Uses of Interface
globals.Value

Packages that use Value

Package	Description
globals
globals.parameter
globals.rmi
globals.trigger
globals.value
io
stella.acquire
stella.adapter
stella.auxiliary
stella.globals
stella.roof
stella.sensor
stella.telescope
stella.util

Uses of Value in globals

Subinterfaces of Value in globals

Modifier and Type	Interface and Description
interface	TimeDependingTargetValue Combines target depending plus value properties, no new properties, but redifines #getFor to deliver a number.

Uses of Value in globals.parameter

Fields in globals.parameter declared as Value

Modifier and Type	Field and Description
private Value	DateFromJd.jd The value of the jd.
private Value	WcsString.rade The ra/de of the actual object as a Double.

Uses of Value in globals.rmi

Classes in globals.rmi that implement Value

Modifier and Type	Class and Description
class	AbstractFitsValue A class of values that deal with read-in fits files, where a (small) window is extracted to get some statistics.
class	AbstractRemoteValue Abstract implementation of a Remote Parameter that acts locally as a value.
class	Efficiency This class takes a fits file, extracts a region around AbstractFitsValue.KEY_WINDOW, determines the total flux there and relates it to the incident flux of the star on top of the atmosphere.
class	SignalToNoise From a fits file, we extract a window and estimate the Signal-to-Noise from photon statistics.
class	SimpleRemoteValue A simple value with remote capabilities.
class	ValueStub The stub representation for a remote value.

Fields in globals.rmi declared as Value

Modifier and Type	Field and Description
private Value	FitsMoments.orderprovider The order provider used to get the moments order to which we calc.
private Value	Efficiency.rmag The rmag of the target, set remotely.

Uses of Value in globals.trigger

Fields in globals.trigger declared as Value

Modifier and Type	Field and Description
private Value	MissmatchTrigger.v1 The living instance of value 1.
private Value	MissmatchTrigger.v2 The living instance of value 2.

Uses of Value in globals.value

Classes in globals.value that implement Value

Modifier and Type	Class and Description
class	AbstractDatabaseValue This Value retrieves values from a database.
class	AbstractTime
class	AbstractValue An intermediate class from an abstract parameter to a concrete value class.
class	AcceleratedJd Represents the current time as julian date.
class	AcceleratedTime A general variable representing time.
class	AirmassTarget Represents the airmass to the actual target.
class	AlarmWatch An alarm watch acts like a stop watch, but additionally implements notification after a certain amount of time has been accumulated in the stop watch.
class	Altitude A Parameter representing the latitude of the Teide observatory.
class	AltTarget Represents the height of the actual target in degrees.
class	AltVelocity A class to calculate the velocity in altitude as a function of target coordinates and sidereal time according to
class	AzTarget Represents the azimuth of the actual target in degrees.
class	AzVelocity A class to calculate the velocity in altitude as a function of target coordinates and sidereal time, according to
class	BarycentricVelocity Computes baricentric velocity correction, based on FORTRAN-code at bvc
class	BVTarget A general variable representing the color index B-V of the actual object.
class	CountDownWatch A count down acts more or less like a stop watch, but in the way that it is not counting up, but counting down.
class	CurrentTime A general variable representing time.
class	DecApparent A general variable representing the ra of the actual object, precessed to the current equinox.
class	DecTarget A general variable representing the dec of the actual object.
class	DelayedValue A helper class providing a simple value with possibly delayed value setting.
class	Distance A classs that calculates the distance between two points on the sphere.
static class	Distance.TargetDistance Target-depending version for distance of target to moon.
class	DiurnalVelocity Parameter that calculates the part of the radial velocity correction that is due to Earth's rotation.
class	EclipticObliquity A Value calculating the current obliquity of the ecliptic.
class	ElapsedTime An elapsed time is a value linked to a trigger.
class	EnvironmentFocus A parameter that calculates an optimal setting for the telescope focus from a temperature parameter and the target height.
class	ExtinctionCoefficient A Value that consits of a look-up table linking well-known filter names like 'B' for Johnson-B to the effective wavelength width, which is returned in nm.
class	FilterTarget A Value that consits of a look-up table linking well-known filter names like 'B' for Johnson-B to the effective wavelength width, which is returned in nm.
class	FilterWavelength A Value that consits of a look-up table linking well-known filter names like 'B' for Johnson-B to the effective wavelength width, which is returned in nm.
class	FilterWidth A Value that consits of a look-up table linking well-known filter names like 'B' for Johnson-B to the effective wavelength width, which is returned in nm.
class	HjdCorrection Represents the current heliocentric correction.
class	ImageRevolution This class calculates the image revolution in degrees per second.
class	ImageRotation This parameter gives the amount of image rotation in the focal plane.
class	IntegerId An ID describable as an integer.
class	Jd Represents the current time as julian date.
class	Latitude A Parameter representing the latitude of the Teide observatory.
class	Longitude A Parameter representing the longitude of the observatory.
class	MoonAngle A class representing the current phase angle of the moon for the center of the moon.
class	MoonAzimuth A Value calculating the moon height.
class	MoonDec A class representing the current declination of the moon for the center of the earth.
class	MoonHeight A Value calculating the moon height.
class	MoonLight A model of the sky brightness caused by moon-light following the prescription of K.
class	MoonPhase A class representing the current phase of the moon as seen from the earth.
class	MoonRa A class representing the current right ascension of the moon for the center of the earth.
class	NasmithImageRevolution This parameter gives the amount of image rotation in the nashmith focal plane.
class	NasmithImageRotation This parameter gives the amount of image rotation in the nashmith focal plane.
class	NightLength A class giving the length of the actual night in milliseconds.
class	NightRemain A class giving the remaining length of the actual night in milliseconds.
class	ParallacticAngle The parallactic angle η also gives the amount of image rotation in the focal plane.
class	PropDecTarget A general variable representing the proper motion in dec of the actual object.
class	PropRaTarget A general variable representing the proper motion in ra, most likely in miliarcsec/yr, of the actual object.
class	PseudoRandom A Value representing a pseudo-random variable as generated by "Random number generators: good ones are hard to find", Communications of the ACM, Volume 31 , Issue 10 (October 1988) Pages: 1192 - 1201
class	RaApparent A general variable representing the ra of the actual object, precessed to the current equinox.
class	RaTarget A general variable representing the ra of the actual object.
class	RMagTarget A general variable representing the R magnitude of the actual object.
class	RollOverWatch A stopwatch counting time with the possibility of re-nulling at certain times.
class	ServerPort Diverts a property into a port number.
class	SettableTime A general variable representing time.
class	ShelfStatistic This class hooks on to a shelf to generate minima/maxima or averages.
static class	ShelfStatistic.Average Useable class returning the average.
static class	ShelfStatistic.Maximum Useable class returning the average.
static class	ShelfStatistic.Minimum Useable class returning the average.
static class	ShelfStatistic.Test Test class.
class	SiderealGreenwich And yet another implementation of a sidereal time computation}, for the zero-meridian at Greenwich.
class	SiderealGreenwichApparent The apparent sidereal time in Greenwich.
class	SiderealTime And yet another implementation of a sidereal time computation.
class	SimpleValue A helper class providing a simple parameter.
static class	SimpleValue.Exposure Simple value that implements the ExposureTimeMeasuring interface to use it as an exposure time meter.
class	SolAzimuth A Value calculating the solar zenith height.
class	SolDec A parameter giving the actual solar declination.
class	SolDistance A Value calculating the apparent solar distance in AU.
class	SolHeight A Value calculating the solar zenith height.
class	SolLambda A Value calculating the apparent solar ecliptical longitude.
class	SolOpposition A Value calculating the time out of a given solar ra.
class	SolRa A parameter giving the actual solar right ascension.
class	SolSink Gives the current speed of the sun-rise or sink, meaning the first derivative of the solar height with time.
class	SolZ A Value calculating the solar zenith distance.
class	StopWatch A stop watch parameter counts elapsed time.
class	SumWatch A sum watch takes several StopWatches and returns their summed value on request.
class	TargetDistance A parameter that calculates the distance of a target to some given fixed point in the sky.
class	TargetSetupValue A general variable representing a constant in a setup of a target.
class	TauTarget Represents the hour angle of the actual target.
class	TrackVelocity A class to calculate the tracking velocity as the sum of AzVelocity and AltVelocity.
class	Twilight A twilight parameter measures the time prior and after roof opening/closing.
class	ValueDifference Simple difference of two Values.
class	ValueFraction Simple fraction of two Values.
class	ValueProduct Simple product of two Values.
class	ValueSum Simple adding of to Values.
class	VMagTarget A general variable representing the visual magnitude of the actual object.
class	WcsMatrix
static class	WcsMatrix.CD1_1
static class	WcsMatrix.CD1_2
static class	WcsMatrix.CD2_1
static class	WcsMatrix.CD2_2

Fields in globals.value declared as Value

Modifier and Type	Field and Description
private Value	MoonLight.alt Target height.
private Value	TargetDistance.de The declination of the first point.
private Value	AltTarget.dec The dec of the target, degrees.
private Value	ParallacticAngle.dec The azimuth of the target, degrees.
private Value	ImageRevolution.dec The azimuth of the target, degrees.
private Value	AzTarget.dec The dec of the target, degrees.
protected Value	Distance.dec1 The declination of the first point.
protected Value	Distance.dec2 The declination of the second point.
private Value	SolOpposition.epsilon The obliqutiy of the ecliptic, degrees.
private Value	SolRa.epsilon The obliquity of the ecliptic.
private Value	SolDec.epsilon The obliquity of the ecliptic.
private Value	EnvironmentFocus.focusoffset Focus offset if applicable.
private Value	DiurnalVelocity.h The altitude.
private Value	BarycentricVelocity.jd The julian date.
private Value	DecApparent.jd The julian date.
private Value	RaApparent.jd The julian date.
private Value	SolRa.lambda The ecliptical longitude of the Sun.
private Value	NightLength.lambda The solar longitude.
private Value	SolDec.lambda The ecliptical longitude of the Sun.
private Value	SolZ.latitude The longitude of Teide, degrees.
private Value	SolHeight.latitude The longitude of Teide, degrees.
private Value	AltTarget.latitude The latitude of Teide, degrees.
private Value	AzVelocity.latitude The latitude of Teide, degrees.
private Value	MoonAzimuth.latitude The longitude of Teide, degrees.
private Value	MoonHeight.latitude The longitude of Teide, degrees.
private Value	ParallacticAngle.latitude The latitude of Teide, degrees.
private Value	SolAzimuth.latitude The longitude of Teide, degrees.
private Value	AltVelocity.latitude The latitude of Teide, degrees.
private Value	ImageRevolution.latitude The latitude of Teide, degrees.
private Value	AzTarget.latitude The latitude of Teide, degrees.
private Value	Twilight.latitude The latitude parameter to use.
private Value	SiderealTime.longitude The longitude of Teide, degrees.
private Value	MoonLight.moonalt Moon height.
private Value	MoonAzimuth.moondec The solar declination parameter to use.
private Value	MoonHeight.moondec The solar declination parameter to use.
private Value	MoonLight.moonphi Moon phase angle value.
private Value	MoonAzimuth.moonra The solar right ascension parameter to use.
private Value	MoonHeight.moonra The solar right ascension parameter to use.
private Value	DiurnalVelocity.phi The latitude.
private Value	NightLength.phi The latitude of the observatory.
private Value	TauTarget.ra The ra of the target, degrees.
private Value	TargetDistance.ra The right ascension of the first point.
protected Value	Distance.ra1 The right ascension of the first point.
protected Value	Distance.ra2 The right ascension of the second point.
private Value	WcsMatrix.rot Delivers the FoV rotation in degrees.
private Value	PseudoRandom.seed
private Value	MoonLight.separation Distance parameter.
private Value	SolZ.sidereal The actual sidereal time.
private Value	TauTarget.sidereal The local sidereal time in degrees.
private Value	SolHeight.sidereal The actual sidereal time.
private Value	MoonAzimuth.sidereal The actual sidereal time.
private Value	MoonHeight.sidereal The actual sidereal time.
private Value	SolAzimuth.sidereal The actual sidereal time.
private Value	Twilight.sidereal The sidereal time parameter to use.
private Value	SolZ.soldec The solar declination parameter to use.
private Value	SolHeight.soldec The solar declination parameter to use.
private Value	SolAzimuth.soldec The solar declination parameter to use.
private Value	Twilight.soldec The solar declination parameter to use.
private Value	SolZ.solra The solar right ascension parameter to use.
private Value	SolHeight.solra The solar right ascension parameter to use.
private Value	SolAzimuth.solra The solar right ascension parameter to use.
private Value	Twilight.solra The solar right ascension parameter to use.
private Value	AltTarget.tau The actual hour angle of the target, degrees.
private Value	ParallacticAngle.tau The azimuth of the target, degrees.
private Value	ImageRevolution.tau The azimuth of the target, degrees.
private Value	AzTarget.tau The actual hour angle of the target, degrees.
private Value	EnvironmentFocus.temperature The relevant focus temperature, degrees.
private Value	Moon.time The UT time in ms.
private Value	SolLambda.time The UT time in ms.
private Value	SolDistance.time The UT time in ms.
private Value	SiderealTime.time The UT time in ms.
private Value	SiderealGreenwichApparent.time The UT time in ms.
private Value	EclipticObliquity.time The UT time in ms.
private Value	SiderealGreenwich.time The UT time in ms.
private Value	StopWatch.timer The parameter denoting time.
private Value	ValueSum.val1 The value of the first point.
private Value	ValueFraction.val1 The value of the first point.
private Value	ValueProduct.val1 The value of the first point.
private Value	ValueDifference.val1 The value of the first point.
private Value	ValueSum.val2 The value of the seconf point.
private Value	ValueFraction.val2 The value of the seconf point.
private Value	ValueProduct.val2 The value of the seconf point.
private Value	ValueDifference.val2 The value of the seconf point.

Methods in globals.value that return Value

Modifier and Type	Method and Description
protected Value	WcsMatrix.getRot()

Uses of Value in io

Classes in io that implement Value

Modifier and Type	Class and Description
class	SerialValue A class providing access to a RS485-enabled switch.

Uses of Value in stella.acquire

Fields in stella.acquire declared as Value

Modifier and Type	Field and Description
private Value	ExposureTimeCalculator.airmass The airmass of the entire field.
private Value	AcquireMaster.az We cache the azimuth parameter.
private Value	PointingModelPivot.az Value that delivers astronomical azimuth.
private Value	AbstractHorizontalGeometry.az We cache the azimuth parameter.
private Value	DerotatorGeometry.derotoff
private Value	AcquireMaster.el We cache the altitude parameter.
private Value	PointingModelPivot.el Value that delivers target height.
private Value	AbstractHorizontalGeometry.el We cache the altitude parameter.
private Value	AcquireMaster.eta We cache the parallactic angle parameter.
private Value	AbstractHorizontalGeometry.eta We cache the parallactic angle parameter.
private Value	AbstractAutoGuider.highwind Value that has the wind-speed maximum.
private Value	AbstractAutoGuider.lostcount Value that count star losses.
private Value	AbstractAutoGuider.seeing Value that has the average seeing.
private Value	AbstractAutoGuider.spuriouscount Value that count spurious losses.

Uses of Value in stella.adapter

Fields in stella.adapter declared as Value

Modifier and Type	Field and Description
private Value	AbstractStarGuider.alt We cache the altitude parameter.
private Value	AdapterGuider.alt We cache the altitude parameter.
private Value	AbstractStarGuider.az We cache the azimuth parameter.
private Value	PrimeFocusCamera.azimuth If we want to make our own pointing model.
private Value	ScienceAcquire.azimuth If we want to make our own pointing model.
private Value	AbstractStarGuider.derotoff We cache the derotator offset parameter.
private Value	AdapterGuider.derotoff We cache the derotator offset parameter.
private Value	BeamSplitterGuider.exposuretimeleft The Value holding the exposure time left.
private Value	SpillageGuider.exposuretimeleft The Value holding the exposure time left.
private Value	OffAxisTracker.exposuretimeleft The Value holding the exposure time left.
private Value	AuxiliaryGuidingUnit.exposuretimeleft The Value holding the exposure time left.
private Value	PyramidUnit.focus For focusing with the pyramid, we need the actual telescope focus.
private Value	AbstractStarGuider.focus We cache the focus parameter.
private Value	LinearPrimeFocus.focus The focus position updated by me.
private Value	LinearPrimeFocus.focusmodel We have a focus model.
private Value	BeamSplitterGuider.fractionalexpose The value holding the fractional exposure time.
private Value	SpillageGuider.fractionalexpose The value holding the fractional exposure time.
private Value	OffAxisTracker.fractionalexpose The value holding the fractional exposure time.
private Value	AuxiliaryGuidingUnit.fractionalexpose The value holding the fractional exposure time.
private Value	LinearPrimeFocus.height The height of the target/telescope.
private Value	BeamSplitterGuider.highwind The value with wind peaks.
private Value	SpillageGuider.highwind The value with wind peaks.
private Value	OffAxisTracker.highwind The value with wind peaks.
private Value	AuxiliaryGuidingUnit.highwind The value with wind peaks.
private Value	AbstractStarGuider.imrot We cache the image rotation parameter.
private Value	AdapterGuider.imrot We cache the image rotation parameter.
private Value	BeamSplitterGuider.lightgain The value with median of light gain.
private Value	SpillageGuider.lightgain The value with median of light gain.
private Value	OffAxisTracker.lightgain The value with median of light gain.
private Value	BeamSplitterGuider.lightloss The value averaging light-loss
private Value	SpillageGuider.lightloss The value averaging light-loss
private Value	OffAxisTracker.lightloss The value averaging light-loss
private Value	BeamSplitterGuider.lostcount The value counting the severe guiding losts.
private Value	SpillageGuider.lostcount The value counting the severe guiding losts.
private Value	OffAxisTracker.lostcount The value counting the severe guiding losts.
private Value	AuxiliaryGuidingUnit.lostcount The value counting the severe guiding losts.
private Value	BeamSplitterGuider.pinholemiss The value averaging pinhole-offsets.
private Value	SpillageGuider.pinholemiss The value averaging pinhole-offsets.
private Value	OffAxisTracker.pinholemiss The value averaging pinhole-offsets.
private Value	AuxiliaryGuidingUnit.pinholemiss The value averaging pinhole-offsets.
private Value	LinearPrimeFocus.shift The external focus offset, e.g.
private Value	BeamSplitterGuider.spuriouscount The value counting the spurious guiding losts.
private Value	SpillageGuider.spuriouscount The value counting the spurious guiding losts.
private Value	OffAxisTracker.spuriouscount The value counting the spurious guiding losts.
private Value	AuxiliaryGuidingUnit.spuriouscount The value counting the spurious guiding losts.
private Value	BeamSplitterGuider.targetseeing The value averaging per-target seeing.
private Value	SpillageGuider.targetseeing The value averaging per-target seeing.
private Value	OffAxisTracker.targetseeing The value averaging per-target seeing.
private Value	AuxiliaryGuidingUnit.targetseeing The value averaging per-target seeing.
private Value	LinearPrimeFocus.temp The temperature value.
private Value	MirrorFocus.tempfocus For coarse focusing, we need the environemt focus.

Methods in stella.adapter that return Value

Modifier and Type	Method and Description
protected Value	AdapterGuider.getAltitude() Returns the target altitude.
protected Value	AdapterGuider.getDerotator() Returns an optional derotator offset.
protected Value	AdapterGuider.getRotation() Returns the current field rotation, i.e.

Methods in stella.adapter with parameters of type Value

Modifier and Type	Method and Description
private boolean	BeamSplitterGuider.GuiderLoop.check(Value v, double above) Check, if the value is non-null, its value is non-null and if this value is higher than the supplied double.
private boolean	SpillageGuider.GuiderLoop.check(Value v, double above) Check, if the value is non-null, its value is non-null and if this value is higher than the supplied double.
private boolean	OffAxisTracker.GuiderLoop.check(Value v, double above) Check, if the value is non-null, its value is non-null and if this value is higher than the supplied double.
private boolean	AuxiliaryGuidingUnit.check(Value v, double above) Check, if the value is non-null, its value is non-null and if this value is higher than the supplied double.
protected void	BeamSplitterGuider.setExposure(Value timeleft, Value fractional) Sets the values related to exposure time.
protected void	SpillageGuider.setExposure(Value timeleft, Value fractional) Sets the values related to exposure time.
protected void	OffAxisTracker.setExposure(Value timeleft, Value fractional) Sets the values related to exposure time.
protected void	AuxiliaryGuidingUnit.setExposure(Value timeleft, Value fractional) Sets the values related to exposure time.
protected void	AbstractStarGuider.setFocus(Value f) Sets the focus value needed sometimes for proper calculation of the central point.
protected void	PyramidUnit.setFocusParameter(Value telescopefocus) Sets the focus value needed for the pyramid focusing sequence.
protected void	BeamSplitterGuider.setGuidingLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	SpillageGuider.setGuidingLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	OffAxisTracker.setGuidingLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	AuxiliaryGuidingUnit.setGuidingLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	BeamSplitterGuider.setLightGain(Value gain) Sets the value with the light gain median.
protected void	SpillageGuider.setLightGain(Value gain) Sets the value with the light gain median.
protected void	OffAxisTracker.setLightGain(Value gain) Sets the value with the light gain median.
protected void	BeamSplitterGuider.setLightLoss(Value loss) Sets the value with the light loss averager.
protected void	SpillageGuider.setLightLoss(Value loss) Sets the value with the light loss averager.
protected void	OffAxisTracker.setLightLoss(Value loss) Sets the value with the light loss averager.
protected void	AbstractStarGuider.setOrientationValues(Value altitude, Value imageangle, Value offset) This method sets the parameters needed for each unit to correctly interpret pixel coordinates.
protected void	AdapterGuider.setOrientationValues(Value altitude, Value imageangle, Value offset) This method sets the parameters needed for each unit to correctly interpret pixel coordinates.
protected void	AbstractStarGuider.setOrientationValues(Value azimuth, Value altitude, Value imageangle, Value offset) This method sets the parameters needed for each unit to correctly interpret pixel coordinates.
protected void	BeamSplitterGuider.setPinholeMiss(Value miss) Sets the value with the target seeing.
protected void	SpillageGuider.setPinholeMiss(Value miss) Sets the value with the target seeing.
protected void	OffAxisTracker.setPinholeMiss(Value miss) Sets the value with the target seeing.
protected void	AuxiliaryGuidingUnit.setPinholeMiss(Value miss) Sets the value with the target seeing.
protected void	BeamSplitterGuider.setSeeing(Value seeing) Sets the value with the target seeing.
protected void	SpillageGuider.setSeeing(Value seeing) Sets the value with the target seeing.
protected void	OffAxisTracker.setSeeing(Value seeing) Sets the value with the target seeing.
protected void	AuxiliaryGuidingUnit.setSeeing(Value seeing) Sets the value with the target seeing.
protected void	BeamSplitterGuider.setTargetLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	SpillageGuider.setTargetLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	OffAxisTracker.setTargetLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	AuxiliaryGuidingUnit.setTargetLost(Value losses) Sets the value counting the spurious guiding losses.
protected void	BeamSplitterGuider.setWindPeak(Value windmax) Sets the value with the high-peaked winds.
protected void	SpillageGuider.setWindPeak(Value windmax) Sets the value with the high-peaked winds.
protected void	OffAxisTracker.setWindPeak(Value windmax) Sets the value with the high-peaked winds.
protected void	AuxiliaryGuidingUnit.setWindPeak(Value windmax) Sets the value with the high-peaked winds.

Uses of Value in stella.auxiliary

Fields in stella.auxiliary declared as Value

Modifier and Type	Field and Description
private Value	LinearPrimeFocus.focus The focus position updated by me.
private Value	LinearPrimeFocus.focusmodel We have a focus model.
private Value	LinearPrimeFocus.height The height of the target/telescope.
private Value	LinearPrimeFocus.shift The external focus offset, e.g.
private Value	LinearPrimeFocus.temp The temperature value.

Uses of Value in stella.globals

Subinterfaces of Value in stella.globals

Modifier and Type	Interface and Description
interface	ExposureTimeMeasuring Simple marker interface to allow a value to be identifyable as an adaptable exposure time.
interface	TargetDependingValue Combines target depending plus value properties, no new properties, but redifines #getFor to deliver a number.

Classes in stella.globals that implement Value

Modifier and Type	Class and Description
class	AbstractFitsMomentsValue Provides basic facilities for target depending values that also need access to fits moments.
class	AbstractTargetValue An abstract base class for some target depending parameters.
class	AdcFocusShift Records the position of a Positioning driver, which is useful if this driver is a filter wheel.
class	AltTelescope The current position of the telescope, altitude in degrees.
class	AzTelescope The current position of the telescope, altitude in degrees.
class	DarkCurrent A general variable representing the dark counts expected for a given exposure time, deduced from the current CCD temperature.
class	DerotatorOffset A derotator offset is calculated such that Wifsip always points approximately to the ground, but at the same time keeping the CCD geometry fixed.
class	ExposureRepeat A general variable representing the ra of the actual object.
class	ExposureSpan A general variable representing the ra of the actual object.
class	ExposureTimeLeft A general variable representing the the currently remaining exposure time.
class	FilterFocusShift Records the position of a Positioning driver, which is useful if this driver is a filter wheel.
class	FilterWheelPosition Records the position of a Positioning driver, which is useful if this driver is a filter wheel.
class	FlatExposureTime We estimate the exposure time for a flat field to yield a good exposure level.
class	FlatMaximumTime The maximum exposure time allowed for flats is a filter function, because it basically defines when too much star light is visible in the flat.
class	FlatQuality We estimate the quality of the currently accumulated flat fields.
class	FluxAdapter A parameter that utilizes incoming AdapterFwhm status messages to derive the reported star flux (in instrumental magnitudes) out of it.
class	FocusMeasure We measure the focus by maximizing a central moment of the image fits.
class	FocusPosition A simple parameter that reflects the currently attained focus position of the telescope.
class	FractionalExposureTime This parameter gives the fractional remaining exposure time.
class	FwhmAdapter A parameter that utilizes incoming AdapterFwhm status messages to derive the reported star fwhm (in arcseconds) out of it.
class	FwhmMeasure A parameter that utilizes incoming AdapterFwhm status messages to derive the reported star fwhm (in arcseconds) out of it.
class	Horizon The horizon is a global constraint that deals with the partial vignetting of the field of view.
class	LaserAzAltDistance A parameter that calculates the distance of a target to some given point in the sky given by azimuth (astronomical, i.e.
class	LaserAzAltHtmlFtp
class	LaserAzAltHtmlList
class	LaserAzAltList A parameter dealing with varying laser pointings, each defined by an az, alt, start and duration.
class	LaserDistance
class	LaserHtmlFtp
class	LaserHtmlList
class	LaserList A parameter dealing with varying laser pointings, each defined by an az, alt, start and duration.
class	MirrorTemperature A simple parameter that reflects the currently attained focus position of the telescope.
class	ObservableList A parameter that is capable of cumulating a list of observable targets along with their highest-ever merit.
class	PilarValue Telescope parameters whose string representation can be parsed into a number
class	ProposalTime Counts the time spent on certain proposals.
class	RankProvider A frame provider is a parameter that defines a certain rectangluar areas, normally depending on target picked and/or error received.
class	RefractionModel A paramter that combines necessary environment data to allow the determination of the refraction.
class	RemoteSensorAverage Returns the average of a sensor.
class	RemoteSensorMaximum Returns the average of a sensor.
class	RemoteSensorShelf This value registers to a sensor that is a RmiDataCaster.
class	RemoteSensorStatistic This value registers to a sensor that is a RmiDataCaster.
class	RemoteSensorStub This class is a parameter stub, intended to bind to a remotely running sensor.
class	RemoteShelfAverage Returns the average of a sensor.
class	RemoteShelfMaximum Returns the average of a sensor.
class	RunningCount This parameter provides a running number which can be preserved and restored.Running number counts occurrence of certain errors, defined in concrete subclasses.
class	RunningExposureNumber
class	SensorShelf Links averaging to a data sensor.
class	SensorStatistic A sensor statistic acts as a data listener, where every data event received is added to the statistic.
class	SensorValue A parameter that represents a sensor that is running locally on the same host.
class	ShutterTimes Wraps on a shutter and provides timing information.
class	SnapshotValue An extension to a snapshot parameter, where the registered parameter must be a value.
class	StatisticValue A value that is reset at receiving a certain error-event, cumulates numbers with its set method and returns statistical values on get queris.
static class	StatisticValue.Average Useable class returning the average.
static class	StatisticValue.Maximum Useable class returning the average.
static class	StatisticValue.Median Useable class returning the median.
static class	StatisticValue.Minimum Useable class returning the average.
class	TargetMerit A value symbolizing the current merit of the target.
class	TrackTime A general variable representing the tracking time remaining for the actual object.
class	UserShare A parameter that represents the current time share of a user group.

Fields in stella.globals declared as Value

Modifier and Type	Field and Description
private Value	InferPark.alt The registered alt parameter.
private Value	PointingModelOffset.azimuth The astronomical azimuth in degrees.
private Value	DarkCurrent.ccdtemp The current temperature of the CCD.
private Value	DitherParameter.count The parameter that counts the actual exposure number.
private Value	FocusMeasure.focus The parameter that delivers current sky brightness.
private Value	FocusQuality.focus The focus position.
private Value	DerotatorCenter.fov The FoV parameter.
private Value	PointingModelOffset.height The target height in degrees.
private Value	FocusQuality.height The height value.
private Value	FlatExposureTime.lux The parameter that delivers current sky brightness.
private Value	LaserAzAltDistance.phi The latitude.
private Value	OptimalAdc.phi The target depending parameter that is the height of the target.
private Value	RefractionModel.press The pressure value.
private Value	RefractionModel.temp The value of the temperature.
private Value	UserShare.timetotal The value counting total observation time of the telescope.

Fields in stella.globals with type parameters of type Value

Modifier and Type	Field and Description
private SortedSet<Value>	FocusQuality.temp The temperature parameters.
private Map<String,Value>	WeatherTrigger.weather The mapping of value names to the Value objects.

Methods in stella.globals with parameters of type Value

Modifier and Type	Method and Description
private VectorG	FocusMeasure.extractMoments(Value f, int order) We calculate an exposure time from the light sensor.

Uses of Value in stella.roof

Fields in stella.roof declared as Value

Modifier and Type	Field and Description
private Value	DomeReceiver.altitude The value that has the height of the sky position tracked.
private Value	DomeReceiver.azimuth The value that has the azimuth of the sky position tracked.

Uses of Value in stella.sensor

Classes in stella.sensor that implement Value

Modifier and Type	Class and Description
class	DataValue The Parameter representation of a sensor reading.
class	WeatherRemainsBad The weather trigger exports the weather from a local WeatherSurveying instance to remote listeners.

Fields in stella.sensor declared as Value

Modifier and Type	Field and Description
private Value	FakeSolZSensor.mytime The time instance to use.
private Value	SolHeightSensor.phi The longitude of Teide, degrees.
private Value	SolHeightSensor.soldec The solar declination parameter to use.
private Value	SolHeightSensor.solra The solar right ascension parameter to use.
private Value	SolHeightSensor.solz The solar height parameter.
private Value	SolHeightSensor.theta The actual sidereal time.
private Value	ParameterSensor.value The Value we wrap.

Uses of Value in stella.telescope

Fields in stella.telescope declared as Value

Modifier and Type	Field and Description
private Value	GregorDriver.alttarget Value stating elevation of target.
private Value	GregorDriver.aztarget Value stating azimuth of target.
private Value	VattDriver.parangle Value stating parallactic angle of target.
private Value	AbstractPilarDriver.pressure The ambient pressure.
private Value	AbstractPilarDriver.temperature The ambient temperature.

Uses of Value in stella.util

Classes in stella.util that implement Value

Modifier and Type	Class and Description
class	SimulatorTime A general variable representing time.
class	TimeSimulate

Fields in stella.util declared as Value

Modifier and Type	Field and Description
private Value	MomentsFocusser.alt The value that delivers the altitude relevant for focus model.
private Value	MomentsFocusser.shiftfocus The value that delivers a focus shift due to a filter selected.
private Value	MomentsFocusser.temp The value that delivers the temperature relevant for focus model.
private Value	DummySequencer.time The time value.
private Value	SimulatorWeather.time The time parameter, only used for logging.