, Real magnitude, Quantity<Length> depth)
	StationRecord(Real x, Real y, Quantity<Length> distance)	Creates an instance of a StationRecord record class.

Uses of Quantity in org.episteme.natural.engineering.control

Methods in org.episteme.natural.engineering.control that return Quantity

Modifier and Type	Method	Description
static Quantity<Angle>	ControlSystems.firstOrderPhase(Quantity<Frequency> omega, Quantity<Frequency> omegaCutoff)	Bode phase for first-order system.
static Quantity<Dimensionless>	ControlSystems.overshoot(Real zeta)	Overshoot percentage.
static Quantity<Time>	ControlSystems.peakTime(Quantity<Frequency> wn, Real zeta)	Peak time for second-order underdamped system. tp = π / wd
static Quantity<Angle>	ControlSystems.phaseMargin(Quantity<Angle> phaseAtCrossover)	Phase margin from open-loop gain and phase at crossover.
static Quantity<Time>	ControlSystems.riseTime(Quantity<Frequency> wn, Real zeta)	Rise time estimate for second-order system. tr ≈ (π - φ) / wd
static Quantity<Time>	ControlSystems.settlingTime(Quantity<Frequency> wn, Real zeta)	Settling time (2% criterion). ts ≈ 4 / (ζ * ωn)

Methods in org.episteme.natural.engineering.control with parameters of type Quantity

Modifier and Type	Method	Description
static Real	ControlSystems.firstOrderMagnitude(Real K, Quantity<Frequency> omega, Quantity<Frequency> omegaCutoff)	Bode magnitude for first-order system.
static Quantity<Angle>	ControlSystems.firstOrderPhase(Quantity<Frequency> omega, Quantity<Frequency> omegaCutoff)	Bode phase for first-order system.
static Real	ControlSystems.firstOrderStepResponse(Real K, Quantity<Time> tau, Quantity<Time> t)	First-order system step response. y(t) = K * (1 - e^(-t/Ï„))
static Quantity<Time>	ControlSystems.peakTime(Quantity<Frequency> wn, Real zeta)	Peak time for second-order underdamped system. tp = π / wd
static Quantity<Angle>	ControlSystems.phaseMargin(Quantity<Angle> phaseAtCrossover)	Phase margin from open-loop gain and phase at crossover.
static Quantity<Time>	ControlSystems.riseTime(Quantity<Frequency> wn, Real zeta)	Rise time estimate for second-order system. tr ≈ (π - φ) / wd
static Real	ControlSystems.secondOrderStepResponse(Quantity<Frequency> wn, Real zeta, Quantity<Time> t)	Second-order system step response (underdamped).
static Quantity<Time>	ControlSystems.settlingTime(Quantity<Frequency> wn, Real zeta)	Settling time (2% criterion). ts ≈ 4 / (ζ * ωn)

Constructors in org.episteme.natural.engineering.control with parameters of type Quantity

Modifier	Constructor	Description
	PIDController(Real Kp, Real Ki, Real Kd, Quantity<Time> dt)

Uses of Quantity in org.episteme.natural.engineering.electrical

Methods in org.episteme.natural.engineering.electrical that return Quantity

Modifier and Type	Method	Description
static Quantity<ElectricCapacitance>	CircuitAnalysis.capacitanceParallel(List<Quantity<ElectricCapacitance>> capacitances)	Total capacitance in parallel.
static Quantity<ElectricCapacitance>	CircuitAnalysis.capacitanceSeries(List<Quantity<ElectricCapacitance>> capacitances)	Total capacitance in series.
static Quantity<ElectricResistance>	CircuitAnalysis.capacitiveReactance(Quantity<Frequency> frequency, Quantity<ElectricCapacitance> capacitance)	Capacitive reactance.
static 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.
static Quantity<ElectricCurrent>	CircuitAnalysis.currentDivider(Quantity<ElectricCurrent> iTotal, Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2)	Current divider for 2 parallel resistors.
static Quantity<ElectricResistance>	CircuitAnalysis.impedanceMagnitude(Quantity<ElectricResistance> r, Quantity<ElectricResistance> xl, Quantity<ElectricResistance> xc)	Impedance magnitude for RLC series circuit.
static Quantity<ElectricResistance>	CircuitAnalysis.inductiveReactance(Quantity<Frequency> frequency, Quantity<Inductance> inductance)	Inductive reactance.
static Quantity<Power>	CircuitAnalysis.power(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current)	Electrical power.
static Quantity<Power>	CircuitAnalysis.powerFromCurrent(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance)	Power from current and resistance.
static Quantity<Power>	CircuitAnalysis.powerFromVoltage(Quantity<ElectricPotential> voltage, Quantity<ElectricResistance> resistance)	Power from voltage and resistance.
static Quantity<Time>	CircuitAnalysis.rcTimeConstant(Quantity<ElectricResistance> r, Quantity<ElectricCapacitance> c)	RC time constant.
static Quantity<ElectricResistance>	CircuitAnalysis.resistance(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current)	Resistance from voltage and current.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceParallel(List<Quantity<ElectricResistance>> resistances)	Total resistance in parallel.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceParallel2(Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2)	Two resistors in parallel.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceSeries(List<Quantity<ElectricResistance>> resistances)	Total resistance in series.
static Quantity<Frequency>	CircuitAnalysis.resonantFrequency(Quantity<Inductance> inductance, Quantity<ElectricCapacitance> capacitance)	Resonant frequency for LC circuit. f = 1 / (2Ï€ * sqrt(LC))
static Quantity<Time>	CircuitAnalysis.rlTimeConstant(Quantity<Inductance> l, Quantity<ElectricResistance> r)	RL time constant.
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.

Methods in org.episteme.natural.engineering.electrical with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<ElectricResistance>	CircuitAnalysis.capacitiveReactance(Quantity<Frequency> frequency, Quantity<ElectricCapacitance> capacitance)	Capacitive reactance.
static 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.
static Quantity<ElectricCurrent>	CircuitAnalysis.currentDivider(Quantity<ElectricCurrent> iTotal, Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2)	Current divider for 2 parallel resistors.
static Quantity<ElectricResistance>	CircuitAnalysis.impedanceMagnitude(Quantity<ElectricResistance> r, Quantity<ElectricResistance> xl, Quantity<ElectricResistance> xc)	Impedance magnitude for RLC series circuit.
static Quantity<ElectricResistance>	CircuitAnalysis.inductiveReactance(Quantity<Frequency> frequency, Quantity<Inductance> inductance)	Inductive reactance.
static Quantity<Power>	CircuitAnalysis.power(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current)	Electrical power.
static Quantity<Power>	CircuitAnalysis.powerFromCurrent(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance)	Power from current and resistance.
static Quantity<Power>	CircuitAnalysis.powerFromVoltage(Quantity<ElectricPotential> voltage, Quantity<ElectricResistance> resistance)	Power from voltage and resistance.
static Real	CircuitAnalysis.qualityFactor(Quantity<ElectricResistance> resistance, Quantity<Inductance> inductance, Quantity<ElectricCapacitance> capacitance)	Quality factor for RLC circuit.
static Quantity<Time>	CircuitAnalysis.rcTimeConstant(Quantity<ElectricResistance> r, Quantity<ElectricCapacitance> c)	RC time constant.
static Quantity<ElectricResistance>	CircuitAnalysis.resistance(Quantity<ElectricPotential> voltage, Quantity<ElectricCurrent> current)	Resistance from voltage and current.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceParallel2(Quantity<ElectricResistance> r1, Quantity<ElectricResistance> r2)	Two resistors in parallel.
static Quantity<Frequency>	CircuitAnalysis.resonantFrequency(Quantity<Inductance> inductance, Quantity<ElectricCapacitance> capacitance)	Resonant frequency for LC circuit. f = 1 / (2Ï€ * sqrt(LC))
static Quantity<Time>	CircuitAnalysis.rlTimeConstant(Quantity<Inductance> l, Quantity<ElectricResistance> r)	RL time constant.
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 Quantity

Modifier and Type	Method	Description
static Quantity<ElectricCapacitance>	CircuitAnalysis.capacitanceParallel(List<Quantity<ElectricCapacitance>> capacitances)	Total capacitance in parallel.
static Quantity<ElectricCapacitance>	CircuitAnalysis.capacitanceSeries(List<Quantity<ElectricCapacitance>> capacitances)	Total capacitance in series.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceParallel(List<Quantity<ElectricResistance>> resistances)	Total resistance in parallel.
static Quantity<ElectricResistance>	CircuitAnalysis.resistanceSeries(List<Quantity<ElectricResistance>> resistances)	Total resistance in series.

Uses of Quantity in org.episteme.natural.engineering.fluids

Fields in org.episteme.natural.engineering.fluids declared as Quantity

Modifier and Type	Field	Description
static final Quantity<MassDensity>	FluidMachinery.RHO_WATER	Water density (kg/m³)

Methods in org.episteme.natural.engineering.fluids that return Quantity

Modifier and Type	Method	Description
static Quantity<VolumetricFlowRate>	FluidMachinery.affinityFlowRate(Quantity<VolumetricFlowRate> Q1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: flow rate vs speed.
static Quantity<Length>	FluidMachinery.affinityHead(Quantity<Length> H1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: head vs speed.
static Quantity<Power>	FluidMachinery.affinityPower(Quantity<Power> P1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: power vs speed.
static Quantity<Pressure>	FluidFlow.bernoulliPressure(Quantity<Pressure> p1, Quantity<Velocity> v1, Quantity<Length> h1, Quantity<Velocity> v2, Quantity<Length> h2, Real density)	Bernoulli's equation for incompressible flow.
static Quantity<Power>	FluidMachinery.hydraulicPower(Quantity<MassDensity> density, Quantity<VolumetricFlowRate> flowRate, Quantity<Length> head)	Pump hydraulic power.
static Quantity<Length>	FluidMachinery.npshAvailable(Quantity<Pressure> atmosphericPressure, Quantity<Length> suctionHeight, Quantity<Length> frictionLoss, Quantity<Pressure> vaporPressure, Quantity<MassDensity> density)	Net Positive Suction Head available.
static Quantity<Velocity>	FluidMachinery.peltonJetVelocity(Quantity<Length> head, Real velocityCoefficient)	Pelton wheel jet velocity. v = Cv * sqrt(2 * g * H)
static Quantity<Power>	FluidMachinery.turbinePower(Real efficiency, Quantity<MassDensity> density, Quantity<VolumetricFlowRate> flowRate, Quantity<Length> head)	Turbine power output.

Methods in org.episteme.natural.engineering.fluids with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<VolumetricFlowRate>	FluidMachinery.affinityFlowRate(Quantity<VolumetricFlowRate> Q1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: flow rate vs speed.
static Quantity<Length>	FluidMachinery.affinityHead(Quantity<Length> H1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: head vs speed.
static Quantity<Power>	FluidMachinery.affinityPower(Quantity<Power> P1, Quantity<Frequency> N1, Quantity<Frequency> N2)	Affinity laws: power vs speed.
static Quantity<Pressure>	FluidFlow.bernoulliPressure(Quantity<Pressure> p1, Quantity<Velocity> v1, Quantity<Length> h1, Quantity<Velocity> v2, Quantity<Length> h2, Real density)	Bernoulli's equation for incompressible flow.
static Real	FluidMachinery.cavitationNumber(Quantity<Pressure> pressure, Quantity<Pressure> vaporPressure, Quantity<MassDensity> density, Quantity<Velocity> velocity)	Cavitation number.
static Quantity<Power>	FluidMachinery.hydraulicPower(Quantity<MassDensity> density, Quantity<VolumetricFlowRate> flowRate, Quantity<Length> head)	Pump hydraulic power.
static Quantity<Length>	FluidMachinery.npshAvailable(Quantity<Pressure> atmosphericPressure, Quantity<Length> suctionHeight, Quantity<Length> frictionLoss, Quantity<Pressure> vaporPressure, Quantity<MassDensity> density)	Net Positive Suction Head available.
static Quantity<Velocity>	FluidMachinery.peltonJetVelocity(Quantity<Length> head, Real velocityCoefficient)	Pelton wheel jet velocity. v = Cv * sqrt(2 * g * H)
static Real	FluidMachinery.pumpEfficiency(Quantity<Power> hydraulicPower, Quantity<Power> shaftPower)	Pump efficiency.
static Real	FluidMachinery.specificSpeed(Quantity<Frequency> speed, Quantity<VolumetricFlowRate> flowRate, Quantity<Length> head)	Specific speed (dimensionless-ish).
static Quantity<Power>	FluidMachinery.turbinePower(Real efficiency, Quantity<MassDensity> density, Quantity<VolumetricFlowRate> flowRate, Quantity<Length> head)	Turbine power output.

Uses of Quantity in org.episteme.natural.engineering.mechanics

Methods in org.episteme.natural.engineering.mechanics that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	BeamDeflection.cantilever_EndLoad(Quantity<Force> load, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Maximum deflection for cantilever beam with end load.
static Quantity<Length>	BeamDeflection.simplySupported_CenterLoad(Quantity<Force> load, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Maximum deflection for simply supported beam with center point load.
static Quantity<Length>	BeamDeflection.simplySupported_UniformLoad(Real loadPerMeter, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Simply supported beam with uniformly distributed load.

Methods in org.episteme.natural.engineering.mechanics with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Length>	BeamDeflection.cantilever_EndLoad(Quantity<Force> load, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Maximum deflection for cantilever beam with end load.
static Real	BeamDeflection.circleMomentOfInertia(Quantity<Length> radius)	Circular cross-section moment of inertia.
static Real	BeamDeflection.rectangleMomentOfInertia(Quantity<Length> width, Quantity<Length> height)	Rectangle moment of inertia.
static Quantity<Length>	BeamDeflection.simplySupported_CenterLoad(Quantity<Force> load, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Maximum deflection for simply supported beam with center point load.
static Quantity<Length>	BeamDeflection.simplySupported_UniformLoad(Real loadPerMeter, Quantity<Length> length, Quantity<Pressure> elasticModulus, Real momentOfInertia)	Simply supported beam with uniformly distributed load.

Uses of Quantity in org.episteme.natural.engineering.robotics

Methods in org.episteme.natural.engineering.robotics with parameters of type Quantity

Modifier and Type	Method	Description
static Matrix<Real>	Kinematics.dhMatrix(Quantity<Angle> theta, Quantity<Length> d, Quantity<Length> a, Quantity<Angle> alpha)	Denavit-Hartenberg transformation matrix.
static Vector<Real>	Kinematics.forwardKinematics2Link(Quantity<Length> L1, Quantity<Length> L2, Quantity<Angle> theta1, Quantity<Angle> theta2)	2D forward kinematics for 2-link planar arm.
static Matrix<Real>	Kinematics.jacobian2Link(Quantity<Length> L1, Quantity<Length> L2, Quantity<Angle> theta1, Quantity<Angle> theta2)	Jacobian for 2-link planar arm (velocity kinematics).

Uses of Quantity in org.episteme.natural.engineering.structural

Methods in org.episteme.natural.engineering.structural that return Quantity

Modifier and Type	Method	Description
static Quantity<Pressure>	StructuralAnalysis.bendingStressQ(Quantity<?> moment, Quantity<Length> distanceFromNA, Real momentOfInertia)	Bending stress using Quantity types.
static Quantity<Force>	StructuralAnalysis.eulerBucklingLoadQ(Quantity<Pressure> E, Real I, Quantity<Length> L, Real K)	Euler buckling load using Quantity types.

Methods in org.episteme.natural.engineering.structural with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Pressure>	StructuralAnalysis.bendingStressQ(Quantity<?> moment, Quantity<Length> distanceFromNA, Real momentOfInertia)	Bending stress using Quantity types.
static Quantity<Force>	StructuralAnalysis.eulerBucklingLoadQ(Quantity<Pressure> E, Real I, Quantity<Length> L, Real K)	Euler buckling load using Quantity types.

Uses of Quantity in org.episteme.natural.engineering.thermal

Methods in org.episteme.natural.engineering.thermal that return Quantity

Modifier and Type	Method	Description
static Quantity<Power>	HeatTransfer.conduction(Real thermalConductivity, Quantity<Area> area, Quantity<Temperature> temperatureDifference, Quantity<Length> thickness)	Fourier's Law for heat conduction.
static Quantity<Power>	HeatTransfer.convection(Real convectionCoefficient, Quantity<Area> area, Quantity<Temperature> temperatureDifference)	Newton's Law of Cooling for convection.
static Quantity<Power>	HeatTransfer.radiation(Real emissivity, Quantity<Area> area, Quantity<Temperature> surfaceTemp, Quantity<Temperature> surroundingTemp)	Stefan-Boltzmann Law for radiation.

Methods in org.episteme.natural.engineering.thermal with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Power>	HeatTransfer.conduction(Real thermalConductivity, Quantity<Area> area, Quantity<Temperature> temperatureDifference, Quantity<Length> thickness)	Fourier's Law for heat conduction.
static Quantity<Power>	HeatTransfer.convection(Real convectionCoefficient, Quantity<Area> area, Quantity<Temperature> temperatureDifference)	Newton's Law of Cooling for convection.
static Quantity<Power>	HeatTransfer.radiation(Real emissivity, Quantity<Area> area, Quantity<Temperature> surfaceTemp, Quantity<Temperature> surroundingTemp)	Stefan-Boltzmann Law for radiation.
static Real	HeatTransfer.thermalResistance(Quantity<Length> thickness, Real thermalConductivity, Quantity<Area> area)	Thermal resistance for conduction.

Uses of Quantity in org.episteme.natural.medicine

Methods in org.episteme.natural.medicine that return Quantity

Modifier and Type	Method	Description
Quantity<Pressure>	VitalSigns.diastolic()	Returns the value of the diastolic record component.
Quantity<?>	Medication.getDosageAmount()
Quantity<Frequency>	VitalSigns.heartRate()	Returns the value of the heartRate record component.
Quantity<Frequency>	VitalSigns.respirationRate()	Returns the value of the respirationRate record component.
Quantity<Dimensionless>	VitalSigns.spO2()	Returns the value of the spO2 record component.
Quantity<Pressure>	VitalSigns.systolic()	Returns the value of the systolic record component.
Quantity<Temperature>	VitalSigns.temperature()	Returns the value of the temperature record component.

Methods in org.episteme.natural.medicine with parameters of type Quantity

Modifier and Type	Method	Description
void	Medication.setDosageAmount(Quantity<?> dosageAmount)

Constructors in org.episteme.natural.medicine with parameters of type Quantity

Modifier	Constructor	Description
	VitalSigns(Quantity<Frequency> heartRate, Quantity<Pressure> systolic, Quantity<Pressure> diastolic, Quantity<Dimensionless> spO2, Quantity<Frequency> respirationRate, Quantity<Temperature> temperature)	Creates an instance of a VitalSigns record class.

Uses of Quantity in org.episteme.natural.medicine.anthropometry

Methods in org.episteme.natural.medicine.anthropometry that return Quantity

Modifier and Type	Method	Description
static Quantity<Mass>	BodyMetrics.idealBodyWeightFemale(Quantity<Length> height)	Ideal body weight (Devine formula, female)
static Quantity<Mass>	BodyMetrics.idealBodyWeightMale(Quantity<Length> height)	Ideal body weight (Devine formula, male)

Methods in org.episteme.natural.medicine.anthropometry with parameters of type Quantity

Modifier and Type	Method	Description
static Real	BodyMetrics.bmi(Quantity<Mass> mass, Quantity<Length> height)	BMI = mass (kg) / height² (m²)
static Real	BodyMetrics.bsaDuBois(Quantity<Mass> mass, Quantity<Length> height)	Du Bois BSA formula: BSA = 0.007184 * w^0.425 * h^0.725
static Real	BodyMetrics.bsaMosteller(Quantity<Mass> mass, Quantity<Length> height)	Mosteller BSA: sqrt(weight * height / 3600)
static Quantity<Mass>	BodyMetrics.idealBodyWeightFemale(Quantity<Length> height)	Ideal body weight (Devine formula, female)
static Quantity<Mass>	BodyMetrics.idealBodyWeightMale(Quantity<Length> height)	Ideal body weight (Devine formula, male)

Uses of Quantity in org.episteme.natural.medicine.epidemiology

Methods in org.episteme.natural.medicine.epidemiology that return Quantity

Modifier and Type	Method	Description
Quantity<Frequency>	SEIRModel.getBeta()
Quantity<Frequency>	SEIRSModel.getBeta()
Quantity<Frequency>	SIRModel.getBeta()
Quantity<Frequency>	SEIRModel.getGamma()
Quantity<Frequency>	SEIRSModel.getGamma()
Quantity<Frequency>	SIRModel.getGamma()
Quantity<Time>	SIRModel.getPeakTime()	Peak time estimation
Quantity<Frequency>	SEIRModel.getSigma()
Quantity<Frequency>	SEIRSModel.getSigma()
Quantity<Time>	SEIRModel.getTime()
Quantity<Time>	SEIRSModel.getTime()
Quantity<Time>	SIRModel.getTime()
Quantity<Frequency>	SEIRSModel.getXi()

Methods in org.episteme.natural.medicine.epidemiology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	SEIRModel.getQuantities()
Map<String, Quantity<?>>	SEIRSModel.getQuantities()
Map<String, Quantity<?>>	SIRModel.getQuantities()

Methods in org.episteme.natural.medicine.epidemiology with parameters of type Quantity

Modifier and Type	Method	Description
Real[][]	SEIRModel.simulate(Quantity<Time> duration, Quantity<Time> dt)	Run simulation for duration
Real[][]	SEIRSModel.simulate(Quantity<Time> duration, Quantity<Time> dt)	Run simulation for duration
Real[][]	SIRModel.simulate(Quantity<Time> duration, Quantity<Time> dt)	Run simulation for duration
void	SEIRModel.step(Quantity<Time> dt)	Advance simulation by dt using Euler method
void	SEIRSModel.step(Quantity<Time> dt)	Advance simulation by dt
void	SIRModel.step(Quantity<Time> dt)	Advance simulation by dt using Euler method

Constructors in org.episteme.natural.medicine.epidemiology with parameters of type Quantity

Modifier	Constructor	Description
	SEIRModel(int population, int initialExposed, int initialInfected, Quantity<Frequency> transmissionRate, Quantity<Frequency> incubationRate, Quantity<Frequency> recoveryRate)	Creates a SEIR model.
	SEIRSModel(int population, int initialExposed, int initialInfected, Quantity<Frequency> transmissionRate, Quantity<Frequency> incubationRate, Quantity<Frequency> recoveryRate, Quantity<Frequency> immunityLossRate)	Creates a SEIRS model.
	SIRModel(int population, int initialInfected, Quantity<Frequency> transmissionRate, Quantity<Frequency> recoveryRate)

Uses of Quantity in org.episteme.natural.medicine.imaging

Methods in org.episteme.natural.medicine.imaging that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	Voxel.getSpacingX()
Quantity<Length>	Voxel.getSpacingY()
Quantity<Length>	Voxel.getSpacingZ()
Quantity<?>	Voxel.getVolume()	Calculates the physical volume of this voxel.

Constructors in org.episteme.natural.medicine.imaging with parameters of type Quantity

Modifier	Constructor	Description
	Voxel(Quantity<Length> spacingX, Quantity<Length> spacingY, Quantity<Length> spacingZ, double value)

Uses of Quantity in org.episteme.natural.medicine.pharmacology

Methods in org.episteme.natural.medicine.pharmacology that return Quantity

Modifier and Type	Method	Description
Quantity<?>	Pharmacokinetics.concentrationAfterBolus(Quantity<Mass> dose, Quantity<Time> time)	Plasma concentration after single IV bolus dose.
Quantity<?>	Pharmacokinetics.concentrationAfterOral(Quantity<Mass> dose, Quantity<Time> time, Quantity<Frequency> absorptionRate)	Plasma concentration after oral dose.
Quantity<?>	Pharmacokinetics.getClearance()	Clearance.
Quantity<Time>	Pharmacokinetics.getHalfLife()	Elimination half-life. t½ = ln(2) / ke
Quantity<Frequency>	Pharmacokinetics.getKe()
Quantity<Volume>	Pharmacokinetics.getVd()
Quantity<Mass>	Pharmacokinetics.loadingDose(Quantity<?> targetConcentration)	Loading dose to achieve target concentration.
Quantity<?>	Pharmacokinetics.steadyStateAverage(Quantity<Mass> dose, Quantity<Time> dosingInterval)	Steady-state average concentration with repeated dosing.
Quantity<Time>	Pharmacokinetics.timeToPeak(Quantity<Frequency> absorptionRate)	Time to peak concentration after oral dose. tmax = ln(ka/ke) / (ka - ke)

Methods in org.episteme.natural.medicine.pharmacology with parameters of type Quantity

Modifier and Type	Method	Description
static Real	DoseCalculator.clarksRule(Real adultDoseMg, Quantity<Mass> childWeight)	Clark's rule: Child dose = (weight_lbs / 150) * adult_dose
Quantity<?>	Pharmacokinetics.concentrationAfterBolus(Quantity<Mass> dose, Quantity<Time> time)	Plasma concentration after single IV bolus dose.
Quantity<?>	Pharmacokinetics.concentrationAfterOral(Quantity<Mass> dose, Quantity<Time> time, Quantity<Frequency> absorptionRate)	Plasma concentration after oral dose.
static Real	DoseCalculator.creatinineClearance(int ageYears, Quantity<Mass> weight, Real serumCreatinineMgDl, boolean isFemale)	Creatinine clearance (Cockcroft-Gault)
static Pharmacokinetics	Pharmacokinetics.fromHalfLife(Quantity<Time> halfLife, Quantity<Volume> volume, double bioavailability)	Creates model from half-life and volume.
Quantity<Mass>	Pharmacokinetics.loadingDose(Quantity<?> targetConcentration)	Loading dose to achieve target concentration.
Quantity<?>	Pharmacokinetics.steadyStateAverage(Quantity<Mass> dose, Quantity<Time> dosingInterval)	Steady-state average concentration with repeated dosing.
Quantity<Time>	Pharmacokinetics.timeToPeak(Quantity<Frequency> absorptionRate)	Time to peak concentration after oral dose. tmax = ln(ka/ke) / (ka - ke)
static Real	DoseCalculator.weightBasedDose(Real dosePerKg, Quantity<Mass> weight)	Weight-based dose: dose = dosePerKg * weight

Constructors in org.episteme.natural.medicine.pharmacology with parameters of type Quantity

Modifier	Constructor	Description
	Pharmacokinetics(Quantity<Frequency> eliminationRateConstant, Quantity<Volume> volumeOfDistribution, double bioavailability)	Creates pharmacokinetic model.

Uses of Quantity in org.episteme.natural.physics

Classes in org.episteme.natural.physics with type parameters of type Quantity

Modifier and Type	Class	Description
class	PhysicalConstant<Q extends Quantity<Q>>	Fundamental physical constants.

Fields in org.episteme.natural.physics declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Length>	PhysicalConstants.ASTRONOMICAL_UNIT_QTY
static final Quantity<?>	PhysicalConstants.AVOGADRO_CONSTANT
static final Quantity<Entropy>	PhysicalConstants.BOLTZMANN_CONSTANT
static final Quantity<ElectricPermittivity>	PhysicalConstants.ELECTRIC_CONSTANT
static final Quantity<Mass>	PhysicalConstants.ELECTRON_MASS
static final Quantity<Energy>	PhysicalConstants.ELECTRON_VOLT_QTY
static final Quantity<ElectricCharge>	PhysicalConstants.ELEMENTARY_CHARGE
static final Quantity<ElectricPermittivity>	PhysicalConstants.EPSILON_0
static final Quantity<Dimensionless>	PhysicalConstants.FINE_STRUCTURE
static final Quantity<?>	PhysicalConstants.GAS_CONSTANT
static final Quantity<?>	PhysicalConstants.GRAVITATIONAL_CONSTANT
static final Quantity<Action>	PhysicalConstants.HBAR
static final Quantity<Length>	PhysicalConstants.LIGHT_YEAR_QTY
static final Quantity<MagneticPermeability>	PhysicalConstants.MU_0_QTY
static final Quantity<Mass>	PhysicalConstants.NEUTRON_MASS
static final Quantity<Length>	PhysicalConstants.PARSEC_QTY
static final Quantity<Action>	PhysicalConstants.PLANCK_CONSTANT
static final Quantity<Mass>	PhysicalConstants.PROTON_MASS
static final Quantity<Action>	PhysicalConstants.REDUCED_PLANCK
static final Quantity<WaveNumber>	PhysicalConstants.RYDBERG_CONSTANT
static final Quantity<Mass>	PhysicalConstants.SOLAR_MASS_QTY
static final Quantity<Velocity>	PhysicalConstants.SPEED_OF_LIGHT
static final Quantity<Acceleration>	PhysicalConstants.STANDARD_GRAVITY
static final Quantity<Power>	PhysicalConstants.STEFAN_BOLTZMANN_CONSTANT

Methods in org.episteme.natural.physics that return Quantity

Modifier and Type	Method	Description
Quantity<Q>	PhysicalConstant.toQuantity()

Uses of Quantity in org.episteme.natural.physics.astronomy

Fields in org.episteme.natural.physics.astronomy declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Length>	AstronomyConstants.AU_QTY
static final Quantity<Time>	AstronomyConstants.DAY_DURATION
static final Quantity<?>	AstronomyConstants.EARTH_GM
static final Quantity<Angle>	AstronomyConstants.GALACTIC_LON_NCP_QTY
static final Quantity<Time>	AstronomyConstants.GAUSSIAN_YEAR	Gaussian year (period of ideal particle in circular orbit).
static final Quantity<Time>	AstronomyConstants.JULIAN_YEAR	Standard Julian year (exactly 365.25 days).
static final Quantity<Mass>	AstronomyConstants.JUPITER_MASS_QTY
static final Quantity<Length>	AstronomyConstants.JUPITER_RADIUS_QTY
static final Quantity<Angle>	AstronomyConstants.NGP_DEC_QTY
static final Quantity<Angle>	AstronomyConstants.NGP_RA_QTY
static final Quantity<Length>	AstronomyConstants.PARSEC_QTY
static final Quantity<Time>	AstronomyConstants.SIDEREAL_DAY	Sideral day (rotation of Earth relative to fixed stars).
static final Quantity<Time>	AstronomyConstants.SIDEREAL_YEAR	Sidereal year (orbital period relative to fixed stars).
static final Quantity<?>	AstronomyConstants.SOLAR_GM
static final Quantity<Time>	AstronomyConstants.TROPICAL_YEAR	Tropical year (period between successive vernal equinoxes).

Methods in org.episteme.natural.physics.astronomy that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	RingSystem.getInnerRadius()
Quantity<Power>	Star.getLuminosity()
Quantity<Length>	RingSystem.getOuterRadius()
Quantity<Length>	CelestialBody.getRadius()
Quantity<Time>	CelestialBody.getRotationPeriod()
Quantity<Acceleration>	CelestialBody.getSurfaceGravity()	Surface gravity: g = GM/r²
Quantity<Acceleration>	CelestialBody.getSurfaceGravitySafe()
Quantity<Pressure>	Planet.getSurfacePressure()
Quantity<Temperature>	Planet.getSurfaceTemperature()
Quantity<Temperature>	Star.getTemperature()

Methods in org.episteme.natural.physics.astronomy with parameters of type Quantity

Modifier and Type	Method	Description
void	RingSystem.setInnerRadius(Quantity<Length> innerRadius)
void	Star.setLuminosity(Quantity<Power> luminosity)
void	RingSystem.setOuterRadius(Quantity<Length> outerRadius)
void	CelestialBody.setRadius(Quantity<Length> radius)
void	CelestialBody.setRotationPeriod(Quantity<Time> rotationPeriod)
void	Planet.setSurfacePressure(Quantity<Pressure> surfacePressure)
void	Planet.setSurfaceTemperature(Quantity<Temperature> surfaceTemperature)
void	Star.setTemperature(Quantity<Temperature> temperature)

Constructors in org.episteme.natural.physics.astronomy with parameters of type Quantity

Modifier	Constructor	Description
	CelestialBody(String name, Quantity<Mass> mass, Quantity<Length> radius, Vector<Real> position, Vector<Real> velocity)
	Planet(String name, Quantity<Mass> mass, Quantity<Length> radius, Vector<Real> position, Vector<Real> velocity)
	RingSystem(String name, Quantity<Mass> mass, Quantity<Length> radius, Vector<Real> position, Vector<Real> velocity)
	Star(String name, String catalogId, Quantity<Mass> mass, Quantity<Length> radius, Vector<Real> position, Vector<Real> velocity)
	Star(String name, Quantity<Mass> mass, Quantity<Length> radius, Vector<Real> position, Vector<Real> velocity)

Uses of Quantity in org.episteme.natural.physics.astronomy.mechanics

Fields in org.episteme.natural.physics.astronomy.mechanics declared as Quantity

Modifier and Type	Field	Description
Quantity<Length>	EphemerisCalculator.Planet.a
Quantity<Length>	EphemerisCalculator.Planet.Moon.a
Quantity<Angle>	EphemerisCalculator.Planet.i
Quantity<Angle>	EphemerisCalculator.Planet.Moon.i
Quantity<Angle>	EphemerisCalculator.Planet.L0
Quantity<Frequency>	EphemerisCalculator.Planet.Moon.n
Quantity<Frequency>	EphemerisCalculator.Planet.n
Quantity<Angle>	EphemerisCalculator.Planet.omega
Quantity<Angle>	EphemerisCalculator.Planet.Omega

Methods in org.episteme.natural.physics.astronomy.mechanics that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	OrbitalMechanics.altitudeFromPeriod(Real periodSeconds)	Calculates orbital altitude from period (for Earth).
static Quantity<Velocity>	OrbitalMechanics.circularVelocity(Real radius, Real mu)	Circular orbit velocity. v = √(μ/r)
static Quantity<Velocity>	OrbitalMechanics.escapeVelocity(Real radius, Real mu)	Escape velocity from distance r. v_esc = √(2μ/r)
static Quantity<Length>	OrbitalMechanics.geostationaryAltitude()	Geostationary orbit altitude (period = 24 hours).
Quantity<Angle>	KeplerParams.getArgumentPeriapsis()
Quantity<Angle>	KeplerParams.getInclination()
Quantity<Angle>	KeplerParams.getLongitudeAscendingNode()
Quantity<Length>	KeplerParams.getSemiMajorAxis()
Quantity<Velocity>	OrbitalState.getVx()
Quantity<Velocity>	OrbitalState.getVy()
Quantity<Velocity>	OrbitalState.getVz()
Quantity<Length>	OrbitalState.getX()
Quantity<Length>	OrbitalState.getY()
Quantity<Length>	OrbitalState.getZ()
static Quantity<Length>	OrbitalMechanics.hillSphereRadius(Real semiMajorAxis, Real smallerMass, Real largerMass)	Hill sphere radius.
static Quantity<Velocity>	OrbitalMechanics.hohmannDeltaV(Real r1, Real r2, Real mu)	Hohmann transfer delta-v (from circular to circular).
static Quantity<Time>	OrbitalMechanics.hohmannTransferTime(Real r1, Real r2, Real mu)	Hohmann transfer time (half the period of transfer orbit).
static Quantity<Time>	OrbitalMechanics.orbitalPeriod(Real semiMajorAxis, Real mu)	Kepler's Third Law: Orbital period from semi-major axis.
static Quantity<Time>	OrbitalMechanics.orbitalPeriodEarth(Real semiMajorAxis)	Orbital period for Earth-orbiting satellite.
static Quantity<Velocity>	OrbitalMechanics.orbitalVelocity(Real r, Real semiMajorAxis, Real mu)	Vis-viva equation: Orbital velocity at distance r. v = √[μ(2/r - 1/a)]
static Quantity<?>	OrbitalMechanics.specificOrbitalEnergy(Real semiMajorAxis, Real mu)	Specific orbital energy.
static Quantity<Time>	OrbitalMechanics.synodicPeriod(Real period1, Real period2)	Synodic period between two orbiting bodies. 1/T_syn = |1/T1 - 1/T2|

Methods in org.episteme.natural.physics.astronomy.mechanics with parameters of type Quantity

Modifier and Type	Method	Description
static Real[]	LambertSolver.solve(Real[] r1, Real[] r2, Quantity<Time> dt, double mu, boolean retrograde)	Solves Lambert's problem using a robust iterative method.
static OrbitalState	OrbitSolver.solve(KeplerParams params, Quantity<Angle> trueAnomaly, Quantity<Mass> centralMass)	Calculates position and velocity from Keplerian parameters and True Anomaly.

Constructors in org.episteme.natural.physics.astronomy.mechanics with parameters of type Quantity

Modifier	Constructor	Description
	KeplerParams(Quantity<Length> semiMajorAxis, double eccentricity, Quantity<Angle> inclination, Quantity<Angle> longitudeAscendingNode, Quantity<Angle> argumentPeriapsis)
	OrbitalState(Quantity<Length> x, Quantity<Length> y, Quantity<Length> z, Quantity<Velocity> vx, Quantity<Velocity> vy, Quantity<Velocity> vz)

Uses of Quantity in org.episteme.natural.physics.astronomy.spectroscopy

Methods in org.episteme.natural.physics.astronomy.spectroscopy that return Quantity

Modifier and Type	Method	Description
Quantity<Temperature>	SpectralClass.getMaxTemp()
Quantity<Temperature>	SpectralClass.getMinTemp()

Methods in org.episteme.natural.physics.astronomy.spectroscopy with parameters of type Quantity

Modifier and Type	Method	Description
static SpectralClass	SpectralClass.fromTemperature(Quantity<Temperature> temperature)
void	SpectralClass.setMaxTemp(Quantity<Temperature> maxTemp)
void	SpectralClass.setMinTemp(Quantity<Temperature> minTemp)

Uses of Quantity in org.episteme.natural.physics.classical.matter

Fields in org.episteme.natural.physics.classical.matter with type parameters of type Quantity

Modifier and Type	Field	Description
static final PropertyKey<Quantity<MassDensity>>	Material.DENSITY
static final PropertyKey<Quantity<ElectricConductivity>>	Material.ELECTRICAL_CONDUCTIVITY
static final PropertyKey<Quantity<?>>	Material.SPECIFIC_HEAT
static final PropertyKey<Quantity<ThermalConductivity>>	Material.THERMAL_CONDUCTIVITY
static final PropertyKey<Quantity<Pressure>>	Material.YOUNGS_MODULUS

Methods in org.episteme.natural.physics.classical.matter that return Quantity

Modifier and Type	Method	Description
Quantity<MassDensity>	Material.getDensity()
Quantity<ElectricConductivity>	Material.getElectricalConductivity()
Quantity<?>	Material.getSpecificHeat()
Quantity<ThermalConductivity>	Material.getThermalConductivity()
Quantity<Pressure>	Material.getYoungsModulus()

Uses of Quantity in org.episteme.natural.physics.classical.mechanics

Methods in org.episteme.natural.physics.classical.mechanics that return Quantity

Modifier and Type	Method	Description
static Quantity<Force>	NewtonianMechanics.force(Quantity<Mass> mass, Quantity<Acceleration> acceleration)	Newton's second law: F = ma
Quantity<Mass>	Particle.getMass()
Quantity<Length>	ProjectileMotion.getMaxHeight()	Calculates maximum height reached.
Quantity<Length>	ProjectileMotion.getRange()	Calculates horizontal range (assuming flat ground at launch height).
Quantity<Time>	ProjectileMotion.getTimeOfFlight()	Calculates time of flight until ground.
static Quantity<Energy>	NewtonianMechanics.gravitationalPotentialEnergy(Quantity<Mass> mass, Quantity<Acceleration> g, Quantity<Length> height)	Gravitational potential energy: PE = mgh
static Quantity<Energy>	Kinematics.kineticEnergy(Quantity<Mass> mass, Vector<Real> velocity)
static Quantity<Energy>	Kinematics.kineticEnergy(Quantity<Mass> mass, Quantity<Velocity> velocity)
static Quantity<Energy>	NewtonianMechanics.kineticEnergy(Quantity<Mass> mass, Quantity<Velocity> velocity)	Kinetic energy: KE = (1/2)mv²
Quantity<Energy>	Particle.kineticEnergy()	Calculates kinetic energy.
static Quantity<?>	NewtonianMechanics.momentum(Quantity<Mass> mass, Quantity<Velocity> velocity)	Momentum: p = mv
static Quantity<Length>	Kinematics.position(Quantity<Length> initialPos, Quantity<Velocity> initialVel, Quantity<Acceleration> accel, Quantity<Time> time)
static Quantity<Length>	Kinematics.projectileRange(Quantity<Velocity> initialSpeed, Quantity<Angle> launchAngle, Quantity<Acceleration> g)
static Quantity<Velocity>	Kinematics.velocity(Quantity<Velocity> initialVel, Quantity<Acceleration> accel, Quantity<Time> time)

Methods in org.episteme.natural.physics.classical.mechanics with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Force>	NewtonianMechanics.force(Quantity<Mass> mass, Quantity<Acceleration> acceleration)	Newton's second law: F = ma
static Quantity<Energy>	NewtonianMechanics.gravitationalPotentialEnergy(Quantity<Mass> mass, Quantity<Acceleration> g, Quantity<Length> height)	Gravitational potential energy: PE = mgh
static Quantity<Energy>	Kinematics.kineticEnergy(Quantity<Mass> mass, Vector<Real> velocity)
static Quantity<Energy>	Kinematics.kineticEnergy(Quantity<Mass> mass, Quantity<Velocity> velocity)
static Quantity<Energy>	NewtonianMechanics.kineticEnergy(Quantity<Mass> mass, Quantity<Velocity> velocity)	Kinetic energy: KE = (1/2)mv²
static Quantity<?>	NewtonianMechanics.momentum(Quantity<Mass> mass, Quantity<Velocity> velocity)	Momentum: p = mv
static Quantity<Length>	Kinematics.position(Quantity<Length> initialPos, Quantity<Velocity> initialVel, Quantity<Acceleration> accel, Quantity<Time> time)
static Quantity<Length>	Kinematics.projectileRange(Quantity<Velocity> initialSpeed, Quantity<Angle> launchAngle, Quantity<Acceleration> g)
static Quantity<Velocity>	Kinematics.velocity(Quantity<Velocity> initialVel, Quantity<Acceleration> accel, Quantity<Time> time)

Constructors in org.episteme.natural.physics.classical.mechanics with parameters of type Quantity

Modifier	Constructor	Description
	Particle(Vector<Real> position, Vector<Real> velocity, Quantity<Mass> mass)

Uses of Quantity in org.episteme.natural.physics.classical.mechanics.collision

Methods in org.episteme.natural.physics.classical.mechanics.collision with parameters of type Quantity

Modifier and Type	Method	Description
void	PhysicsWorldBridge.stepSimulation(Quantity<Time> timeStep)	Steps the simulation forward in time.
void	PhysicsWorldBridge.stepSimulation(Quantity<Time> timeStep, int maxSubSteps, Quantity<Time> fixedTimeStep)	Steps the simulation with fixed time steps and max substeps.

Uses of Quantity in org.episteme.natural.physics.classical.thermodynamics

Methods in org.episteme.natural.physics.classical.thermodynamics that return Quantity

Modifier and Type	Method	Description
Quantity<Energy>	IdealGas.getEnthalpy()
Quantity<Energy>	ThermodynamicState.getEnthalpy()	Enthalpy ($H = U + PV$).
Quantity<Entropy>	IdealGas.getEntropy()
Quantity<Entropy>	ThermodynamicState.getEntropy()	Returns the entropy of this state.
Quantity<Energy>	IdealGas.getInternalEnergy()
Quantity<Energy>	ThermodynamicState.getInternalEnergy()	Internal energy ($U$).
Quantity<Pressure>	IdealGas.getPressure()
Quantity<Pressure>	ThermodynamicState.getPressure()	Returns the pressure of this state.
Quantity<Temperature>	IdealGas.getTemperature()
Quantity<Temperature>	ThermodynamicState.getTemperature()	Returns the temperature of this state.
Quantity<Volume>	IdealGas.getVolume()
Quantity<Volume>	ThermodynamicState.getVolume()	Returns the volume of this state.
static Quantity<Pressure>	Thermodynamics.idealGasPressure(Quantity<AmountOfSubstance> n, Quantity<Temperature> T, Quantity<Volume> V)	Ideal gas law: PV = nRT
static Quantity<Energy>	Thermodynamics.internalEnergyChange(Quantity<AmountOfSubstance> n, Real Cv, Quantity<Temperature> deltaT)	Internal energy change: ΔU = nCvΔT

Methods in org.episteme.natural.physics.classical.thermodynamics with parameters of type Quantity

Modifier and Type	Method	Description
static Real	Thermodynamics.carnotEfficiency(Quantity<Temperature> Tcold, Quantity<Temperature> Thot)	Carnot efficiency: η = 1 - Tc/Th
static Real	Thermodynamics.entropyChange(Quantity<AmountOfSubstance> n, Real Cv, Quantity<Temperature> T1, Quantity<Temperature> T2, Quantity<Volume> V1, Quantity<Volume> V2)	Entropy change for ideal gas
static Quantity<Pressure>	Thermodynamics.idealGasPressure(Quantity<AmountOfSubstance> n, Quantity<Temperature> T, Quantity<Volume> V)	Ideal gas law: PV = nRT
static Quantity<Energy>	Thermodynamics.internalEnergyChange(Quantity<AmountOfSubstance> n, Real Cv, Quantity<Temperature> deltaT)	Internal energy change: ΔU = nCvΔT
void	IdealGas.setTemperatureIsobaric(Quantity<Temperature> newT)	Isobaric expansion/compression (Pressure constant).
void	IdealGas.setTemperatureIsochoric(Quantity<Temperature> newT)	Isochoric heating/cooling (Volume constant).

Constructors in org.episteme.natural.physics.classical.thermodynamics with parameters of type Quantity

Modifier	Constructor	Description
	IdealGas(Real moles, Quantity<Temperature> temperature, Quantity<Volume> volume)	Creates an ideal gas with specified moles, temperature, and volume.

Uses of Quantity in org.episteme.natural.physics.classical.waves.electromagnetism.field

Methods in org.episteme.natural.physics.classical.waves.electromagnetism.field that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	Electromagnetism.capacitorEnergy(Quantity<ElectricCapacitance> capacitance, Quantity<ElectricPotential> voltage)	Capacitor energy: E = (1/2)CV²
static Quantity<Force>	Electromagnetism.coulombForce(Quantity<ElectricCharge> q1, Quantity<ElectricCharge> q2, Quantity<Length> r)	Coulomb's law: F = k * |q1*q2| / r² where k = 1/(4πε₀)
static Quantity<?>	Electromagnetism.electricField(Quantity<Force> force, Quantity<ElectricCharge> charge)	Electric field: E = F/q
static Quantity<Force>	Electromagnetism.lorentzForce(Quantity<ElectricCharge> charge, Quantity<Velocity> velocity, Quantity<MagneticFluxDensity> B)	Magnetic force on moving charge: F = qvB (simplified, perpendicular case)
static Quantity<ElectricPotential>	Electromagnetism.voltage(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance)	Ohm's law: V = IR

Methods in org.episteme.natural.physics.classical.waves.electromagnetism.field with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	Electromagnetism.capacitorEnergy(Quantity<ElectricCapacitance> capacitance, Quantity<ElectricPotential> voltage)	Capacitor energy: E = (1/2)CV²
static Quantity<Force>	Electromagnetism.coulombForce(Quantity<ElectricCharge> q1, Quantity<ElectricCharge> q2, Quantity<Length> r)	Coulomb's law: F = k * |q1*q2| / r² where k = 1/(4πε₀)
static Quantity<?>	Electromagnetism.electricField(Quantity<Force> force, Quantity<ElectricCharge> charge)	Electric field: E = F/q
static Quantity<Force>	Electromagnetism.lorentzForce(Quantity<ElectricCharge> charge, Quantity<Velocity> velocity, Quantity<MagneticFluxDensity> B)	Magnetic force on moving charge: F = qvB (simplified, perpendicular case)
static Quantity<ElectricPotential>	Electromagnetism.voltage(Quantity<ElectricCurrent> current, Quantity<ElectricResistance> resistance)	Ohm's law: V = IR

Uses of Quantity in org.episteme.natural.physics.classical.waves.optics

Methods in org.episteme.natural.physics.classical.waves.optics that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	Optics.photonEnergy(Quantity<Length> wavelength)	Photon energy: E = hc/λ

Methods in org.episteme.natural.physics.classical.waves.optics with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	Optics.photonEnergy(Quantity<Length> wavelength)	Photon energy: E = hc/λ

Uses of Quantity in org.episteme.natural.physics.loaders

Methods in org.episteme.natural.physics.loaders that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	ExoplanetInfo.getDistance()	Returns distance from Earth as type-safe Quantity in meters.
Quantity<Temperature>	ExoplanetInfo.getEquilibriumTemperature()	Returns equilibrium temperature as type-safe Quantity in Kelvin.
Quantity<Mass>	ExoplanetInfo.getMass()	Returns mass as type-safe Quantity in kg.
Quantity<Time>	ExoplanetInfo.getOrbitalPeriod()	Returns orbital period as type-safe Quantity in seconds.
Quantity<Length>	ExoplanetInfo.getRadius()	Returns radius as type-safe Quantity in meters.

Uses of Quantity in org.episteme.natural.physics.loaders.thermoml

Methods in org.episteme.natural.physics.loaders.thermoml that return Quantity

Modifier and Type	Method	Description
Quantity<?>	ThermoMLPropertyValue.getMagnitude()
Quantity<?>	ThermoMLPropertyValue.getPressure()
Quantity<?>	ThermoMLPropertyValue.getTemperature()
Quantity<?>	ThermoMLPropertyValue.getUncertainty()

Methods in org.episteme.natural.physics.loaders.thermoml with parameters of type Quantity

Modifier and Type	Method	Description
void	ThermoMLPropertyValue.setMagnitude(Quantity<?> magnitude)
void	ThermoMLPropertyValue.setPressure(Quantity<?> pressure)
void	ThermoMLPropertyValue.setTemperature(Quantity<?> temperature)
void	ThermoMLPropertyValue.setUncertainty(Quantity<?> uncertainty)

Uses of Quantity in org.episteme.natural.physics.nuclear

Methods in org.episteme.natural.physics.nuclear that return Quantity

Modifier and Type	Method	Description
Quantity<Energy>	Nucleus.getBindingEnergyQuantity()	Binding energy as Energy quantity.
Quantity<Time>	RadioactiveDecay.getHalfLifeQuantity()
Quantity<Length>	Nucleus.getNuclearRadius()	Approximate nuclear radius: R = r₀ A^(1/3) where r₀ ≈1.2 fm.
Quantity<Time>	RadioactiveDecay.timeForFraction(Real fraction)	Time for specific fraction to remain.

Uses of Quantity in org.episteme.natural.physics.quantum

Methods in org.episteme.natural.physics.quantum that return Quantity

Modifier and Type	Method	Description
static Quantity<Length>	QuantumMechanics.deBroglieWavelength(Quantity<Mass> m, Quantity<Velocity> v)	De Broglie wavelength: λ = h / (m * v)
static Quantity<Energy>	QuantumMechanics.photonEnergy(Quantity<Frequency> f)	Photon energy: E = h * f

Methods in org.episteme.natural.physics.quantum with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Length>	QuantumMechanics.deBroglieWavelength(Quantity<Mass> m, Quantity<Velocity> v)	De Broglie wavelength: λ = h / (m * v)
static Quantity<Energy>	QuantumMechanics.photonEnergy(Quantity<Frequency> f)	Photon energy: E = h * f

Uses of Quantity in org.episteme.natural.physics.relativity

Methods in org.episteme.natural.physics.relativity that return Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	RelativisticMechanics.kineticEnergy(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Kinetic Energy.
static Quantity<Mass>	RelativisticMechanics.relativisticMass(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Relativistic Mass. m = gamma * rest_mass
static Quantity<Energy>	RelativisticMechanics.restEnergy(Quantity<Mass> restMass)	Rest energy: E₀ = m₀c²
static Quantity<Energy>	RelativisticMechanics.totalEnergy(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Total Relativistic Energy.

Methods in org.episteme.natural.physics.relativity with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Energy>	RelativisticMechanics.kineticEnergy(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Kinetic Energy.
static Real	RelativisticMechanics.lorentzFactor(Quantity<Velocity> v)	Calculates the Lorentz factor (gamma) given a velocity v. gamma = 1 / sqrt(1 - v²/c²)
static Quantity<Mass>	RelativisticMechanics.relativisticMass(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Relativistic Mass. m = gamma * rest_mass
static Real	RelativisticMechanics.relativisticMomentum(Quantity<Mass> restMass, Quantity<Velocity> v)	Relativistic momentum: p = gamma * mâ‚€ * v
static Quantity<Energy>	RelativisticMechanics.restEnergy(Quantity<Mass> restMass)	Rest energy: E₀ = m₀c²
static Quantity<Energy>	RelativisticMechanics.totalEnergy(Quantity<Mass> restMass, Quantity<Velocity> v)	Calculates Total Relativistic Energy.

Uses of Quantity in org.episteme.social.architecture

Methods in org.episteme.social.architecture that return Quantity

Modifier and Type	Method	Description
static Quantity<Area>	Acoustics.calculateAbsorption(Quantity<Area> area, double absorptionCoefficient)	Calculates the effective absorption of a specific architectural surface.
static Quantity<Force>	StructuralPrimitives.calculateArchThrust(Quantity<?> uniformLoad, Quantity<Length> span, Quantity<Length> height)	Calculates the horizontal thrust (H) of a simple parabolic arch supporting a uniform load.
static Quantity<Time>	Acoustics.calculateSabineRT60(Quantity<Volume> volume, Quantity<Area> totalAbsorption)	Calculates the reverberation time (RT60) using Sabine's formula.
static Quantity<?>	StructuralPrimitives.calculateStress(Quantity<Force> load, Quantity<Area> area)	Calculates the uniform mechanical stress (pressure) on a surface.

Methods in org.episteme.social.architecture that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	ArchitecturalModel.getQuantities()

Methods in org.episteme.social.architecture with parameters of type Quantity

Modifier and Type	Method	Description
static Real	ThermalSimulator.annualHeatingDemand(Real uValue, Quantity<Area> area, double heatingDegreeDays)	Estimates the annual heating energy demand using the simplified degree-day method.
static Quantity<Area>	Acoustics.calculateAbsorption(Quantity<Area> area, double absorptionCoefficient)	Calculates the effective absorption of a specific architectural surface.
static Quantity<Force>	StructuralPrimitives.calculateArchThrust(Quantity<?> uniformLoad, Quantity<Length> span, Quantity<Length> height)	Calculates the horizontal thrust (H) of a simple parabolic arch supporting a uniform load.
static Real	DaylightFactor.calculateDaylightFactor(Quantity<Area> windowArea, Quantity<Area> roomSurfaceArea, double glassTransmittance, double skyAngleFactor, double maintenanceFactor, double averageReflectance)	Calculates the Daylight Factor (DF) using the BRE formula.
static Quantity<Time>	Acoustics.calculateSabineRT60(Quantity<Volume> volume, Quantity<Area> totalAbsorption)	Calculates the reverberation time (RT60) using Sabine's formula.
static Quantity<?>	StructuralPrimitives.calculateStress(Quantity<Force> load, Quantity<Area> area)	Calculates the uniform mechanical stress (pressure) on a surface.
static Optional<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.checkCorridorWidth(Quantity<Length> width, String corridorId)	Checks if a corridor's width provides sufficient clearance for wheelchair passage.
static Optional<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.checkDoorWidth(Quantity<Length> width, String doorId)	Checks if a door's clear opening width meets the minimum requirement.
static Optional<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.checkRampSlope(Quantity<Length> rise, Quantity<Length> run, String rampId)	Checks if a ramp's slope exceeds the maximum allowed grade.
static Optional<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.checkReachHeight(Quantity<Length> height, String controlId)	Checks if operable parts (switches, handles) are within the required vertical reach range (e.g., 38cm to 122cm).
static Optional<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.checkTurningSpace(Quantity<Length> diameter, String spaceId)	Checks if a defined space provides enough room for a 180-degree wheelchair turn.
static Real	WindLoadCalculator.meanWindVelocity(Real basicVelocity, Quantity<Length> height, WindLoadCalculator.TerrainCategory terrain, double orographyFactor)	Calculates the mean wind velocity (Vm) at a specific height (z) above ground.
static Real	WindLoadCalculator.peakVelocityPressure(Real meanVelocity, Quantity<Length> height, WindLoadCalculator.TerrainCategory terrain, double airDensity)	Calculates the peak velocity pressure (Qp) at a given height, accounting for mean velocity and turbulence.
static Real	WindLoadCalculator.referenceHeight(Quantity<Length> buildingHeight, Quantity<Length> buildingWidth, boolean windward)	Determines the legislative reference height for wind pressure calculations based on building proportions.
static Real	LightingSimulator.requiredIntensity(Real targetLux, Quantity<Length> distance)	Calculates the required luminous intensity (in candelas) to achieve a target illuminance at a specific distance.
static int	LightingSimulator.requiredLuminaires(Real targetLux, Quantity<Area> area, double lumensPerLamp, int lampsPerFixture, double utilizationFactor, double maintenanceFactor)	Estimates the number of luminaires needed to achieve a target average illuminance over an area using the Lumen Method.
static Real	ThermalSimulator.thermalMass(ThermalSimulator.WallLayer layer, Quantity<Area> area)	Calculates the thermal mass (heat storage capacity) of a building element.

Method parameters in org.episteme.social.architecture with type arguments of type Quantity

Modifier and Type	Method	Description
static List<AccessibilityChecker.AccessibilityIssue>	AccessibilityChecker.fullAudit(Map<String, Quantity<Length>> doorWidths, Map<String, Quantity<Length>> corridorWidths, Map<String,double[]> ramps, Map<String, Quantity<Length>> turningSpaces)	Conducts a full accessibility audit on multiple architectural elements.

Uses of Quantity in org.episteme.social.architecture.traffic

Fields in org.episteme.social.architecture.traffic declared as Quantity

Modifier and Type	Field	Description
Quantity<Length>	TrafficSimulator.Car.position
Quantity<Velocity>	TrafficSimulator.Car.velocity

Methods in org.episteme.social.architecture.traffic with parameters of type Quantity

Modifier and Type	Method	Description
void	TrafficSimulator.update(Quantity<Time> dt)	Updates the simulation by a fixed time step.

Constructors in org.episteme.social.architecture.traffic with parameters of type Quantity

Modifier	Constructor	Description
	Car(String id, Quantity<Length> pos, Quantity<Velocity> vel, int lane)	Initializes a new vehicle.
	TrafficSimulator(Quantity<Length> trackLength, int numLanes)	Initializes a circular track simulator.

Uses of Quantity in org.episteme.social.architecture.urbanism

Methods in org.episteme.social.architecture.urbanism that return Quantity

Modifier and Type	Method	Description
Quantity<?>	UrbanHeatIslandModel.UrbanZone.anthropogenicHeatFlux()	Returns the value of the anthropogenicHeatFlux record component.
Quantity<Temperature>	UrbanHeatIslandModel.calculateUHIIntensity(UrbanHeatIslandModel.UrbanZone zone)	Calculates the estimated Urban Heat Island (UHI) intensity as a temperature anomaly relative to the surrounding rural environment.
static Quantity<?>	UrbanHeatIslandModel.estimateSkyViewFactor(Quantity<Length> buildingHeight, Quantity<Length> streetWidth)

Methods in org.episteme.social.architecture.urbanism that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	UrbanHeatIslandModel.getQuantities()

Methods in org.episteme.social.architecture.urbanism with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<?>	UrbanHeatIslandModel.estimateSkyViewFactor(Quantity<Length> buildingHeight, Quantity<Length> streetWidth)
void	UrbanHeatIslandModel.setAmbientSolarIrradiance(Quantity<?> irradiance)

Constructors in org.episteme.social.architecture.urbanism with parameters of type Quantity

Modifier	Constructor	Description
	UrbanZone(String name, Map<UrbanHeatIslandModel.LandCover, Double> surfaceComposition, double skyViewFactor, Quantity<?> anthropogenicHeatFlux)	Creates an instance of a UrbanZone record class.

Uses of Quantity in org.episteme.social.arts

Constructors in org.episteme.social.arts with parameters of type Quantity

Modifier	Constructor	Description
	Artwork(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value, ArtForm category)	Full constructor for Artwork as a resource.

Uses of Quantity in org.episteme.social.arts.music

Methods in org.episteme.social.arts.music that return Quantity

Modifier and Type	Method	Description
static Quantity<Frequency>	HarmonyEngine.calculateFrequency(int semitonesFromA4)
Quantity<Frequency>	Note.getFrequency()	Returns frequency as a Real-based Quantity. f = 440 * 2^((n - 69 + cents/100) / 12)

Uses of Quantity in org.episteme.social.device.sim

Methods in org.episteme.social.device.sim that return Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	SimulatedVoterScanner.readValue()

Uses of Quantity in org.episteme.social.economics

Methods in org.episteme.social.economics that return Quantity

Modifier and Type	Method	Description
Quantity<?>	PotentialResource.getAmount()
Quantity<Time>	PotentialResource.getDecayTime()
Quantity<?>	Economy.getNumberOfUnits(Resource resource)	Aggregates the total quantity of a specific resource across all organizations in the current economy.
Quantity<Time>	Worker.getWorkedHours()	Returns the number of hours worked per year.

Methods in org.episteme.social.economics that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	Economy.getQuantities()
Map<String, Quantity<?>>	PortfolioData.getQuantities()

Methods in org.episteme.social.economics with parameters of type Quantity

Modifier and Type	Method	Description
static Real	InequalityMetrics.calculateGini(Quantity<?>[] incomes)	Calculates the Gini coefficient for a population income set (Quantities).
Resource	EarthEcosource.generateResource(String name, String description, Quantity<?> amount)	Generates a new resource from the Earth.
static List<Real[]>	InequalityMetrics.getLorenzCurve(Quantity<?>[] incomes)	Generates a list of coordinates (x, y) representing the Lorenz curve.
void	PotentialResource.setDecayTime(Quantity<Time> decayTime)
void	PotentialResource.setQuantity(Quantity<?> amount)
void	Worker.setWorkedHours(Quantity<Time> workedHours)	Sets the number of hours worked per year.

Method parameters in org.episteme.social.economics with type arguments of type Quantity

Modifier and Type	Method	Description
static Real	EconomicMetrics.giniCoefficient(List<? extends Quantity<?>> incomes)	Overload for Quantity for convenience.

Constructors in org.episteme.social.economics with parameters of type Quantity

Modifier	Constructor	Description
	HumanResource(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Money value)
	HumanResource(String name, String description, Quantity<?> amount, Community producer, Money value)	Standard human resource constructor.
	MaterialResource(String name, String description, Quantity<?> amount, Community producer, Identification id, Money value)	Initializes a tagged material resource.
	MaterialResource(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification id, Money value)
	PotentialResource(String name, String description, Quantity<?> amount)	Creates a new PotentialResource object.
	PotentialResource(String name, String description, Quantity<?> amount, ResourceKind kind)	Creates a new PotentialResource with a specific kind.
	PotentialResource(Identification id, String name, String description, Quantity<?> amount)	Creates a new PotentialResource with a specific identification.
	Resource(String name, String description, Quantity<?> amount, Community community)	Creates a new Resource object.
	Resource(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Creates a new Resource object.
	Resource(Identification id, String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)

Uses of Quantity in org.episteme.social.economics.models

Methods in org.episteme.social.economics.models that return Quantity

Modifier and Type	Method	Description
Quantity<?>	SolowGrowthModel.GrowthState.capital()	Returns the value of the capital record component.
Quantity<?>	SolowGrowthModel.GrowthState.consumption()	Returns the value of the consumption record component.
Quantity<?>	SolowGrowthModel.GrowthState.investment()	Returns the value of the investment record component.
Quantity<?>	SolowGrowthModel.GrowthState.labor()	Returns the value of the labor record component.
Quantity<?>	SolowGrowthModel.GrowthState.output()	Returns the value of the output record component.

Methods in org.episteme.social.economics.models that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	MacroModel.getQuantities()
Map<String, Quantity<?>>	SolowGrowthModel.getQuantities()

Constructors in org.episteme.social.economics.models with parameters of type Quantity

Modifier	Constructor	Description
	GrowthState(int year, Quantity<?> capital, Quantity<?> labor, Quantity<?> output, Quantity<?> consumption, Quantity<?> investment)	Creates an instance of a GrowthState record class.

Uses of Quantity in org.episteme.social.economics.money

Classes in org.episteme.social.economics.money that implement Quantity

Modifier and Type	Class	Description
class	Money	Represents a quantity of money with currency.

Methods in org.episteme.social.economics.money with type parameters of type Quantity

Modifier and Type	Method	Description
<R extends Quantity<R>> Quantity<?>	Money.divide(Quantity<R> other)
<R extends Quantity<R>> Quantity<?>	Money.multiply(Quantity<R> other)

Methods in org.episteme.social.economics.money that return Quantity

Modifier and Type	Method	Description
<R extends Quantity<R>> Quantity<?>	Money.divide(Quantity<R> other)
<R extends Quantity<R>> Quantity<?>	Money.multiply(Quantity<R> other)
Quantity<?>	Money.pow(int exponent)
Quantity<?>	Money.sqrt()

Methods in org.episteme.social.economics.money with parameters of type Quantity

Modifier and Type	Method	Description
Money	Money.add(Quantity<Money> other)
int	Money.compareTo(Quantity<Money> other)
<R extends Quantity<R>> Quantity<?>	Money.divide(Quantity<R> other)
boolean	Money.equals(Quantity<Money> other, Real tolerance)
<R extends Quantity<R>> Quantity<?>	Money.multiply(Quantity<R> other)
Money	Money.subtract(Quantity<Money> other)

Uses of Quantity in org.episteme.social.economics.resources

Methods in org.episteme.social.economics.resources that return Quantity

Modifier and Type	Method	Description
default Quantity<Energy>	Food.getEnergyContent()	Returns the energy content (calories) of the food.

Constructors in org.episteme.social.economics.resources with parameters of type Quantity

Modifier	Constructor	Description
	Artifact(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new artifact.
	Building(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new building resource.
	Clothes(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes new clothing.
	Creature(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new creature.
	Fossil(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new fossil.
	Gas(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new gaseous resource.
	Installation(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new installation.
	Liquid(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new liquid resource.
	Machine(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new machine.
	Mineral(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Creates a new Mineral object.
	Natural(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new natural resource.
	PhysicalObject(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new physical object.
	Road(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new road.
	Robot(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new robot.
	Solid(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new solid resource.
	Thing(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate)	Initializes a new physical thing.
	Tool(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new tool.
	Vehicle(String name, String description, Quantity<?> amount, Community producer, Place productionPlace, TimeCoordinate productionDate, Identification identification, Money value)	Initializes a new vehicle.

Uses of Quantity in org.episteme.social.geography

Fields in org.episteme.social.geography declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Length>	GeographyConstants.EARTH_EQUATORIAL_RADIUS	Equatorial radius (semi-major axis) of the Earth (WGS84) in meters (m).
static final Quantity<Mass>	GeographyConstants.EARTH_MASS	Approximate mass of the Earth in kilograms (kg).
static final Quantity<Length>	GeographyConstants.EARTH_MEAN_RADIUS	Nominal mean radius of the Earth as defined by the IUGG in meters (m).
static final Quantity<Length>	GeographyConstants.EARTH_POLAR_RADIUS	Polar radius (semi-minor axis) of the Earth (WGS84) in meters (m).
static final Quantity<Acceleration>	GeographyConstants.STANDARD_GRAVITY	Average acceleration due to gravity on the Earth's surface (standard gravity) in meters per second squared (m/s²).

Methods in org.episteme.social.geography that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	ClimateZone.annualRainfall()	Returns the value of the annualRainfall record component.
Quantity<Area>	LandUsePlanner.LandZone.area()	Returns the value of the area record component.
Quantity<Temperature>	ClimateZone.averageTemp()	Returns the value of the averageTemp record component.
static Quantity<Length>	SpatialInteraction.calculateBreakingPoint(Quantity<Length> distance, double p1, double p2)	Reilly's Law of Retail Gravitation: breaking point between two market areas.
static Quantity<Length>	CentralPlaceTheory.calculateRange(Quantity<Area> thresholdArea)	Calculates the "Range" (service radius) of a good based on threshold area.
Quantity<Area>	Region.getArea()
Quantity<Money>	Region.getGDP()
Quantity<Length>	GeoPath.SimpleGeoPath.getLength()
Quantity<Length>	GeoPath.getTotalLength()	Calculates the total length of all segments.

Methods in org.episteme.social.geography that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	SpatialDataSet.getQuantities()

Methods in org.episteme.social.geography with parameters of type Quantity

Modifier and Type	Method	Description
static double[][]	TerrainAnalyzer.calculateAspect(double[][] dem, Quantity<Length> cellSize)	Calculates aspect (slope direction) grid.
static Quantity<Length>	SpatialInteraction.calculateBreakingPoint(Quantity<Length> distance, double p1, double p2)	Reilly's Law of Retail Gravitation: breaking point between two market areas.
static Real	SpatialInteraction.calculateGravityIntensity(double p1, double p2, Quantity<Length> distance, double beta)	Gravity Model for interactions between two locations.
static Quantity<Length>	CentralPlaceTheory.calculateRange(Quantity<Area> thresholdArea)	Calculates the "Range" (service radius) of a good based on threshold area.
static double[][]	TerrainAnalyzer.calculateSlope(double[][] dem, Quantity<Length> cellSize)	Calculates slope grid from elevation grid using Horn's method.
static Real	FloodRiskModel.estimateRisk(Quantity<Length> elevation, Quantity<Length> rainfallRate, double soilSaturation)	Estimates flood probability (0 to 1).
void	Region.setArea(Quantity<Area> area)
void	Region.setGDP(Quantity<Money> gdp)
static List<LandUsePlanner.LandZone>	LandUsePlanner.suggestDefaultAllocation(Quantity<Area> totalArea)	Suggests a default allocation for a new urban development.

Constructors in org.episteme.social.geography with parameters of type Quantity

Modifier	Constructor	Description
	ClimateZone(ClimateZone.Type type, Quantity<Temperature> averageTemp, Quantity<Length> annualRainfall)	Creates an instance of a ClimateZone record class.
	HeightMap(String name, GeodeticCoordinate topLeft, Quantity<Length> width, Quantity<Length> height)
	LandZone(String zoneType, Quantity<Area> area, double utilityScore)	Creates an instance of a LandZone record class.

Uses of Quantity in org.episteme.social.geography.loaders

Subclasses with type arguments of type Quantity in org.episteme.social.geography.loaders

Modifier and Type	Class	Description
class	ElevationReader	Reader for Altimetry and Bathymetry data (Elevation).

Methods in org.episteme.social.geography.loaders that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	ElevationReader.getElevation(double lat, double lon)	Gets elevation at specified coordinates using the default source.
protected Quantity<Length>	ElevationReader.loadFromSource(String coordinates)

Methods in org.episteme.social.geography.loaders that return types with arguments of type Quantity

Modifier and Type	Method	Description
Class<Quantity<Length>>	ElevationReader.getResourceType()

Uses of Quantity in org.episteme.social.history

Fields in org.episteme.social.history declared as Quantity

Modifier and Type	Field	Description
static final Quantity<Time>	HistoryConstants.EARTH_AGE	Estimated age of the Earth (~4.54 billion years).
static final Quantity<Time>	HistoryConstants.JULIAN_YEAR	Number of seconds in a standard Julian year.
static final Quantity<Time>	HistoryConstants.SOLAR_SYSTEM_AGE	Estimated age of the Solar System (~4.571 billion years).
static final Quantity<Time>	HistoryConstants.UNIVERSE_AGE	Estimated age of the Universe (v2024 estimate: ~13.787 billion years).

Uses of Quantity in org.episteme.social.history.archeology

Methods in org.episteme.social.history.archeology that return Quantity

Modifier and Type	Method	Description
Quantity<Length>	Stratum.getDepth()

Constructors in org.episteme.social.history.archeology with parameters of type Quantity

Modifier	Constructor	Description
	Stratum(String id, String name, String description, Quantity<Length> depth)

Uses of Quantity in org.episteme.social.history.clock

Methods in org.episteme.social.history.clock that return Quantity

Modifier and Type	Method	Description
Quantity<Time>	ChineseTime.getTime()
Quantity<Time>	DecimalTime.getTime()
Quantity<Time>	HexadecimalTime.getTime()
Quantity<Time>	InternetTime.getTime()
Quantity<Time>	ModernTime.getTime()

Uses of Quantity in org.episteme.social.history.time

Methods in org.episteme.social.history.time that return Quantity

Modifier and Type	Method	Description
abstract Quantity<Time>	Time.getTime()	Returns the total elapsed time as a quantity.

Uses of Quantity in org.episteme.social.philosophy.epistemology

Methods in org.episteme.social.philosophy.epistemology that return Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	Knowledge.getCertainty()	Returns the epistemic strength of this knowledge based on evidence reliability.
Quantity<Dimensionless>	Evidence.getReliability()	Returns the reliability of the evidence.

Constructors in org.episteme.social.philosophy.epistemology with parameters of type Quantity

Modifier	Constructor	Description
	EmpiricalEvidence(String source, String description, Quantity<Dimensionless> reliability)	Creates new EmpiricalEvidence.
protected	Evidence(String source, String description, Quantity<Dimensionless> reliability, EvidenceKind kind)	Creates new Evidence.
	RationalEvidence(String source, String description, Quantity<Dimensionless> reliability)	Creates new RationalEvidence.
	TestimonialEvidence(String source, String description, Quantity<Dimensionless> reliability)	Creates new TestimonialEvidence.

Uses of Quantity in org.episteme.social.politics

Methods in org.episteme.social.politics that return Quantity

Modifier and Type	Method	Description
Quantity<Dimensionless>	Country.getHdi()
Quantity<Time>	Country.getLifeExpectancy()
Quantity<Money>	Country.getMilitarySpending()
Quantity<Dimensionless>	Country.getPopulationGrowthRate()
Quantity<Dimensionless>	Country.getStability()

Methods in org.episteme.social.politics with parameters of type Quantity

Modifier and Type	Method	Description
void	Country.setHdi(Quantity<Dimensionless> hdi)
void	Country.setLifeExpectancy(Quantity<Time> life)
void	Country.setMilitarySpending(Quantity<Money> spending)
void	Country.setPopulationGrowthRate(Quantity<Dimensionless> rate)
void	Country.setStability(Quantity<Dimensionless> stability)

Uses of Quantity in org.episteme.social.psychology

Methods in org.episteme.social.psychology that return Quantity

Modifier and Type	Method	Description
static Quantity<Time>	ReactionTimeAnalysis.fittsLaw(Quantity<Time> a, Quantity<Time> b, Quantity<Length> d, Quantity<Length> w)	Models movement time to a target using Fitts's Law.
static Quantity<Time>	ReactionTimeAnalysis.hicksLaw(Quantity<Time> a, Quantity<Time> b, int n)	Models decision time based on the number of choices using Hick's Law.
static Quantity<Time>	ReactionTimeAnalysis.typicalSimpleRT(int age)	Provides a rough estimate of Simple Reaction Time (SRT) based on age.

Methods in org.episteme.social.psychology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	CognitiveLoadModel.getQuantities()

Methods in org.episteme.social.psychology with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Time>	ReactionTimeAnalysis.fittsLaw(Quantity<Time> a, Quantity<Time> b, Quantity<Length> d, Quantity<Length> w)	Models movement time to a target using Fitts's Law.
static Quantity<Time>	ReactionTimeAnalysis.hicksLaw(Quantity<Time> a, Quantity<Time> b, int n)	Models decision time based on the number of choices using Hick's Law.
static Real	ReactionTimeAnalysis.indexOfDifficulty(Quantity<Length> d, Quantity<Length> w)	Calculates the Index of Difficulty (ID) for a pointing task.

Uses of Quantity in org.episteme.social.sociology

Methods in org.episteme.social.sociology that return Quantity

Modifier and Type	Method	Description
static Quantity<?>	CrowdDensitySimulator.exitFlow(Quantity<?> density, Quantity<Length> width)	Calculates the estimated flow rate of people through an exit.
Quantity<?>	Human.getBMI()
Quantity<Area>	Human.getBSA()
Quantity<Length>	Human.getHeight()
Quantity<Mass>	Human.getWeight()

Methods in org.episteme.social.sociology that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	CulturalDiffusionModel.getQuantities()
Map<String, Quantity<?>>	DemographicData.getQuantities()

Methods in org.episteme.social.sociology with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<?>	CrowdDensitySimulator.exitFlow(Quantity<?> density, Quantity<Length> width)	Calculates the estimated flow rate of people through an exit.
void	Human.setHeight(Quantity<Length> height)
void	Human.setWeight(Quantity<Mass> weight)

Uses of Quantity in org.episteme.social.sports

Methods in org.episteme.social.sports that return Quantity

Modifier and Type	Method	Description
static Quantity<Dimensionless>	TrainingPeriodization.calculateATL(List<Quantity<Dimensionless>> dailyTSS)	Calculates Acute Training Load (ATL), representing short-term fatigue.
static Quantity<Dimensionless>	TrainingPeriodization.calculateCTL(List<Quantity<Dimensionless>> dailyTSS, int timeConstant)	Calculates the Chronic Training Load (CTL), representing long-term fitness.
static Quantity<Force>	BallAerodynamics.calculateDragForce(Quantity<MassDensity> rho, Quantity<Length> radius, Quantity<Velocity> velocity, Real cd)	Calculates the Aerodynamic Drag Force.
static Quantity<Energy>	KinematicAnalyzer.calculateEnergyExpenditure(double met, Quantity<Mass> mass, Quantity<Time> duration)	Calculates the estimated energy expenditure using the Metabolic Equivalent of Task (MET) formula.
static Quantity<Force>	BallAerodynamics.calculateMagnusForce(Quantity<MassDensity> rho, Quantity<Length> radius, Quantity<Velocity> velocity, Quantity<Frequency> spin)	Calculates the Magnus Force (lift/swerve) on a spinning ball.
static Quantity<Dimensionless>	TrainingPeriodization.calculateTSB(Quantity<Dimensionless> ctl, Quantity<Dimensionless> atl)	Calculates Training Stress Balance (TSB), representing freshness.
Quantity<Time>	TrainingPeriodization.WorkoutSession.duration()	Returns the value of the duration record component.
Quantity<?>	FatigueRecoveryModel.predictPerformance(Quantity<Time> restTime)	Predicts athletic performance using Banister's Performance Model.
static Quantity<?>[]	BallAerodynamics.projectImpact(Quantity<Length>[] pos, Quantity<Velocity>[] vel, Quantity<Frequency> spin, Quantity<Time> dt)	Projects the impact point of a ball over a short time step `dt`.
Quantity<Time>	TrainingPeriodization.TrainingWeek.volume()	Returns the value of the volume record component.

Methods in org.episteme.social.sports that return types with arguments of type Quantity

Modifier and Type	Method	Description
Map<String, Quantity<?>>	FatigueRecoveryModel.getQuantities()

Methods in org.episteme.social.sports with parameters of type Quantity

Modifier and Type	Method	Description
static Quantity<Force>	BallAerodynamics.calculateDragForce(Quantity<MassDensity> rho, Quantity<Length> radius, Quantity<Velocity> velocity, Real cd)	Calculates the Aerodynamic Drag Force.
static Quantity<Energy>	KinematicAnalyzer.calculateEnergyExpenditure(double met, Quantity<Mass> mass, Quantity<Time> duration)	Calculates the estimated energy expenditure using the Metabolic Equivalent of Task (MET) formula.
static Quantity<Force>	BallAerodynamics.calculateMagnusForce(Quantity<MassDensity> rho, Quantity<Length> radius, Quantity<Velocity> velocity, Quantity<Frequency> spin)	Calculates the Magnus Force (lift/swerve) on a spinning ball.
static Quantity<Dimensionless>	TrainingPeriodization.calculateTSB(Quantity<Dimensionless> ctl, Quantity<Dimensionless> atl)	Calculates Training Stress Balance (TSB), representing freshness.
Quantity<?>	FatigueRecoveryModel.predictPerformance(Quantity<Time> restTime)	Predicts athletic performance using Banister's Performance Model.
static Quantity<?>[]	BallAerodynamics.projectImpact(Quantity<Length>[] pos, Quantity<Velocity>[] vel, Quantity<Frequency> spin, Quantity<Time> dt)	Projects the impact point of a ball over a short time step `dt`.

Method parameters in org.episteme.social.sports with type arguments of type Quantity

Modifier and Type	Method	Description
static Quantity<Dimensionless>	TrainingPeriodization.calculateATL(List<Quantity<Dimensionless>> dailyTSS)	Calculates Acute Training Load (ATL), representing short-term fatigue.
static Quantity<Dimensionless>	TrainingPeriodization.calculateCTL(List<Quantity<Dimensionless>> dailyTSS, int timeConstant)	Calculates the Chronic Training Load (CTL), representing long-term fitness.

Constructors in org.episteme.social.sports with parameters of type Quantity

Modifier	Constructor	Description
	TrainingWeek(int weekNumber, TrainingPeriodization.MesoPhase phase, TrainingPeriodization.TrainingLoad load, Quantity<Time> volume, double intensityAvg, String focus, List<String> keyWorkouts)	Creates an instance of a TrainingWeek record class.
	WorkoutSession(String name, String type, Quantity<Time> duration, double intensity, String description, List<String> exercises)	Creates an instance of a WorkoutSession record class.