A B C D E F G H I K L M N O P Q R S T U V W X Y Z

E

E - Variable in class core.field.EMVec2Field

E - Variable in class simulations.experiments.electrostatics.ChargeInFieldExperiment

electric field

E - Variable in class simulations.objects.ConstantFields

E0 - Variable in class simulations.objects.ElectromagneticPlaneWave

The amplitude of the electric field

EFlux - class simulations.objects.antennaMath.EFlux.

EFlux(double, double, double, double) - Constructor for class simulations.objects.antennaMath.EFlux

EFlux(double, double, double, double) - Method in class simulations.objects.antennaMath.EFlux

EMCollection - class simulations.objects.EMCollection.

A class which contains a collection of objects which extend BaseObject.

EMCollection() - Constructor for class simulations.objects.EMCollection

The constructor for EMCollection.

EMTransform - class simulations.objects.EMTransform.

EMTransform(BaseObject) - Constructor for class simulations.objects.EMTransform

EMVec2Field - class core.field.EMVec2Field.

A planar cross-section of an E&M field, or of the four different velocity fields associated with an E&M field.

EMVec2Field(BaseObject, Vec3, Vec3, Vec3, double, int) - Constructor for class core.field.EMVec2Field

Constructs a new EMVec2Field that calculates the type of field specified by "FieldOrMotionFieldType" produced by the EMSource "source".

EMVec2Field(EMVec2Field, int) - Constructor for class core.field.EMVec2Field

Constructs a new EMVec2Field that represents the EMSource and coordinate system as the given "field", but with a different field type given by "FieldOrMotionFieldType".

EMVec2Field(EMVec2Field, int, double, double, double) - Constructor for class core.field.EMVec2Field

EMVec2Field(EMVec2Field, int, BaseExperiment, Vec) - Constructor for class core.field.EMVec2Field

Econstant - Variable in class simulations.objects.CurrentSheet

EddyCurrents - class simulations.objects.EddyCurrents.

This BaseObject calculates the eddy currents due to a a magnetic monopole moving moving with velocity v

EddyCurrents(double, double, double, double, double, double, double) - Constructor for class simulations.objects.EddyCurrents

constructor for the eddy currents

EddyCurrentsDipoleAnimation - class simulations.animations.faradaysLaw.EddyCurrentsDipoleAnimation.

An animation of eddy currents in a conducting plane below a moving dipole, for various values of the speed of the monopole, following Saslow.

EddyCurrentsDipoleAnimation() - Constructor for class simulations.animations.faradaysLaw.EddyCurrentsDipoleAnimation

EddyCurrentsDipoleExperiment - class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment.

Eddy currents in a conducting plane below a moving dipole, for various values of the speed of the monopole, following Saslow.

EddyCurrentsDipoleExperiment(double, double, double, double, double, double, double) - Constructor for class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment

Constructs an instance of the experiment using the given parameters.

EddyCurrentsDipoleExperiment.Motion - class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment.Motion.

EddyCurrentsDipoleExperiment.Motion() - Constructor for class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment.Motion

EddyCurrentsMonopoleAnimation - class simulations.animations.faradaysLaw.EddyCurrentsMonopoleAnimation.

An animation of eddy currents in a conducting plane below a moving monopole, for various values of the speed of the monopole, following Saslow.

EddyCurrentsMonopoleAnimation() - Constructor for class simulations.animations.faradaysLaw.EddyCurrentsMonopoleAnimation

EddyCurrentsMonopoleExperiment - class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment.

Eddy currents in a conducting plane, using the method of Saslow.

EddyCurrentsMonopoleExperiment(double, double, double, double, double) - Constructor for class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment

Constructs an instance of the experiment using the given parameters.

EddyCurrentsMonopoleExperiment.Motion - class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment.Motion.

Specifies the time derivative of the parmeters which describe the experiment at any time t.

EddyCurrentsMonopoleExperiment.Motion() - Constructor for class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment.Motion

Efactor - Static variable in class simulations.Constants

1/(4 pi epsilon naught) in coulomb's law

Efield - Static variable in class core.field.EMVec2Field

In this case "field" is an electric field

Efield(Vec3, Vec3) - Method in class simulations.objects.BaseObject

Sets 'E' to the value of the electric field at 'x'.

Efield(Vec3) - Method in class simulations.objects.BaseObject

Returns: a new Vec3 with the value of the electric field at 'x'.

Efield(Vec3, Vec3) - Method in class simulations.objects.ChargeRingFinite

Efield(Vec3, Vec3) - Method in class simulations.objects.ColorTestField

the electric field of our color test field

Efield(Vec3, Vec3) - Method in class simulations.objects.ConstantFields

Efield(Vec3, Vec3) - Method in class simulations.objects.CurrentRing

Sets "E" to the value of the electric field at "x".

Efield(Vec3, Vec3) - Method in class simulations.objects.CurrentSheet

Efield(Vec3, Vec3) - Method in class simulations.objects.DataInputObject

The method that returns the E field.

Efield(Vec3, Vec3) - Method in class simulations.objects.EMCollection

This method computes the total electric field of all the EM objects in the collection

Efield(Vec3, Vec3) - Method in class simulations.objects.EMTransform

Efield(Vec3, Vec3) - Method in class simulations.objects.EddyCurrents

This "E" field has no meaning for this object, as we are only using this object to calcuate the eddy current in the xy plane and put it in Bfield.

Efield(Vec3, Vec3) - Method in class simulations.objects.EflowXY

Efield(Vec3, Vec3) - Method in class simulations.objects.ElectricAntenna

The electric field of the linear antenna.

Efield(Vec3, Vec3) - Method in class simulations.objects.ElectricDipole

Compute the electric field at position x and time t

Efield(Vec3, Vec3) - Method in class simulations.objects.ElectricDipoleRotating

Compute the electric field at position x and time t

Efield(Vec3, Vec3) - Method in class simulations.objects.ElectricDipoleStatic

Efield(Vec3, Vec3) - Method in class simulations.objects.ElectromagneticPlaneWave

Compute the electric field at position x and time t

Efield(Vec3, Vec3) - Method in class simulations.objects.HelioField

inverse distance squared field

Efield(Vec3, Vec3) - Method in class simulations.objects.ISMfield

constant electric field except for a sphere centered at p where the field is zero

Efield(Vec3, Vec3) - Method in class simulations.objects.InfiniteWire

Efield(Vec3, Vec3) - Method in class simulations.objects.Line3DMagneticDipoles

the electric field of a moving monopole

Efield(Vec3, Vec3) - Method in class simulations.objects.LineCurrent

Efield(Vec3, Vec3) - Method in class simulations.objects.LineMagneticMonopoles

Efield(Vec3, Vec3) - Method in class simulations.objects.MagneticDipole

Efield(Vec3, Vec3) - Method in class simulations.objects.MagneticDipoleStatic

Efield(Vec3, Vec3) - Method in class simulations.objects.MagneticMonopole

The electric field of a moving monopole.

Efield(Vec3, Vec3) - Method in class simulations.objects.MovingMagneticField

Efield(Vec3, Vec3) - Method in class simulations.objects.MovingPointCharge

the non-relativistic electric field of a moving point charge

Efield(Vec3, Vec3) - Method in class simulations.objects.MovingRecedingImagePotentialAbove

the electric field of a moving monopole, which currently we set to zero

Efield(Vec3, Vec3) - Method in class simulations.objects.MovingRecedingImagePotentialBelow

the electric field of a moving monopole, which currently we set to zero

Efield(Vec3, Vec3) - Method in class simulations.objects.PointCharge

the electric field of a stationary point charge

Efield(Vec3, Vec3) - Method in class simulations.objects.TwoPlanes

the electric field of a moving monopole, which currently we set to zero

EfieldMotion - Static variable in class core.field.EMVec2Field

In this case "dfield" is velocity of drifting magnetic monopoles ExB/B^2

EflowXY - class simulations.objects.EflowXY.

EflowXY(double, double, double, double) - Constructor for class simulations.objects.EflowXY

ElectricAntenna - class simulations.objects.ElectricAntenna.

This BaseObject calculates the electric and magnetic fields of a linear antenna with the properties specified.

ElectricAntenna(Vec3, double, double, double, double) - Constructor for class simulations.objects.ElectricAntenna

constructor for the linear antenna

ElectricAntennaExperiment - class simulations.experiments.radiation.ElectricAntennaExperiment.

ElectricAntennaExperiment(double, double, double) - Constructor for class simulations.experiments.radiation.ElectricAntennaExperiment

constructor for linear antenna experiment

ElectricDipole - class simulations.objects.ElectricDipole.

This is a quasi-static electric dipole moving at constant velocity that can be extended to a time varying radiating electric dipole (see for example ElectricOscillatingDipole).

ElectricDipole(Vec3, Vec3) - Constructor for class simulations.objects.ElectricDipole

Create an electric dipole with zero velocity at t = 0.

ElectricDipole(Vec3, Vec3, Vec3) - Constructor for class simulations.objects.ElectricDipole

Create an electric dipole with non-zero velocity at t = 0.

ElectricDipoleRotating - class simulations.objects.ElectricDipoleRotating.

This is a rotating electric dipole.

ElectricDipoleRotating(Vec3, double, double, double) - Constructor for class simulations.objects.ElectricDipoleRotating

Create an electric dipole

ElectricDipoleStatic - class simulations.objects.ElectricDipoleStatic.

static electric dipole including a pauli repulsion term

ElectricDipoleStatic(Vec3, Vec3, Vec3, double) - Constructor for class simulations.objects.ElectricDipoleStatic

ElectricDipoleStatic(Vec3, Vec3, Vec3, Vec3, double) - Constructor for class simulations.objects.ElectricDipoleStatic

ElectricOscillatingDipole - class simulations.objects.ElectricOscillatingDipole.

An extension of the ElectricDipole class that replaces the constant electric dipole moment with one that is oscillating.

ElectricOscillatingDipole(Vec3, Vec3, double, double, double, double) - Constructor for class simulations.objects.ElectricOscillatingDipole

Constructs an ElectricOscillatingDipole centered at "x" at t = 0.

ElectromagneticPlaneWave - class simulations.objects.ElectromagneticPlaneWave.

ElectromagneticPlaneWave(Vec3, double, double, Vec3, double) - Constructor for class simulations.objects.ElectromagneticPlaneWave

Create an electromagnetic plane wave

ElementAdd(double, double, double) - Method in class core.dflic.DFLIC

ElementIterDelete() - Method in class core.dflic.DFLIC

ElementIterInit() - Method in class core.dflic.DFLIC

ElementIterNext() - Method in class core.dflic.DFLIC

ElementMerge() - Method in class core.dflic.DFLIC

Erho - class simulations.objects.antennaMath.Erho.

Erho(double, double, double, double) - Constructor for class simulations.objects.antennaMath.Erho

Erho(double, double, double, double) - Method in class simulations.objects.antennaMath.Erho

EulerIntegration - class core.math.EulerIntegration.

Euler integration scheme

EulerIntegration() - Constructor for class core.math.EulerIntegration

EulerIntegration(double) - Constructor for class core.math.EulerIntegration

Evolve(double, double) - Method in class core.dflic.DFLIC

Evolves the DFLIC state by a time step "dt".

Evolve(double) - Method in class core.dflic.DFLIC

Evolves the DFLIC state by a time step "dt".

Evolve(VecTimeField, Vec, double, double) - Method in class core.math.EulerIntegration

Evolve(VecTimeField, Vec, double, double, double, double) - Method in class core.math.RungeKuttaErrorIntegration

Evolve(VecTimeField, Vec, double, double) - Method in class core.math.RungeKuttaIntegration

Evolve the system from x at s to the new x at x + ds, in one step or a number of small steps, depending on what is requested.

Evolve(double) - Method in class simulations.experiments.BaseExperiment

Evolves the properties of the collection of BaseObjects in the experiment with time

Evolve(double) - Method in class simulations.experiments.electrostatics.ChargeInFieldExperiment

method to evolve the particle motion in time

Evolve(double, double) - Method in class simulations.experiments.electrostatics.ColorTestExperiment

Evolves the experiment a time step dt

Evolve(double) - Method in class simulations.experiments.electrostatics.ColorTestExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.electrostatics.TwoChargesExperiment

Evolves the experiment a time step dt

Evolve(double) - Method in class simulations.experiments.electrostatics.TwoChargesExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.FallingRingExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.FallingRingExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.MovingRecedingImagePotentialExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.MovingRecedingImagePotentialExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.MovingReceedingImageExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.MovingReceedingImageExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.RecedingImageExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.RecedingImageExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double, double) - Method in class simulations.experiments.faradaysLaw.TwoPlanesExperiment

Evolve the experiment by a time step "dt" using an integrator.

Evolve(double) - Method in class simulations.experiments.faradaysLaw.TwoPlanesExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double) - Method in class simulations.experiments.fluidFlow.CirculatingFlowExperiment

Evolve(double) - Method in class simulations.experiments.fluidFlow.DataInputExperiment

Evolve(double, double) - Method in class simulations.experiments.fluidFlow.HeliosphereFlowExperiment

Evolves the experiment a time step dt

Evolve(double) - Method in class simulations.experiments.fluidFlow.HeliosphereFlowExperiment

Evolves the experiment by a time step "dt" using an RK4 integrator by taking numberSmallSteps between t and t + dt, for accuracy.

Evolve(double, double) - Method in class simulations.experiments.magnetostatics.TeachSpinExperiment

Evolves the experiment.

Evolve(double) - Method in class simulations.experiments.magnetostatics.TeachSpinExperiment

Evolves the experiment by a time step "dt"

Evolve(double) - Method in class simulations.experiments.radiation.ElectricAntennaExperiment

Evolve(double) - Method in class simulations.experiments.radiation.OscillatingDipoleExperiment

Evolves the experiment by a time step "dt".

Evolve(double) - Method in class simulations.objects.BaseObject

Evolves the object by the amount of time 'dt'.

Evolve(double) - Method in class simulations.objects.ChargeRingFinite

Evolve(double) - Method in class simulations.objects.CurrentRing

A very simple evolution of the CurrnetRing by amount of time "dt".

Evolve(double) - Method in class simulations.objects.CurrentSheet

Evolve(double) - Method in class simulations.objects.EMCollection

Evolves all the base objects with the naive evolution specified.

Evolve(double) - Method in class simulations.objects.ElectricAntenna

Evolve(double) - Method in class simulations.objects.ElectricDipole

Evolve the dipole time and position.

Evolve(double) - Method in class simulations.objects.ElectricDipoleRotating

Evolve the dipole time

Evolve(double) - Method in class simulations.objects.InfiniteWire

Evolve(double) - Method in class simulations.objects.MagneticDipole

Evolve(double) - Method in class simulations.objects.MovingPointCharge

Evolves the position and velocity of the charge.

Ex1 - Variable in class simulations.objects.EflowXY

Ex2 - Variable in class simulations.objects.EflowXY

Ez - class simulations.objects.antennaMath.Ez.

Ez(double, double, double, double) - Constructor for class simulations.objects.antennaMath.Ez

Ez1 - Variable in class simulations.objects.EflowXY

Ez2 - Variable in class simulations.objects.EflowXY

Ezee(double, double, double, double) - Method in class simulations.objects.antennaMath.Ez

e0 - Static variable in class simulations.Constants

episilon naught

elc - Variable in class core.dflic.DFLIC

elcurrent - Variable in class core.dflic.DFLIC

elempty - Variable in class core.dflic.DFLIC

eliter - Variable in class core.dflic.DFLIC

eliterlast - Variable in class core.dflic.DFLIC

ellipticIntegral(double, double, double, double, double) - Static method in class core.math.SpecialFunctions

Elliptic integrals: This algorithm for the calculation of the complete elliptic integral (CEI) is presented in papers by Ronald Bulirsch, Numerical Calculation of Elliptic Integrals and Elliptic Functions, Numerische Mathematik 7, 78-90 (1965) and Ronald Bulirsch: Numerical Calculation of Elliptic Integrals and Elliptic Functions III, Numerische Mathematik 13,305-315 (1969).

elmax - Variable in class core.dflic.DFLIC

elnew - Variable in class core.dflic.DFLIC

elnext - Variable in class core.dflic.DFLIC

elp - Variable in class core.dflic.DFLIC

eltemp - Variable in class core.dflic.DFLIC

elx - Variable in class core.dflic.DFLIC

ely - Variable in class core.dflic.DFLIC

emsource - Variable in class core.postprocessing.Colorizer

This is our emsource which we use to get the field if we color by field magnitude.

endFrame - Variable in class core.rendering.Renderer

The end frame of the inteval where we will actually render an image.

eps - Variable in class core.math.RungeKuttaErrorIntegration

eps - Variable in class simulations.experiments.BaseExperiment

If the experiment uses a RungeKuttaIntegration scheme which calculates an internal fractional error estimate to evolve the Motion equations (not implemented at present in 1.0), then eps is the allowed fractional error for the step from t to t+dt for a requested time step dt.

equals(Mat2) - Method in class core.math.Mat2

Returns: true if "this" equals "m", false otherwise

equals(Vec) - Method in class core.math.Vec

Returns: true if "this" and "v" are equal, false otherwise Requires: "this" and "v" have the same dimension

equals(Vec2) - Method in class core.math.Vec2

Returns: true if "this" equals "v", false otherwise

equals(Vec3) - Method in class core.math.Vec3

Returns: true if 'this' equals 'v', false otherwise

equations - Variable in class simulations.experiments.electrostatics.ChargeInFieldExperiment

equation of motion of the particle

equations - Variable in class simulations.experiments.electrostatics.ColorTestExperiment

The equation of motion for the system (just Coulomb repulsion)

equations - Variable in class simulations.experiments.electrostatics.TwoChargesExperiment

The equation of motion for the system (just Coulomb repulsion)

equations - Variable in class simulations.experiments.faradaysLaw.EddyCurrentsDipoleExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.faradaysLaw.EddyCurrentsMonopoleExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.faradaysLaw.FallingRingExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.faradaysLaw.MovingRecedingImagePotentialExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.faradaysLaw.MovingReceedingImageExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.faradaysLaw.RecedingImageExperiment

equations - Variable in class simulations.experiments.faradaysLaw.TwoPlanesExperiment

Define the evolution equations used by the RK4 integrator

equations - Variable in class simulations.experiments.fluidFlow.HeliosphereFlowExperiment

The equation of motion for the system (just Coulomb repulsion)

experiment - Variable in class core.field.EMVec2Field

The base experiment computing the flow speed by region, if used,

experiment - Variable in class core.postprocessing.Colorizer

This is the experiment which determines the colors by region via experiment.getHue() if we color by region.

experiment - Variable in class core.rendering.Renderer